Blender 2.80 (sub 57)
Build: 17/04/2019 17:26 Windows Release
argv[0] = blender
argv[1] = --debug
argv[2] = --debug-gpu
argv[3] = --python-expr
argv[4] = import bpy; bpy.ops.wm.sysinfo(filepath=r'C:\Users\HP\AppData\Local\Temp\blender\debug_logs\blender_system_info.txt')
read file C:\Users\HP\AppData\Roaming\Blender Foundation\Blender\2.80\config\userpref.blend
  Version 280 sub 53 date 2019-03-31 21:52 hash b936d7b16c62
Read prefs: C:\Users\HP\AppData\Roaming\Blender Foundation\Blender\2.80\config\userpref.blend
read file 
  Version 280 sub 39 date unknown hash unknown
GPUTexture: create : TEXTURE_CUBE_MAP, RGBA16F, w : 2, h : 2, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_1D, RGBA8, w : 1, h : 0, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1, h : 1, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_3D, RGBA8, w : 1, h : 1, d : 1, comp : 4, size : 0.00 MiB
Using OpenGL 4.3 debug facilities
GL application marker: Successfully hooked OpenGL debug callback.
found bundled python: E:\Blender\Blender Program\blender-2.80.0-git.b46245470f79-windows64 20.4.19\2.80\python
GPUTexture: create : TEXTURE_2D, RGBA8, w : 899, h : 26, d : 0, comp : 4, size : 0.09 MiB
GPUTexture: create : TEXTURE_2D, R8, w : 16384, h : 128, d : 0, comp : 1, size : 2.00 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 3 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 3 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 405, h : 26, d : 0, comp : 4, size : 0.04 MiB
GL API other: Buffer detailed info: Buffer object 4 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 4 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 16, h : 32, d : 0, comp : 4, size : 0.00 MiB
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1288, h : 32, d : 0, comp : 4, size : 0.16 MiB
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1304, h : 20, d : 0, comp : 4, size : 0.10 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 226, h : 26, d : 0, comp : 4, size : 0.02 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 29, h : 425, d : 0, comp : 4, size : 0.05 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API performance: Program/shader state performance warning: Fragment Shader is going to be recompiled because the shader key based on GL state mismatches.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 197, h : 425, d : 0, comp : 4, size : 0.32 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, R8, w : 16384, h : 128, d : 0, comp : 1, size : 2.00 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 226, h : 26, d : 0, comp : 4, size : 0.02 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 226, h : 188, d : 0, comp : 4, size : 0.16 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 5 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 5 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 26, d : 0, comp : 4, size : 0.11 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 24, d : 0, comp : 4, size : 0.10 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API performance: Program/shader state performance warning: Fragment Shader is going to be recompiled because the shader key based on GL state mismatches.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 6 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 6 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 7 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 7 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 26, d : 0, comp : 4, size : 0.11 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 56, h : 589, d : 0, comp : 4, size : 0.13 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 8 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 8 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, DEPTH24_STENCIL8, w : 1077, h : 615, d : 0, comp : 1, size : 2.53 MiB
GPUTexture: create : TEXTURE_1D, RGBA8, w : 257, h : 0, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_1D, RGBA8, w : 256, h : 0, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_3D, RGBA8, w : 1, h : 1, d : 1, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_1D, RGBA8, w : 1, h : 0, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_2D, R11F_G11F_B10F, w : 1077, h : 615, d : 0, comp : 3, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, R32UI, w : 1077, h : 615, d : 0, comp : 1, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RG16, w : 1077, h : 615, d : 0, comp : 2, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RGBA16F, w : 64, h : 64, d : 0, comp : 4, size : 0.06 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, DEPTH24_STENCIL8, w : 1077, h : 615, d : 0, comp : 1, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 16, h : 16, d : 0, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_2D, DEPTH_COMPONENT24, w : 1077, h : 615, d : 0, comp : 1, size : 1.90 MiB
GPUTexture: create : TEXTURE_2D, R16UI, w : 1077, h : 615, d : 0, comp : 1, size : 1.26 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, R8, w : 16384, h : 64, d : 0, comp : 1, size : 1.00 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 527, h : 491, d : 0, comp : 4, size : 0.99 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API performance: Program/shader state performance warning: Fragment Shader is going to be recompiled because the shader key based on GL state mismatches.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API performance: Program/shader state performance warning: Fragment Shader is going to be recompiled because the shader key based on GL state mismatches.
GL API other: Buffer detailed info: Buffer object 161 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 161 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API performance: Program/shader state performance warning: Fragment Shader is going to be recompiled because the shader key based on GL state mismatches.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 623, h : 91, d : 0, comp : 4, size : 0.22 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 623, h : 91, d : 0, comp : 4, size : 0.22 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
read file 
  Version 280 sub 39 date unknown hash unknown
GPUTexture: create : TEXTURE_2D, RGBA8, w : 899, h : 26, d : 0, comp : 4, size : 0.09 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GPUTexture: create : TEXTURE_2D, R8, w : 16384, h : 128, d : 0, comp : 1, size : 2.00 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 405, h : 26, d : 0, comp : 4, size : 0.04 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 16, h : 32, d : 0, comp : 4, size : 0.00 MiB
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1288, h : 32, d : 0, comp : 4, size : 0.16 MiB
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1304, h : 20, d : 0, comp : 4, size : 0.10 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 226, h : 26, d : 0, comp : 4, size : 0.02 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 29, h : 425, d : 0, comp : 4, size : 0.05 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 197, h : 425, d : 0, comp : 4, size : 0.32 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, R8, w : 16384, h : 128, d : 0, comp : 1, size : 2.00 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 226, h : 26, d : 0, comp : 4, size : 0.02 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 226, h : 188, d : 0, comp : 4, size : 0.16 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 26, d : 0, comp : 4, size : 0.11 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 24, d : 0, comp : 4, size : 0.10 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 26, d : 0, comp : 4, size : 0.11 MiB
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 56, h : 589, d : 0, comp : 4, size : 0.13 MiB
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, DEPTH24_STENCIL8, w : 1077, h : 615, d : 0, comp : 1, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, R11F_G11F_B10F, w : 1077, h : 615, d : 0, comp : 3, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, R32UI, w : 1077, h : 615, d : 0, comp : 1, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RG16, w : 1077, h : 615, d : 0, comp : 2, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, DEPTH24_STENCIL8, w : 1077, h : 615, d : 0, comp : 1, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, DEPTH_COMPONENT24, w : 1077, h : 615, d : 0, comp : 1, size : 1.90 MiB
GPUTexture: create : TEXTURE_2D, R16UI, w : 1077, h : 615, d : 0, comp : 1, size : 1.26 MiB
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1077, h : 615, d : 0, comp : 4, size : 2.53 MiB
GPUTexture: create : TEXTURE_2D, R8, w : 16384, h : 64, d : 0, comp : 1, size : 1.00 MiB
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 366, h : 125, d : 0, comp : 4, size : 0.17 MiB
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 162 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 162 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STATIC_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 223, h : 196, d : 0, comp : 4, size : 0.17 MiB
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
Evaluate all animation - 1.000000
	No Actions, so no animation needs to be evaluated...
GL API other: Texture state usage warning: Texture 0 is base level inconsistent. Check texture size.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), and GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (0), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (1), GL_VERTEX_ATTRIB_ARRAY_BUFFER_BINDING_ARB (2), and GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 2 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_STREAM_DRAW) will use VIDEO memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) has been mapped WRITE_ONLY in SYSTEM HEAP memory (fast).
GL API other: Buffer detailed info: Buffer object 1 (bound to GL_ARRAY_BUFFER_ARB, usage hint is GL_DYNAMIC_DRAW) will use SYSTEM HEAP memory as the source for buffer object operations.
GL API other: Texture state usage warning: Waste of memory: Texture 0 has mipmaps, while it's min filter is inconsistent with mipmaps.
GPUTexture: create : TEXTURE_2D, RGBA8, w : 1288, h : 26, d : 0, comp : 4, size : 0.13 MiB
GPUTexture: create : TEXTURE_2D, DEPTH24_STENCIL8, w : 1920, h : 1080, d : 0, comp : 1, size : 7.91 MiB
GPUTexture: create : TEXTURE_2D, RGBA32F, w : 1920, h : 1080, d : 0, comp : 4, size : 63.28 MiB
GPUTexture: create : TEXTURE_2D, RGBA32F, w : 1920, h : 1080, d : 0, comp : 4, size : 63.28 MiB
GPUTexture: create : TEXTURE_2D, DEPTH_COMPONENT24, w : 960, h : 540, d : 0, comp : 1, size : 1.48 MiB
GPUTexture: create : TEXTURE_2D, DEPTH24_STENCIL8, w : 1920, h : 1080, d : 0, comp : 1, size : 7.91 MiB
GPUTexture: create : TEXTURE_2D, RGBA32F, w : 1920, h : 1080, d : 0, comp : 4, size : 63.28 MiB
GPUTexture: create : TEXTURE_2D, RGBA32F, w : 1920, h : 1080, d : 0, comp : 4, size : 63.28 MiB
GPUTexture: create : TEXTURE_2D_ARRAY, RGBA16F, w : 64, h : 64, d : 20, comp : 4, size : 1.25 MiB
GPUTexture: create : TEXTURE_2D, RGBA16F, w : 64, h : 64, d : 0, comp : 4, size : 0.06 MiB
GPUShader: compile error:
===== shader string 1 ====
 1  #version 330
===== shader string 2 ====
 2  #define GPU_FRAGMENT_SHADER
===== shader string 3 ====
 3  #extension GL_ARB_texture_gather: enable
 4  #define GPU_ARB_texture_gather
 5  #extension GL_ARB_texture_query_lod: enable
===== shader string 4 ====
 6  #define GPU_NVIDIA
 7  #define OS_WIN
===== shader string 5 ====
 8  #define HAMMERSLEY_SIZE 1024
 9  #define IRRADIANCE_HL2
10  #define NOISE_SIZE 64
===== shader string 6 ====
11  /* keep in sync with DRWManager.view_data */

12  layout(std140) uniform viewBlock

13  {

14    /* Same order as DRWViewportMatrixType */

15    mat4 ViewProjectionMatrix;

16    mat4 ViewProjectionMatrixInverse;

17    mat4 ViewMatrix;

18    mat4 ViewMatrixInverse;

19    mat4 ProjectionMatrix;

20    mat4 ProjectionMatrixInverse;

21  

22    vec4 CameraTexCoFactors;

23  

24    vec4 clipPlanes[2];

25  };

26  

27  layout(std140) uniform common_block

28  {

29    mat4 pastViewProjectionMatrix;

30    vec4 viewVecs[2];

31    vec2 mipRatio[10]; /* To correct mip level texel mis-alignement */

32    /* Ambient Occlusion */

33    vec4 aoParameters[2];

34    /* Volumetric */

35    ivec4 volTexSize;

36    vec4 volDepthParameters; /* Parameters to the volume Z equation */

37    vec4 volInvTexSize;

38    vec4 volJitter;

39    vec4 volCoordScale; /* To convert volume uvs to screen uvs */

40    float volHistoryAlpha;

41    float volLightClamp;

42    float volShadowSteps;

43    bool volUseLights;

44    /* Screen Space Reflections */

45    vec4 ssrParameters;

46    float ssrBorderFac;

47    float ssrMaxRoughness;

48    float ssrFireflyFac;

49    float ssrBrdfBias;

50    bool ssrToggle;

51    /* SubSurface Scattering */

52    float sssJitterThreshold;

53    bool sssToggle;

54    /* Specular */

55    bool specToggle;

56    /* Lights */

57    int laNumLight;

58    /* Probes */

59    int prbNumPlanar;

60    int prbNumRenderCube;

61    int prbNumRenderGrid;

62    int prbIrradianceVisSize;

63    float prbIrradianceSmooth;

64    float prbLodCubeMax;

65    float prbLodPlanarMax;

66    /* Misc*/

67    int hizMipOffset;

68    int rayType;

69    float rayDepth;

70  };

71  

72  /* rayType (keep in sync with ray_type) */

73  #define EEVEE_RAY_CAMERA 0

74  #define EEVEE_RAY_SHADOW 1

75  #define EEVEE_RAY_DIFFUSE 2

76  #define EEVEE_RAY_GLOSSY 3

77  

78  /* aoParameters */

79  #define aoDistance aoParameters[0].x

80  #define aoSamples aoParameters[0].y /* UNUSED */

81  #define aoFactor aoParameters[0].z

82  #define aoInvSamples aoParameters[0].w /* UNUSED */

83  

84  #define aoOffset aoParameters[1].x /* UNUSED */

85  #define aoBounceFac aoParameters[1].y

86  #define aoQuality aoParameters[1].z

87  #define aoSettings aoParameters[1].w

88  

89  /* ssrParameters */

90  #define ssrQuality ssrParameters.x

91  #define ssrThickness ssrParameters.y

92  #define ssrPixelSize ssrParameters.zw

93  

94  #define M_PI 3.14159265358979323846     /* pi */

95  #define M_2PI 6.28318530717958647692    /* 2*pi */

96  #define M_PI_2 1.57079632679489661923   /* pi/2 */

97  #define M_1_PI 0.318309886183790671538  /* 1/pi */

98  #define M_1_2PI 0.159154943091895335768 /* 1/(2*pi) */

99  #define M_1_PI2 0.101321183642337771443 /* 1/(pi^2) */

100  

101  #define LUT_SIZE 64

102  

103  /* Buffers */

104  uniform sampler2D colorBuffer;

105  uniform sampler2D depthBuffer;

106  uniform sampler2D maxzBuffer;

107  uniform sampler2D minzBuffer;

108  uniform sampler2DArray planarDepth;

109  

110  #define cameraForward normalize(ViewMatrixInverse[2].xyz)

111  #define cameraPos ViewMatrixInverse[3].xyz

112  #define cameraVec \

113    ((ProjectionMatrix[3][3] == 0.0) ? normalize(cameraPos - worldPosition) : cameraForward)

114  #define viewCameraVec \

115    ((ProjectionMatrix[3][3] == 0.0) ? normalize(-viewPosition) : vec3(0.0, 0.0, 1.0))

116  

117  /* ------- Structures -------- */

118  

119  /* ------ Lights ----- */

120  struct LightData {

121    vec4 position_influence;     /* w : InfluenceRadius (inversed and squared) */

122    vec4 color_spec;             /* w : Spec Intensity */

123    vec4 spotdata_radius_shadow; /* x : spot size, y : spot blend, z : radius, w: shadow id */

124    vec4 rightvec_sizex;         /* xyz: Normalized up vector, w: area size X or spot scale X */

125    vec4 upvec_sizey;            /* xyz: Normalized right vector, w: area size Y or spot scale Y */

126    vec4 forwardvec_type;        /* xyz: Normalized forward vector, w: Light Type */

127  };

128  

129  /* convenience aliases */

130  #define l_color color_spec.rgb

131  #define l_spec color_spec.a

132  #define l_position position_influence.xyz

133  #define l_influence position_influence.w

134  #define l_sizex rightvec_sizex.w

135  #define l_sizey upvec_sizey.w

136  #define l_right rightvec_sizex.xyz

137  #define l_up upvec_sizey.xyz

138  #define l_forward forwardvec_type.xyz

139  #define l_type forwardvec_type.w

140  #define l_spot_size spotdata_radius_shadow.x

141  #define l_spot_blend spotdata_radius_shadow.y

142  #define l_radius spotdata_radius_shadow.z

143  #define l_shadowid spotdata_radius_shadow.w

144  

145  /* ------ Shadows ----- */

146  #ifndef MAX_CASCADE_NUM

147  #  define MAX_CASCADE_NUM 4

148  #endif

149  

150  struct ShadowData {

151    vec4 near_far_bias_exp;

152    vec4 shadow_data_start_end;

153    vec4 contact_shadow_data;

154  };

155  

156  struct ShadowCubeData {

157    vec4 position;

158  };

159  

160  struct ShadowCascadeData {

161    mat4 shadowmat[MAX_CASCADE_NUM];

162    vec4 split_start_distances;

163    vec4 split_end_distances;

164  };

165  

166  /* convenience aliases */

167  #define sh_near near_far_bias_exp.x

168  #define sh_far near_far_bias_exp.y

169  #define sh_bias near_far_bias_exp.z

170  #define sh_exp near_far_bias_exp.w

171  #define sh_bleed near_far_bias_exp.w

172  #define sh_tex_start shadow_data_start_end.x

173  #define sh_data_start shadow_data_start_end.y

174  #define sh_multi_nbr shadow_data_start_end.z

175  #define sh_blur shadow_data_start_end.w

176  #define sh_contact_dist contact_shadow_data.x

177  #define sh_contact_offset contact_shadow_data.y

178  #define sh_contact_spread contact_shadow_data.z

179  #define sh_contact_thickness contact_shadow_data.w

180  

181  /* ------- Convenience functions --------- */

182  

183  vec3 mul(mat3 m, vec3 v)

184  {

185    return m * v;

186  }

187  mat3 mul(mat3 m1, mat3 m2)

188  {

189    return m1 * m2;

190  }

191  vec3 transform_direction(mat4 m, vec3 v)

192  {

193    return mat3(m) * v;

194  }

195  vec3 transform_point(mat4 m, vec3 v)

196  {

197    return (m * vec4(v, 1.0)).xyz;

198  }

199  vec3 project_point(mat4 m, vec3 v)

200  {

201    vec4 tmp = m * vec4(v, 1.0);

202    return tmp.xyz / tmp.w;

203  }

204  

205  #define min3(a, b, c) min(a, min(b, c))

206  #define min4(a, b, c, d) min(a, min3(b, c, d))

207  #define min5(a, b, c, d, e) min(a, min4(b, c, d, e))

208  #define min6(a, b, c, d, e, f) min(a, min5(b, c, d, e, f))

209  #define min7(a, b, c, d, e, f, g) min(a, min6(b, c, d, e, f, g))

210  #define min8(a, b, c, d, e, f, g, h) min(a, min7(b, c, d, e, f, g, h))

211  #define min9(a, b, c, d, e, f, g, h, i) min(a, min8(b, c, d, e, f, g, h, i))

212  

213  #define max3(a, b, c) max(a, max(b, c))

214  #define max4(a, b, c, d) max(a, max3(b, c, d))

215  #define max5(a, b, c, d, e) max(a, max4(b, c, d, e))

216  #define max6(a, b, c, d, e, f) max(a, max5(b, c, d, e, f))

217  #define max7(a, b, c, d, e, f, g) max(a, max6(b, c, d, e, f, g))

218  #define max8(a, b, c, d, e, f, g, h) max(a, max7(b, c, d, e, f, g, h))

219  #define max9(a, b, c, d, e, f, g, h, i) max(a, max8(b, c, d, e, f, g, h, i))

220  

221  #define avg3(a, b, c) (a + b + c) * (1.0 / 3.0)

222  #define avg4(a, b, c, d) (a + b + c + d) * (1.0 / 4.0)

223  #define avg5(a, b, c, d, e) (a + b + c + d + e) * (1.0 / 5.0)

224  #define avg6(a, b, c, d, e, f) (a + b + c + d + e + f) * (1.0 / 6.0)

225  #define avg7(a, b, c, d, e, f, g) (a + b + c + d + e + f + g) * (1.0 / 7.0)

226  #define avg8(a, b, c, d, e, f, g, h) (a + b + c + d + e + f + g + h) * (1.0 / 8.0)

227  #define avg9(a, b, c, d, e, f, g, h, i) (a + b + c + d + e + f + g + h + i) * (1.0 / 9.0)

228  

229  float min_v2(vec2 v)

230  {

231    return min(v.x, v.y);

232  }

233  float min_v3(vec3 v)

234  {

235    return min(v.x, min(v.y, v.z));

236  }

237  float max_v2(vec2 v)

238  {

239    return max(v.x, v.y);

240  }

241  float max_v3(vec3 v)

242  {

243    return max(v.x, max(v.y, v.z));

244  }

245  

246  float sum(vec2 v)

247  {

248    return dot(vec2(1.0), v);

249  }

250  float sum(vec3 v)

251  {

252    return dot(vec3(1.0), v);

253  }

254  float sum(vec4 v)

255  {

256    return dot(vec4(1.0), v);

257  }

258  

259  float saturate(float a)

260  {

261    return clamp(a, 0.0, 1.0);

262  }

263  vec2 saturate(vec2 a)

264  {

265    return clamp(a, 0.0, 1.0);

266  }

267  vec3 saturate(vec3 a)

268  {

269    return clamp(a, 0.0, 1.0);

270  }

271  vec4 saturate(vec4 a)

272  {

273    return clamp(a, 0.0, 1.0);

274  }

275  

276  float distance_squared(vec2 a, vec2 b)

277  {

278    a -= b;

279    return dot(a, a);

280  }

281  float distance_squared(vec3 a, vec3 b)

282  {

283    a -= b;

284    return dot(a, a);

285  }

286  float len_squared(vec3 a)

287  {

288    return dot(a, a);

289  }

290  

291  float inverse_distance(vec3 V)

292  {

293    return max(1 / length(V), 1e-8);

294  }

295  

296  vec2 mip_ratio_interp(float mip)

297  {

298    float low_mip = floor(mip);

299    return mix(mipRatio[int(low_mip)], mipRatio[int(low_mip + 1.0)], mip - low_mip);

300  }

301  

302  /* ------- RNG ------- */

303  

304  float wang_hash_noise(uint s)

305  {

306    s = (s ^ 61u) ^ (s >> 16u);

307    s *= 9u;

308    s = s ^ (s >> 4u);

309    s *= 0x27d4eb2du;

310    s = s ^ (s >> 15u);

311  

312    return fract(float(s) / 4294967296.0);

313  }

314  

315  /* ------- Fast Math ------- */

316  

317  /* [Drobot2014a] Low Level Optimizations for GCN */

318  float fast_sqrt(float v)

319  {

320    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

321  }

322  

323  vec2 fast_sqrt(vec2 v)

324  {

325    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

326  }

327  

328  /* [Eberly2014] GPGPU Programming for Games and Science */

329  float fast_acos(float v)

330  {

331    float res = -0.156583 * abs(v) + M_PI_2;

332    res *= fast_sqrt(1.0 - abs(v));

333    return (v >= 0) ? res : M_PI - res;

334  }

335  

336  vec2 fast_acos(vec2 v)

337  {

338    vec2 res = -0.156583 * abs(v) + M_PI_2;

339    res *= fast_sqrt(1.0 - abs(v));

340    v.x = (v.x >= 0) ? res.x : M_PI - res.x;

341    v.y = (v.y >= 0) ? res.y : M_PI - res.y;

342    return v;

343  }

344  

345  float point_plane_projection_dist(vec3 lineorigin, vec3 planeorigin, vec3 planenormal)

346  {

347    return dot(planenormal, planeorigin - lineorigin);

348  }

349  

350  float line_plane_intersect_dist(vec3 lineorigin,

351                                  vec3 linedirection,

352                                  vec3 planeorigin,

353                                  vec3 planenormal)

354  {

355    return dot(planenormal, planeorigin - lineorigin) / dot(planenormal, linedirection);

356  }

357  

358  float line_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec4 plane)

359  {

360    vec3 plane_co = plane.xyz * (-plane.w / len_squared(plane.xyz));

361    vec3 h = lineorigin - plane_co;

362    return -dot(plane.xyz, h) / dot(plane.xyz, linedirection);

363  }

364  

365  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin, vec3 planenormal)

366  {

367    float dist = line_plane_intersect_dist(lineorigin, linedirection, planeorigin, planenormal);

368    return lineorigin + linedirection * dist;

369  }

370  

371  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec4 plane)

372  {

373    float dist = line_plane_intersect_dist(lineorigin, linedirection, plane);

374    return lineorigin + linedirection * dist;

375  }

376  

377  float line_aligned_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

378  {

379    /* aligned plane normal */

380    vec3 L = planeorigin - lineorigin;

381    float diskdist = length(L);

382    vec3 planenormal = -normalize(L);

383    return -diskdist / dot(planenormal, linedirection);

384  }

385  

386  vec3 line_aligned_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

387  {

388    float dist = line_aligned_plane_intersect_dist(lineorigin, linedirection, planeorigin);

389    if (dist < 0) {

390      /* if intersection is behind we fake the intersection to be

391       * really far and (hopefully) not inside the radius of interest */

392      dist = 1e16;

393    }

394    return lineorigin + linedirection * dist;

395  }

396  

397  float line_unit_sphere_intersect_dist(vec3 lineorigin, vec3 linedirection)

398  {

399    float a = dot(linedirection, linedirection);

400    float b = dot(linedirection, lineorigin);

401    float c = dot(lineorigin, lineorigin) - 1;

402  

403    float dist = 1e15;

404    float determinant = b * b - a * c;

405    if (determinant >= 0) {

406      dist = (sqrt(determinant) - b) / a;

407    }

408  

409    return dist;

410  }

411  

412  float line_unit_box_intersect_dist(vec3 lineorigin, vec3 linedirection)

413  {

414    /* https://seblagarde.wordpress.com/2012/09/29/image-based-lighting-approaches-and-parallax-corrected-cubemap/ */

415    vec3 firstplane = (vec3(1.0) - lineorigin) / linedirection;

416    vec3 secondplane = (vec3(-1.0) - lineorigin) / linedirection;

417    vec3 furthestplane = max(firstplane, secondplane);

418  

419    return min_v3(furthestplane);

420  }

421  

422  /* Return texture coordinates to sample Surface LUT */

423  vec2 lut_coords(float cosTheta, float roughness)

424  {

425    float theta = acos(cosTheta);

426    vec2 coords = vec2(roughness, theta / M_PI_2);

427  

428    /* scale and bias coordinates, for correct filtered lookup */

429    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

430  }

431  

432  vec2 lut_coords_ltc(float cosTheta, float roughness)

433  {

434    vec2 coords = vec2(roughness, sqrt(1.0 - cosTheta));

435  

436    /* scale and bias coordinates, for correct filtered lookup */

437    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

438  }

439  

440  /* -- Tangent Space conversion -- */

441  vec3 tangent_to_world(vec3 vector, vec3 N, vec3 T, vec3 B)

442  {

443    return T * vector.x + B * vector.y + N * vector.z;

444  }

445  

446  vec3 world_to_tangent(vec3 vector, vec3 N, vec3 T, vec3 B)

447  {

448    return vec3(dot(T, vector), dot(B, vector), dot(N, vector));

449  }

450  

451  void make_orthonormal_basis(vec3 N, out vec3 T, out vec3 B)

452  {

453    vec3 UpVector = abs(N.z) < 0.99999 ? vec3(0.0, 0.0, 1.0) : vec3(1.0, 0.0, 0.0);

454    T = normalize(cross(UpVector, N));

455    B = cross(N, T);

456  }

457  

458  /* ---- Opengl Depth conversion ---- */

459  

460  float linear_depth(bool is_persp, float z, float zf, float zn)

461  {

462    if (is_persp) {

463      return (zn * zf) / (z * (zn - zf) + zf);

464    }

465    else {

466      return (z * 2.0 - 1.0) * zf;

467    }

468  }

469  

470  float buffer_depth(bool is_persp, float z, float zf, float zn)

471  {

472    if (is_persp) {

473      return (zf * (zn - z)) / (z * (zn - zf));

474    }

475    else {

476      return (z / (zf * 2.0)) + 0.5;

477    }

478  }

479  

480  float get_view_z_from_depth(float depth)

481  {

482    if (ProjectionMatrix[3][3] == 0.0) {

483      float d = 2.0 * depth - 1.0;

484      return -ProjectionMatrix[3][2] / (d + ProjectionMatrix[2][2]);

485    }

486    else {

487      return viewVecs[0].z + depth * viewVecs[1].z;

488    }

489  }

490  

491  float get_depth_from_view_z(float z)

492  {

493    if (ProjectionMatrix[3][3] == 0.0) {

494      float d = (-ProjectionMatrix[3][2] / z) - ProjectionMatrix[2][2];

495      return d * 0.5 + 0.5;

496    }

497    else {

498      return (z - viewVecs[0].z) / viewVecs[1].z;

499    }

500  }

501  

502  vec2 get_uvs_from_view(vec3 view)

503  {

504    vec3 ndc = project_point(ProjectionMatrix, view);

505    return ndc.xy * 0.5 + 0.5;

506  }

507  

508  vec3 get_view_space_from_depth(vec2 uvcoords, float depth)

509  {

510    if (ProjectionMatrix[3][3] == 0.0) {

511      return vec3(viewVecs[0].xy + uvcoords * viewVecs[1].xy, 1.0) * get_view_z_from_depth(depth);

512    }

513    else {

514      return viewVecs[0].xyz + vec3(uvcoords, depth) * viewVecs[1].xyz;

515    }

516  }

517  

518  vec3 get_world_space_from_depth(vec2 uvcoords, float depth)

519  {

520    return (ViewMatrixInverse * vec4(get_view_space_from_depth(uvcoords, depth), 1.0)).xyz;

521  }

522  

523  vec3 get_specular_reflection_dominant_dir(vec3 N, vec3 V, float roughness)

524  {

525    vec3 R = -reflect(V, N);

526    float smoothness = 1.0 - roughness;

527    float fac = smoothness * (sqrt(smoothness) + roughness);

528    return normalize(mix(N, R, fac));

529  }

530  

531  float specular_occlusion(float NV, float AO, float roughness)

532  {

533    return saturate(pow(NV + AO, roughness) - 1.0 + AO);

534  }

535  

536  /* --- Refraction utils --- */

537  

538  float ior_from_f0(float f0)

539  {

540    float f = sqrt(f0);

541    return (-f - 1.0) / (f - 1.0);

542  }

543  

544  float f0_from_ior(float eta)

545  {

546    float A = (eta - 1.0) / (eta + 1.0);

547    return A * A;

548  }

549  

550  vec3 get_specular_refraction_dominant_dir(vec3 N, vec3 V, float roughness, float ior)

551  {

552    /* TODO: This a bad approximation. Better approximation should fit

553     * the refracted vector and roughness into the best prefiltered reflection

554     * lobe. */

555    /* Correct the IOR for ior < 1.0 to not see the abrupt delimitation or the TIR */

556    ior = (ior < 1.0) ? mix(ior, 1.0, roughness) : ior;

557    float eta = 1.0 / ior;

558  

559    float NV = dot(N, -V);

560  

561    /* Custom Refraction. */

562    float k = 1.0 - eta * eta * (1.0 - NV * NV);

563    k = max(0.0, k); /* Only this changes. */

564    vec3 R = eta * -V - (eta * NV + sqrt(k)) * N;

565  

566    return R;

567  }

568  

569  float get_btdf_lut(sampler2DArray btdf_lut_tex, float NV, float roughness, float ior)

570  {

571    const vec3 lut_scale_bias_texel_size = vec3((LUT_SIZE - 1.0), 0.5, 1.5) / LUT_SIZE;

572  

573    vec3 coords;

574    /* Try to compensate for the low resolution and interpolation error. */

575    coords.x = (ior > 1.0) ? (0.9 + lut_scale_bias_texel_size.z) +

576                                 (0.1 - lut_scale_bias_texel_size.z) * f0_from_ior(ior) :

577                             (0.9 + lut_scale_bias_texel_size.z) * ior * ior;

578    coords.y = 1.0 - saturate(NV);

579    coords.xy *= lut_scale_bias_texel_size.x;

580    coords.xy += lut_scale_bias_texel_size.y;

581  

582    const float lut_lvl_ofs = 4.0;    /* First texture lvl of roughness. */

583    const float lut_lvl_scale = 16.0; /* How many lvl of roughness in the lut. */

584  

585    float mip = roughness * lut_lvl_scale;

586    float mip_floor = floor(mip);

587  

588    coords.z = lut_lvl_ofs + mip_floor + 1.0;

589    float btdf_high = textureLod(btdf_lut_tex, coords, 0.0).r;

590  

591    coords.z -= 1.0;

592    float btdf_low = textureLod(btdf_lut_tex, coords, 0.0).r;

593  

594    float btdf = (ior == 1.0) ? 1.0 : mix(btdf_low, btdf_high, mip - coords.z);

595  

596    return btdf;

597  }

598  

599  /* ---- Encode / Decode Normal buffer data ---- */

600  /* From http://aras-p.info/texts/CompactNormalStorage.html

601   * Using Method #4: Spheremap Transform */

602  vec2 normal_encode(vec3 n, vec3 view)

603  {

604    float p = sqrt(n.z * 8.0 + 8.0);

605    return n.xy / p + 0.5;

606  }

607  

608  vec3 normal_decode(vec2 enc, vec3 view)

609  {

610    vec2 fenc = enc * 4.0 - 2.0;

611    float f = dot(fenc, fenc);

612    float g = sqrt(1.0 - f / 4.0);

613    vec3 n;

614    n.xy = fenc * g;

615    n.z = 1 - f / 2;

616    return n;

617  }

618  

619  /* ---- RGBM (shared multiplier) encoding ---- */

620  /* From http://iwasbeingirony.blogspot.fr/2010/06/difference-between-rgbm-and-rgbd.html */

621  

622  /* Higher RGBM_MAX_RANGE gives imprecision issues in low intensity. */

623  #define RGBM_MAX_RANGE 512.0

624  

625  vec4 rgbm_encode(vec3 rgb)

626  {

627    float maxRGB = max_v3(rgb);

628    float M = maxRGB / RGBM_MAX_RANGE;

629    M = ceil(M * 255.0) / 255.0;

630    return vec4(rgb / (M * RGBM_MAX_RANGE), M);

631  }

632  

633  vec3 rgbm_decode(vec4 data)

634  {

635    return data.rgb * (data.a * RGBM_MAX_RANGE);

636  }

637  

638  /* ---- RGBE (shared exponent) encoding ---- */

639  vec4 rgbe_encode(vec3 rgb)

640  {

641    float maxRGB = max_v3(rgb);

642    float fexp = ceil(log2(maxRGB));

643    return vec4(rgb / exp2(fexp), (fexp + 128.0) / 255.0);

644  }

645  

646  vec3 rgbe_decode(vec4 data)

647  {

648    float fexp = data.a * 255.0 - 128.0;

649    return data.rgb * exp2(fexp);

650  }

651  

652  #if 1

653  #  define irradiance_encode rgbe_encode

654  #  define irradiance_decode rgbe_decode

655  #else /* No ecoding (when using floating point format) */

656  #  define irradiance_encode(X) (X).rgbb

657  #  define irradiance_decode(X) (X).rgb

658  #endif

659  

660  /* Irradiance Visibility Encoding */

661  #if 1

662  vec4 visibility_encode(vec2 accum, float range)

663  {

664    accum /= range;

665  

666    vec4 data;

667    data.x = fract(accum.x);

668    data.y = floor(accum.x) / 255.0;

669    data.z = fract(accum.y);

670    data.w = floor(accum.y) / 255.0;

671  

672    return data;

673  }

674  

675  vec2 visibility_decode(vec4 data, float range)

676  {

677    return (data.xz + data.yw * 255.0) * range;

678  }

679  #else /* No ecoding (when using floating point format) */

680  vec4 visibility_encode(vec2 accum, float range)

681  {

682    return accum.xyxy;

683  }

684  

685  vec2 visibility_decode(vec4 data, float range)

686  {

687    return data.xy;

688  }

689  #endif

690  

691  /* Fresnel monochromatic, perfect mirror */

692  float F_eta(float eta, float cos_theta)

693  {

694    /* compute fresnel reflectance without explicitly computing

695     * the refracted direction */

696    float c = abs(cos_theta);

697    float g = eta * eta - 1.0 + c * c;

698    float result;

699  

700    if (g > 0.0) {

701      g = sqrt(g);

702      vec2 g_c = vec2(g) + vec2(c, -c);

703      float A = g_c.y / g_c.x;

704      A *= A;

705      g_c *= c;

706      float B = (g_c.y - 1.0) / (g_c.x + 1.0);

707      B *= B;

708      result = 0.5 * A * (1.0 + B);

709    }

710    else {

711      result = 1.0; /* TIR (no refracted component) */

712    }

713  

714    return result;

715  }

716  

717  /* Fresnel color blend base on fresnel factor */

718  vec3 F_color_blend(float eta, float fresnel, vec3 f0_color)

719  {

720    float f0 = F_eta(eta, 1.0);

721    float fac = saturate((fresnel - f0) / max(1e-8, 1.0 - f0));

722    return mix(f0_color, vec3(1.0), fac);

723  }

724  

725  /* Fresnel */

726  vec3 F_schlick(vec3 f0, float cos_theta)

727  {

728    float fac = 1.0 - cos_theta;

729    float fac2 = fac * fac;

730    fac = fac2 * fac2 * fac;

731  

732    /* Unreal specular matching : if specular color is below 2% intensity,

733     * (using green channel for intensity) treat as shadowning */

734    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * fac + (1.0 - fac) * f0;

735  }

736  

737  /* Fresnel approximation for LTC area lights (not MRP) */

738  vec3 F_area(vec3 f0, vec2 lut)

739  {

740    /* Unreal specular matching : if specular color is below 2% intensity,

741     * treat as shadowning */

742    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

743  }

744  

745  /* Fresnel approximation for IBL */

746  vec3 F_ibl(vec3 f0, vec2 lut)

747  {

748    /* Unreal specular matching : if specular color is below 2% intensity,

749     * treat as shadowning */

750    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

751  }

752  

753  /* GGX */

754  float D_ggx_opti(float NH, float a2)

755  {

756    float tmp = (NH * a2 - NH) * NH + 1.0;

757    return M_PI * tmp * tmp; /* Doing RCP and mul a2 at the end */

758  }

759  

760  float G1_Smith_GGX(float NX, float a2)

761  {

762    /* Using Brian Karis approach and refactoring by NX/NX

763     * this way the (2*NL)*(2*NV) in G = G1(V) * G1(L) gets canceled by the brdf denominator 4*NL*NV

764     * Rcp is done on the whole G later

765     * Note that this is not convenient for the transmission formula */

766    return NX + sqrt(NX * (NX - NX * a2) + a2);

767    /* return 2 / (1 + sqrt(1 + a2 * (1 - NX*NX) / (NX*NX) ) ); /* Reference function */

768  }

769  

770  float bsdf_ggx(vec3 N, vec3 L, vec3 V, float roughness)

771  {

772    float a = roughness;

773    float a2 = a * a;

774  

775    vec3 H = normalize(L + V);

776    float NH = max(dot(N, H), 1e-8);

777    float NL = max(dot(N, L), 1e-8);

778    float NV = max(dot(N, V), 1e-8);

779  

780    float G = G1_Smith_GGX(NV, a2) * G1_Smith_GGX(NL, a2); /* Doing RCP at the end */

781    float D = D_ggx_opti(NH, a2);

782  

783    /* Denominator is canceled by G1_Smith */

784    /* bsdf = D * G / (4.0 * NL * NV); /* Reference function */

785    return NL * a2 / (D * G); /* NL to Fit cycles Equation : line. 345 in bsdf_microfacet.h */

786  }

787  

788  void accumulate_light(vec3 light, float fac, inout vec4 accum)

789  {

790    accum += vec4(light, 1.0) * min(fac, (1.0 - accum.a));

791  }

792  

793  /* ----------- Cone Aperture Approximation --------- */

794  

795  /* Return a fitted cone angle given the input roughness */

796  float cone_cosine(float r)

797  {

798    /* Using phong gloss

799     * roughness = sqrt(2/(gloss+2)) */

800    float gloss = -2 + 2 / (r * r);

801    /* Drobot 2014 in GPUPro5 */

802    // return cos(2.0 * sqrt(2.0 / (gloss + 2)));

803    /* Uludag 2014 in GPUPro5 */

804    // return pow(0.244, 1 / (gloss + 1));

805    /* Jimenez 2016 in Practical Realtime Strategies for Accurate Indirect Occlusion*/

806    return exp2(-3.32193 * r * r);

807  }

808  

809  /* --------- Closure ---------- */

810  #ifdef VOLUMETRICS

811  

812  struct Closure {

813    vec3 absorption;

814    vec3 scatter;

815    vec3 emission;

816    float anisotropy;

817  };

818  

819  #  define CLOSURE_DEFAULT Closure(vec3(0.0), vec3(0.0), vec3(0.0), 0.0)

820  

821  Closure closure_mix(Closure cl1, Closure cl2, float fac)

822  {

823    Closure cl;

824    cl.absorption = mix(cl1.absorption, cl2.absorption, fac);

825    cl.scatter = mix(cl1.scatter, cl2.scatter, fac);

826    cl.emission = mix(cl1.emission, cl2.emission, fac);

827    cl.anisotropy = mix(cl1.anisotropy, cl2.anisotropy, fac);

828    return cl;

829  }

830  

831  Closure closure_add(Closure cl1, Closure cl2)

832  {

833    Closure cl;

834    cl.absorption = cl1.absorption + cl2.absorption;

835    cl.scatter = cl1.scatter + cl2.scatter;

836    cl.emission = cl1.emission + cl2.emission;

837    cl.anisotropy = (cl1.anisotropy + cl2.anisotropy) / 2.0; /* Average phase (no multi lobe) */

838    return cl;

839  }

840  

841  Closure closure_emission(vec3 rgb)

842  {

843    Closure cl = CLOSURE_DEFAULT;

844    cl.emission = rgb;

845    return cl;

846  }

847  

848  #else /* VOLUMETRICS */

849  

850  struct Closure {

851    vec3 radiance;

852    float opacity;

853  #  ifdef USE_SSS

854    vec4 sss_data;

855  #    ifdef USE_SSS_ALBEDO

856    vec3 sss_albedo;

857  #    endif

858  #  endif

859    vec4 ssr_data;

860    vec2 ssr_normal;

861    int ssr_id;

862  };

863  

864  /* This is hacking ssr_id to tag transparent bsdf */

865  #  define TRANSPARENT_CLOSURE_FLAG -2

866  #  define REFRACT_CLOSURE_FLAG -3

867  #  define NO_SSR -999

868  

869  #  ifdef USE_SSS

870  #    ifdef USE_SSS_ALBEDO

871  #      define CLOSURE_DEFAULT \

872          Closure(vec3(0.0), 1.0, vec4(0.0), vec3(0.0), vec4(0.0), vec2(0.0), -1)

873  #    else

874  #      define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec4(0.0), vec2(0.0), -1)

875  #    endif

876  #  else

877  #    define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec2(0.0), -1)

878  #  endif

879  

880  uniform int outputSsrId;

881  

882  Closure closure_mix(Closure cl1, Closure cl2, float fac)

883  {

884    Closure cl;

885  

886    if (cl1.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

887      cl1.ssr_normal = cl2.ssr_normal;

888      cl1.ssr_data = cl2.ssr_data;

889      cl1.ssr_id = cl2.ssr_id;

890  #  ifdef USE_SSS

891      cl1.sss_data = cl2.sss_data;

892  #    ifdef USE_SSS_ALBEDO

893      cl1.sss_albedo = cl2.sss_albedo;

894  #    endif

895  #  endif

896    }

897    if (cl2.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

898      cl2.ssr_normal = cl1.ssr_normal;

899      cl2.ssr_data = cl1.ssr_data;

900      cl2.ssr_id = cl1.ssr_id;

901  #  ifdef USE_SSS

902      cl2.sss_data = cl1.sss_data;

903  #    ifdef USE_SSS_ALBEDO

904      cl2.sss_albedo = cl1.sss_albedo;

905  #    endif

906  #  endif

907    }

908  

909    /* When mixing SSR don't blend roughness.

910     *

911     * It makes no sense to mix them really, so we take either one of them and

912     * tone down its specularity (ssr_data.xyz) while keeping its roughness (ssr_data.w).

913     */

914    if (cl1.ssr_id == outputSsrId) {

915      cl.ssr_data = mix(cl1.ssr_data.xyzw, vec4(vec3(0.0), cl1.ssr_data.w), fac);

916      cl.ssr_normal = cl1.ssr_normal;

917      cl.ssr_id = cl1.ssr_id;

918    }

919    else {

920      cl.ssr_data = mix(vec4(vec3(0.0), cl2.ssr_data.w), cl2.ssr_data.xyzw, fac);

921      cl.ssr_normal = cl2.ssr_normal;

922      cl.ssr_id = cl2.ssr_id;

923    }

924  

925    cl.opacity = mix(cl1.opacity, cl2.opacity, fac);

926    cl.radiance = mix(cl1.radiance * cl1.opacity, cl2.radiance * cl2.opacity, fac);

927    cl.radiance /= max(1e-8, cl.opacity);

928  

929  #  ifdef USE_SSS

930    cl.sss_data.rgb = mix(cl1.sss_data.rgb, cl2.sss_data.rgb, fac);

931    cl.sss_data.a = (cl1.sss_data.a > 0.0) ? cl1.sss_data.a : cl2.sss_data.a;

932  #    ifdef USE_SSS_ALBEDO

933    /* TODO Find a solution to this. Dither? */

934    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

935  #    endif

936  #  endif

937  

938    return cl;

939  }

940  

941  Closure closure_add(Closure cl1, Closure cl2)

942  {

943    Closure cl = (cl1.ssr_id == outputSsrId) ? cl1 : cl2;

944    cl.radiance = cl1.radiance + cl2.radiance;

945  #  ifdef USE_SSS

946    cl.sss_data = (cl1.sss_data.a > 0.0) ? cl1.sss_data : cl2.sss_data;

947    /* Add radiance that was supposed to be filtered but was rejected. */

948    cl.radiance += (cl1.sss_data.a > 0.0) ? cl2.sss_data.rgb : cl1.sss_data.rgb;

949  #    ifdef USE_SSS_ALBEDO

950    /* TODO Find a solution to this. Dither? */

951    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

952  #    endif

953  #  endif

954    cl.opacity = saturate(cl1.opacity + cl2.opacity);

955    return cl;

956  }

957  

958  Closure closure_emission(vec3 rgb)

959  {

960    Closure cl = CLOSURE_DEFAULT;

961    cl.radiance = rgb;

962    return cl;

963  }

964  

965  #  if defined(MESH_SHADER) && !defined(USE_ALPHA_HASH) && !defined(USE_ALPHA_CLIP) && \

966        !defined(SHADOW_SHADER) && !defined(USE_MULTIPLY)

967  layout(location = 0) out vec4 fragColor;

968  layout(location = 1) out vec4 ssrNormals;

969  layout(location = 2) out vec4 ssrData;

970  #    ifdef USE_SSS

971  layout(location = 3) out vec4 sssData;

972  #      ifdef USE_SSS_ALBEDO

973  layout(location = 4) out vec4 sssAlbedo;

974  #      endif /* USE_SSS_ALBEDO */

975  #    endif   /* USE_SSS */

976  

977  Closure nodetree_exec(void); /* Prototype */

978  

979  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

980  /* Prototype because this file is included before volumetric_lib.glsl */

981  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth);

982  #    endif

983  

984  #    define NODETREE_EXEC

985  void main()

986  {

987    Closure cl = nodetree_exec();

988  #    ifndef USE_ALPHA_BLEND

989    /* Prevent alpha hash material writing into alpha channel. */

990    cl.opacity = 1.0;

991  #    endif

992  

993  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

994    /* XXX fragile, better use real viewport resolution */

995    vec2 uvs = gl_FragCoord.xy / vec2(2 * textureSize(maxzBuffer, 0).xy);

996    fragColor.rgb = volumetric_resolve(vec4(cl.radiance, cl.opacity), uvs, gl_FragCoord.z).rgb;

997    fragColor.a = cl.opacity;

998  #    else

999    fragColor = vec4(cl.radiance, cl.opacity);

1000  #    endif

1001  

1002    ssrNormals = cl.ssr_normal.xyyy;

1003    ssrData = cl.ssr_data;

1004  #    ifdef USE_SSS

1005    sssData = cl.sss_data;

1006  #      ifdef USE_SSS_ALBEDO

1007    sssAlbedo = cl.sss_albedo.rgbb;

1008  #      endif

1009  #    endif

1010  

1011    /* For Probe capture */

1012  #    ifdef USE_SSS

1013  #      ifdef USE_SSS_ALBEDO

1014    fragColor.rgb += cl.sss_data.rgb * cl.sss_albedo.rgb * float(!sssToggle);

1015  #      else

1016    fragColor.rgb += cl.sss_data.rgb * float(!sssToggle);

1017  #      endif

1018  #    endif

1019  }

1020  

1021  #  endif /* MESH_SHADER && !SHADOW_SHADER */

1022  

1023  #endif /* VOLUMETRICS */

1024  

1025  Closure nodetree_exec(void); /* Prototype */

1026  

1027  /* TODO find a better place */

1028  #ifdef USE_MULTIPLY

1029  

1030  out vec4 fragColor;

1031  

1032  #  define NODETREE_EXEC

1033  void main()

1034  {

1035    Closure cl = nodetree_exec();

1036    fragColor = vec4(mix(vec3(1.0), cl.radiance, cl.opacity), 1.0);

1037  }

1038  #endif

1039  

1040  uniform sampler1D texHammersley;

1041  uniform sampler2D texJitter;

1042  uniform float sampleCount;

1043  uniform float invSampleCount;

1044  

1045  vec2 jitternoise = vec2(0.0);

1046  

1047  #ifndef UTIL_TEX

1048  #  define UTIL_TEX

1049  uniform sampler2DArray utilTex;

1050  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1051  #endif /* UTIL_TEX */

1052  

1053  void setup_noise(void)

1054  {

1055    jitternoise = texelfetch_noise_tex(gl_FragCoord.xy).rg; /* Global variable */

1056  }

1057  

1058  #ifdef HAMMERSLEY_SIZE

1059  vec3 hammersley_3d(float i, float invsamplenbr)

1060  {

1061    vec3 Xi; /* Theta, cos(Phi), sin(Phi) */

1062  

1063    Xi.x = i * invsamplenbr; /* i/samples */

1064    Xi.x = fract(Xi.x + jitternoise.x);

1065  

1066    int u = int(mod(i + jitternoise.y * HAMMERSLEY_SIZE, HAMMERSLEY_SIZE));

1067  

1068    Xi.yz = texelFetch(texHammersley, u, 0).rg;

1069  

1070    return Xi;

1071  }

1072  

1073  vec3 hammersley_3d(float i)

1074  {

1075    return hammersley_3d(i, invSampleCount);

1076  }

1077  #endif

1078  

1079  /* -------------- BSDFS -------------- */

1080  

1081  float pdf_ggx_reflect(float NH, float a2)

1082  {

1083    return NH * a2 / D_ggx_opti(NH, a2);

1084  }

1085  

1086  float pdf_hemisphere()

1087  {

1088    return 0.5 * M_1_PI;

1089  }

1090  

1091  vec3 sample_ggx(vec3 rand, float a2)

1092  {

1093    /* Theta is the aperture angle of the cone */

1094    float z = sqrt((1.0 - rand.x) / (1.0 + a2 * rand.x - rand.x)); /* cos theta */

1095    float r = sqrt(max(0.0, 1.0f - z * z));                        /* sin theta */

1096    float x = r * rand.y;

1097    float y = r * rand.z;

1098  

1099    /* Microfacet Normal */

1100    return vec3(x, y, z);

1101  }

1102  

1103  vec3 sample_ggx(vec3 rand, float a2, vec3 N, vec3 T, vec3 B, out float NH)

1104  {

1105    vec3 Ht = sample_ggx(rand, a2);

1106    NH = Ht.z;

1107    return tangent_to_world(Ht, N, T, B);

1108  }

1109  

1110  #ifdef HAMMERSLEY_SIZE

1111  vec3 sample_ggx(float nsample, float a2, vec3 N, vec3 T, vec3 B)

1112  {

1113    vec3 Xi = hammersley_3d(nsample);

1114    vec3 Ht = sample_ggx(Xi, a2);

1115    return tangent_to_world(Ht, N, T, B);

1116  }

1117  

1118  vec3 sample_hemisphere(float nsample, vec3 N, vec3 T, vec3 B)

1119  {

1120    vec3 Xi = hammersley_3d(nsample);

1121  

1122    float z = Xi.x;                         /* cos theta */

1123    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1124    float x = r * Xi.y;

1125    float y = r * Xi.z;

1126  

1127    vec3 Ht = vec3(x, y, z);

1128  

1129    return tangent_to_world(Ht, N, T, B);

1130  }

1131  

1132  vec3 sample_cone(float nsample, float angle, vec3 N, vec3 T, vec3 B)

1133  {

1134    vec3 Xi = hammersley_3d(nsample);

1135  

1136    float z = cos(angle * Xi.x);            /* cos theta */

1137    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1138    float x = r * Xi.y;

1139    float y = r * Xi.z;

1140  

1141    vec3 Ht = vec3(x, y, z);

1142  

1143    return tangent_to_world(Ht, N, T, B);

1144  }

1145  #endif

1146  

1147  uniform samplerCube probeHdr;

1148  uniform float roughnessSquared;

1149  uniform float texelSize;

1150  uniform float lodFactor;

1151  uniform float lodMax;

1152  uniform float paddingSize;

1153  uniform float intensityFac;

1154  uniform float fireflyFactor;

1155  

1156  in vec3 worldPosition;

1157  

1158  out vec4 FragColor;

1159  

1160  float brightness(vec3 c)

1161  {

1162    return max(max(c.r, c.g), c.b);

1163  }

1164  

1165  vec3 octahedral_to_cubemap_proj(vec2 co)

1166  {

1167    co = co * 2.0 - 1.0;

1168  

1169    vec2 abs_co = abs(co);

1170    vec3 v = vec3(co, 1.0 - (abs_co.x + abs_co.y));

1171  

1172    if (abs_co.x + abs_co.y > 1.0) {

1173      v.xy = (abs(co.yx) - 1.0) * -sign(co.xy);

1174    }

1175  

1176    return v;

1177  }

1178  

1179  void main()

1180  {

1181    vec2 uvs = gl_FragCoord.xy * texelSize;

1182  

1183    /* Add a N pixel border to ensure filtering is correct

1184     * for N mipmap levels. */

1185    uvs = (uvs - paddingSize) / (1.0 - 2.0 * paddingSize);

1186  

1187    /* edge mirroring : only mirror if directly adjacent

1188     * (not diagonally adjacent) */

1189    vec2 m = abs(uvs - 0.5) + 0.5;

1190    vec2 f = floor(m);

1191    if (f.x - f.y != 0.0) {

1192      uvs = 1.0 - uvs;

1193    }

1194  

1195    /* clamp to [0-1] */

1196    uvs = fract(uvs);

1197  

1198    /* get cubemap vector */

1199    vec3 cubevec = octahedral_to_cubemap_proj(uvs);

1200  

1201    vec3 N, T, B, V;

1202  

1203    vec3 R = normalize(cubevec);

1204  

1205    /* Isotropic assumption */

1206    N = V = R;

1207  

1208    make_orthonormal_basis(N, T, B); /* Generate tangent space */

1209  

1210    /* Noise to dither the samples */

1211    /* Note : ghosting is better looking than noise. */

1212    // setup_noise();

1213  

1214    /* Integrating Envmap */

1215    float weight = 0.0;

1216    vec3 out_radiance = vec3(0.0);

1217    for (float i = 0; i < sampleCount; i++) {

1218      vec3 H = sample_ggx(i, roughnessSquared, N, T, B); /* Microfacet normal */

1219      vec3 L = -reflect(V, H);

1220      float NL = dot(N, L);

1221  

1222      if (NL > 0.0) {

1223        float NH = max(1e-8, dot(N, H)); /* cosTheta */

1224  

1225        /* Coarse Approximation of the mapping distortion

1226         * Unit Sphere -> Cubemap Face */

1227        const float dist = 4.0 * M_PI / 6.0;

1228        float pdf = pdf_ggx_reflect(NH, roughnessSquared);

1229        /* http://http.developer.nvidia.com/GPUGems3/gpugems3_ch20.html : Equation 13 */

1230        float lod = clamp(lodFactor - 0.5 * log2(pdf * dist), 0.0, lodMax);

1231  

1232        vec3 l_col = textureLod(probeHdr, L, lod).rgb;

1233  

1234        /* Clamped brightness. */

1235        float luma = max(1e-8, brightness(l_col));

1236        l_col *= 1.0 - max(0.0, luma - fireflyFactor) / luma;

1237  

1238        out_radiance += l_col * NL;

1239        weight += NL;

1240      }

1241    }

1242  

1243    FragColor = vec4(intensityFac * out_radiance / weight, 1.0);

1244  }

0(965) : error C0105: Syntax error in #if
0(965) : error C0105: Syntax error in #if
0(966) : error C0000: syntax error, unexpected '!' at token "!"
0(1179) : error C1013: function "main" is already defined at 0(985)

GPUShader: compile error:
===== shader string 1 ====
 1  #version 330
===== shader string 2 ====
 2  #define GPU_FRAGMENT_SHADER
===== shader string 3 ====
 3  #extension GL_ARB_texture_gather: enable
 4  #define GPU_ARB_texture_gather
 5  #extension GL_ARB_texture_query_lod: enable
===== shader string 4 ====
 6  #define GPU_NVIDIA
 7  #define OS_WIN
===== shader string 5 ====
 8  #define HAMMERSLEY_SIZE 1024
 9  #define IRRADIANCE_HL2
10  #define NOISE_SIZE 64
===== shader string 6 ====
11  /* keep in sync with DRWManager.view_data */

12  layout(std140) uniform viewBlock

13  {

14    /* Same order as DRWViewportMatrixType */

15    mat4 ViewProjectionMatrix;

16    mat4 ViewProjectionMatrixInverse;

17    mat4 ViewMatrix;

18    mat4 ViewMatrixInverse;

19    mat4 ProjectionMatrix;

20    mat4 ProjectionMatrixInverse;

21  

22    vec4 CameraTexCoFactors;

23  

24    vec4 clipPlanes[2];

25  };

26  

27  layout(std140) uniform common_block

28  {

29    mat4 pastViewProjectionMatrix;

30    vec4 viewVecs[2];

31    vec2 mipRatio[10]; /* To correct mip level texel mis-alignement */

32    /* Ambient Occlusion */

33    vec4 aoParameters[2];

34    /* Volumetric */

35    ivec4 volTexSize;

36    vec4 volDepthParameters; /* Parameters to the volume Z equation */

37    vec4 volInvTexSize;

38    vec4 volJitter;

39    vec4 volCoordScale; /* To convert volume uvs to screen uvs */

40    float volHistoryAlpha;

41    float volLightClamp;

42    float volShadowSteps;

43    bool volUseLights;

44    /* Screen Space Reflections */

45    vec4 ssrParameters;

46    float ssrBorderFac;

47    float ssrMaxRoughness;

48    float ssrFireflyFac;

49    float ssrBrdfBias;

50    bool ssrToggle;

51    /* SubSurface Scattering */

52    float sssJitterThreshold;

53    bool sssToggle;

54    /* Specular */

55    bool specToggle;

56    /* Lights */

57    int laNumLight;

58    /* Probes */

59    int prbNumPlanar;

60    int prbNumRenderCube;

61    int prbNumRenderGrid;

62    int prbIrradianceVisSize;

63    float prbIrradianceSmooth;

64    float prbLodCubeMax;

65    float prbLodPlanarMax;

66    /* Misc*/

67    int hizMipOffset;

68    int rayType;

69    float rayDepth;

70  };

71  

72  /* rayType (keep in sync with ray_type) */

73  #define EEVEE_RAY_CAMERA 0

74  #define EEVEE_RAY_SHADOW 1

75  #define EEVEE_RAY_DIFFUSE 2

76  #define EEVEE_RAY_GLOSSY 3

77  

78  /* aoParameters */

79  #define aoDistance aoParameters[0].x

80  #define aoSamples aoParameters[0].y /* UNUSED */

81  #define aoFactor aoParameters[0].z

82  #define aoInvSamples aoParameters[0].w /* UNUSED */

83  

84  #define aoOffset aoParameters[1].x /* UNUSED */

85  #define aoBounceFac aoParameters[1].y

86  #define aoQuality aoParameters[1].z

87  #define aoSettings aoParameters[1].w

88  

89  /* ssrParameters */

90  #define ssrQuality ssrParameters.x

91  #define ssrThickness ssrParameters.y

92  #define ssrPixelSize ssrParameters.zw

93  

94  #define M_PI 3.14159265358979323846     /* pi */

95  #define M_2PI 6.28318530717958647692    /* 2*pi */

96  #define M_PI_2 1.57079632679489661923   /* pi/2 */

97  #define M_1_PI 0.318309886183790671538  /* 1/pi */

98  #define M_1_2PI 0.159154943091895335768 /* 1/(2*pi) */

99  #define M_1_PI2 0.101321183642337771443 /* 1/(pi^2) */

100  

101  #define LUT_SIZE 64

102  

103  /* Buffers */

104  uniform sampler2D colorBuffer;

105  uniform sampler2D depthBuffer;

106  uniform sampler2D maxzBuffer;

107  uniform sampler2D minzBuffer;

108  uniform sampler2DArray planarDepth;

109  

110  #define cameraForward normalize(ViewMatrixInverse[2].xyz)

111  #define cameraPos ViewMatrixInverse[3].xyz

112  #define cameraVec \

113    ((ProjectionMatrix[3][3] == 0.0) ? normalize(cameraPos - worldPosition) : cameraForward)

114  #define viewCameraVec \

115    ((ProjectionMatrix[3][3] == 0.0) ? normalize(-viewPosition) : vec3(0.0, 0.0, 1.0))

116  

117  /* ------- Structures -------- */

118  

119  /* ------ Lights ----- */

120  struct LightData {

121    vec4 position_influence;     /* w : InfluenceRadius (inversed and squared) */

122    vec4 color_spec;             /* w : Spec Intensity */

123    vec4 spotdata_radius_shadow; /* x : spot size, y : spot blend, z : radius, w: shadow id */

124    vec4 rightvec_sizex;         /* xyz: Normalized up vector, w: area size X or spot scale X */

125    vec4 upvec_sizey;            /* xyz: Normalized right vector, w: area size Y or spot scale Y */

126    vec4 forwardvec_type;        /* xyz: Normalized forward vector, w: Light Type */

127  };

128  

129  /* convenience aliases */

130  #define l_color color_spec.rgb

131  #define l_spec color_spec.a

132  #define l_position position_influence.xyz

133  #define l_influence position_influence.w

134  #define l_sizex rightvec_sizex.w

135  #define l_sizey upvec_sizey.w

136  #define l_right rightvec_sizex.xyz

137  #define l_up upvec_sizey.xyz

138  #define l_forward forwardvec_type.xyz

139  #define l_type forwardvec_type.w

140  #define l_spot_size spotdata_radius_shadow.x

141  #define l_spot_blend spotdata_radius_shadow.y

142  #define l_radius spotdata_radius_shadow.z

143  #define l_shadowid spotdata_radius_shadow.w

144  

145  /* ------ Shadows ----- */

146  #ifndef MAX_CASCADE_NUM

147  #  define MAX_CASCADE_NUM 4

148  #endif

149  

150  struct ShadowData {

151    vec4 near_far_bias_exp;

152    vec4 shadow_data_start_end;

153    vec4 contact_shadow_data;

154  };

155  

156  struct ShadowCubeData {

157    vec4 position;

158  };

159  

160  struct ShadowCascadeData {

161    mat4 shadowmat[MAX_CASCADE_NUM];

162    vec4 split_start_distances;

163    vec4 split_end_distances;

164  };

165  

166  /* convenience aliases */

167  #define sh_near near_far_bias_exp.x

168  #define sh_far near_far_bias_exp.y

169  #define sh_bias near_far_bias_exp.z

170  #define sh_exp near_far_bias_exp.w

171  #define sh_bleed near_far_bias_exp.w

172  #define sh_tex_start shadow_data_start_end.x

173  #define sh_data_start shadow_data_start_end.y

174  #define sh_multi_nbr shadow_data_start_end.z

175  #define sh_blur shadow_data_start_end.w

176  #define sh_contact_dist contact_shadow_data.x

177  #define sh_contact_offset contact_shadow_data.y

178  #define sh_contact_spread contact_shadow_data.z

179  #define sh_contact_thickness contact_shadow_data.w

180  

181  /* ------- Convenience functions --------- */

182  

183  vec3 mul(mat3 m, vec3 v)

184  {

185    return m * v;

186  }

187  mat3 mul(mat3 m1, mat3 m2)

188  {

189    return m1 * m2;

190  }

191  vec3 transform_direction(mat4 m, vec3 v)

192  {

193    return mat3(m) * v;

194  }

195  vec3 transform_point(mat4 m, vec3 v)

196  {

197    return (m * vec4(v, 1.0)).xyz;

198  }

199  vec3 project_point(mat4 m, vec3 v)

200  {

201    vec4 tmp = m * vec4(v, 1.0);

202    return tmp.xyz / tmp.w;

203  }

204  

205  #define min3(a, b, c) min(a, min(b, c))

206  #define min4(a, b, c, d) min(a, min3(b, c, d))

207  #define min5(a, b, c, d, e) min(a, min4(b, c, d, e))

208  #define min6(a, b, c, d, e, f) min(a, min5(b, c, d, e, f))

209  #define min7(a, b, c, d, e, f, g) min(a, min6(b, c, d, e, f, g))

210  #define min8(a, b, c, d, e, f, g, h) min(a, min7(b, c, d, e, f, g, h))

211  #define min9(a, b, c, d, e, f, g, h, i) min(a, min8(b, c, d, e, f, g, h, i))

212  

213  #define max3(a, b, c) max(a, max(b, c))

214  #define max4(a, b, c, d) max(a, max3(b, c, d))

215  #define max5(a, b, c, d, e) max(a, max4(b, c, d, e))

216  #define max6(a, b, c, d, e, f) max(a, max5(b, c, d, e, f))

217  #define max7(a, b, c, d, e, f, g) max(a, max6(b, c, d, e, f, g))

218  #define max8(a, b, c, d, e, f, g, h) max(a, max7(b, c, d, e, f, g, h))

219  #define max9(a, b, c, d, e, f, g, h, i) max(a, max8(b, c, d, e, f, g, h, i))

220  

221  #define avg3(a, b, c) (a + b + c) * (1.0 / 3.0)

222  #define avg4(a, b, c, d) (a + b + c + d) * (1.0 / 4.0)

223  #define avg5(a, b, c, d, e) (a + b + c + d + e) * (1.0 / 5.0)

224  #define avg6(a, b, c, d, e, f) (a + b + c + d + e + f) * (1.0 / 6.0)

225  #define avg7(a, b, c, d, e, f, g) (a + b + c + d + e + f + g) * (1.0 / 7.0)

226  #define avg8(a, b, c, d, e, f, g, h) (a + b + c + d + e + f + g + h) * (1.0 / 8.0)

227  #define avg9(a, b, c, d, e, f, g, h, i) (a + b + c + d + e + f + g + h + i) * (1.0 / 9.0)

228  

229  float min_v2(vec2 v)

230  {

231    return min(v.x, v.y);

232  }

233  float min_v3(vec3 v)

234  {

235    return min(v.x, min(v.y, v.z));

236  }

237  float max_v2(vec2 v)

238  {

239    return max(v.x, v.y);

240  }

241  float max_v3(vec3 v)

242  {

243    return max(v.x, max(v.y, v.z));

244  }

245  

246  float sum(vec2 v)

247  {

248    return dot(vec2(1.0), v);

249  }

250  float sum(vec3 v)

251  {

252    return dot(vec3(1.0), v);

253  }

254  float sum(vec4 v)

255  {

256    return dot(vec4(1.0), v);

257  }

258  

259  float saturate(float a)

260  {

261    return clamp(a, 0.0, 1.0);

262  }

263  vec2 saturate(vec2 a)

264  {

265    return clamp(a, 0.0, 1.0);

266  }

267  vec3 saturate(vec3 a)

268  {

269    return clamp(a, 0.0, 1.0);

270  }

271  vec4 saturate(vec4 a)

272  {

273    return clamp(a, 0.0, 1.0);

274  }

275  

276  float distance_squared(vec2 a, vec2 b)

277  {

278    a -= b;

279    return dot(a, a);

280  }

281  float distance_squared(vec3 a, vec3 b)

282  {

283    a -= b;

284    return dot(a, a);

285  }

286  float len_squared(vec3 a)

287  {

288    return dot(a, a);

289  }

290  

291  float inverse_distance(vec3 V)

292  {

293    return max(1 / length(V), 1e-8);

294  }

295  

296  vec2 mip_ratio_interp(float mip)

297  {

298    float low_mip = floor(mip);

299    return mix(mipRatio[int(low_mip)], mipRatio[int(low_mip + 1.0)], mip - low_mip);

300  }

301  

302  /* ------- RNG ------- */

303  

304  float wang_hash_noise(uint s)

305  {

306    s = (s ^ 61u) ^ (s >> 16u);

307    s *= 9u;

308    s = s ^ (s >> 4u);

309    s *= 0x27d4eb2du;

310    s = s ^ (s >> 15u);

311  

312    return fract(float(s) / 4294967296.0);

313  }

314  

315  /* ------- Fast Math ------- */

316  

317  /* [Drobot2014a] Low Level Optimizations for GCN */

318  float fast_sqrt(float v)

319  {

320    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

321  }

322  

323  vec2 fast_sqrt(vec2 v)

324  {

325    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

326  }

327  

328  /* [Eberly2014] GPGPU Programming for Games and Science */

329  float fast_acos(float v)

330  {

331    float res = -0.156583 * abs(v) + M_PI_2;

332    res *= fast_sqrt(1.0 - abs(v));

333    return (v >= 0) ? res : M_PI - res;

334  }

335  

336  vec2 fast_acos(vec2 v)

337  {

338    vec2 res = -0.156583 * abs(v) + M_PI_2;

339    res *= fast_sqrt(1.0 - abs(v));

340    v.x = (v.x >= 0) ? res.x : M_PI - res.x;

341    v.y = (v.y >= 0) ? res.y : M_PI - res.y;

342    return v;

343  }

344  

345  float point_plane_projection_dist(vec3 lineorigin, vec3 planeorigin, vec3 planenormal)

346  {

347    return dot(planenormal, planeorigin - lineorigin);

348  }

349  

350  float line_plane_intersect_dist(vec3 lineorigin,

351                                  vec3 linedirection,

352                                  vec3 planeorigin,

353                                  vec3 planenormal)

354  {

355    return dot(planenormal, planeorigin - lineorigin) / dot(planenormal, linedirection);

356  }

357  

358  float line_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec4 plane)

359  {

360    vec3 plane_co = plane.xyz * (-plane.w / len_squared(plane.xyz));

361    vec3 h = lineorigin - plane_co;

362    return -dot(plane.xyz, h) / dot(plane.xyz, linedirection);

363  }

364  

365  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin, vec3 planenormal)

366  {

367    float dist = line_plane_intersect_dist(lineorigin, linedirection, planeorigin, planenormal);

368    return lineorigin + linedirection * dist;

369  }

370  

371  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec4 plane)

372  {

373    float dist = line_plane_intersect_dist(lineorigin, linedirection, plane);

374    return lineorigin + linedirection * dist;

375  }

376  

377  float line_aligned_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

378  {

379    /* aligned plane normal */

380    vec3 L = planeorigin - lineorigin;

381    float diskdist = length(L);

382    vec3 planenormal = -normalize(L);

383    return -diskdist / dot(planenormal, linedirection);

384  }

385  

386  vec3 line_aligned_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

387  {

388    float dist = line_aligned_plane_intersect_dist(lineorigin, linedirection, planeorigin);

389    if (dist < 0) {

390      /* if intersection is behind we fake the intersection to be

391       * really far and (hopefully) not inside the radius of interest */

392      dist = 1e16;

393    }

394    return lineorigin + linedirection * dist;

395  }

396  

397  float line_unit_sphere_intersect_dist(vec3 lineorigin, vec3 linedirection)

398  {

399    float a = dot(linedirection, linedirection);

400    float b = dot(linedirection, lineorigin);

401    float c = dot(lineorigin, lineorigin) - 1;

402  

403    float dist = 1e15;

404    float determinant = b * b - a * c;

405    if (determinant >= 0) {

406      dist = (sqrt(determinant) - b) / a;

407    }

408  

409    return dist;

410  }

411  

412  float line_unit_box_intersect_dist(vec3 lineorigin, vec3 linedirection)

413  {

414    /* https://seblagarde.wordpress.com/2012/09/29/image-based-lighting-approaches-and-parallax-corrected-cubemap/ */

415    vec3 firstplane = (vec3(1.0) - lineorigin) / linedirection;

416    vec3 secondplane = (vec3(-1.0) - lineorigin) / linedirection;

417    vec3 furthestplane = max(firstplane, secondplane);

418  

419    return min_v3(furthestplane);

420  }

421  

422  /* Return texture coordinates to sample Surface LUT */

423  vec2 lut_coords(float cosTheta, float roughness)

424  {

425    float theta = acos(cosTheta);

426    vec2 coords = vec2(roughness, theta / M_PI_2);

427  

428    /* scale and bias coordinates, for correct filtered lookup */

429    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

430  }

431  

432  vec2 lut_coords_ltc(float cosTheta, float roughness)

433  {

434    vec2 coords = vec2(roughness, sqrt(1.0 - cosTheta));

435  

436    /* scale and bias coordinates, for correct filtered lookup */

437    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

438  }

439  

440  /* -- Tangent Space conversion -- */

441  vec3 tangent_to_world(vec3 vector, vec3 N, vec3 T, vec3 B)

442  {

443    return T * vector.x + B * vector.y + N * vector.z;

444  }

445  

446  vec3 world_to_tangent(vec3 vector, vec3 N, vec3 T, vec3 B)

447  {

448    return vec3(dot(T, vector), dot(B, vector), dot(N, vector));

449  }

450  

451  void make_orthonormal_basis(vec3 N, out vec3 T, out vec3 B)

452  {

453    vec3 UpVector = abs(N.z) < 0.99999 ? vec3(0.0, 0.0, 1.0) : vec3(1.0, 0.0, 0.0);

454    T = normalize(cross(UpVector, N));

455    B = cross(N, T);

456  }

457  

458  /* ---- Opengl Depth conversion ---- */

459  

460  float linear_depth(bool is_persp, float z, float zf, float zn)

461  {

462    if (is_persp) {

463      return (zn * zf) / (z * (zn - zf) + zf);

464    }

465    else {

466      return (z * 2.0 - 1.0) * zf;

467    }

468  }

469  

470  float buffer_depth(bool is_persp, float z, float zf, float zn)

471  {

472    if (is_persp) {

473      return (zf * (zn - z)) / (z * (zn - zf));

474    }

475    else {

476      return (z / (zf * 2.0)) + 0.5;

477    }

478  }

479  

480  float get_view_z_from_depth(float depth)

481  {

482    if (ProjectionMatrix[3][3] == 0.0) {

483      float d = 2.0 * depth - 1.0;

484      return -ProjectionMatrix[3][2] / (d + ProjectionMatrix[2][2]);

485    }

486    else {

487      return viewVecs[0].z + depth * viewVecs[1].z;

488    }

489  }

490  

491  float get_depth_from_view_z(float z)

492  {

493    if (ProjectionMatrix[3][3] == 0.0) {

494      float d = (-ProjectionMatrix[3][2] / z) - ProjectionMatrix[2][2];

495      return d * 0.5 + 0.5;

496    }

497    else {

498      return (z - viewVecs[0].z) / viewVecs[1].z;

499    }

500  }

501  

502  vec2 get_uvs_from_view(vec3 view)

503  {

504    vec3 ndc = project_point(ProjectionMatrix, view);

505    return ndc.xy * 0.5 + 0.5;

506  }

507  

508  vec3 get_view_space_from_depth(vec2 uvcoords, float depth)

509  {

510    if (ProjectionMatrix[3][3] == 0.0) {

511      return vec3(viewVecs[0].xy + uvcoords * viewVecs[1].xy, 1.0) * get_view_z_from_depth(depth);

512    }

513    else {

514      return viewVecs[0].xyz + vec3(uvcoords, depth) * viewVecs[1].xyz;

515    }

516  }

517  

518  vec3 get_world_space_from_depth(vec2 uvcoords, float depth)

519  {

520    return (ViewMatrixInverse * vec4(get_view_space_from_depth(uvcoords, depth), 1.0)).xyz;

521  }

522  

523  vec3 get_specular_reflection_dominant_dir(vec3 N, vec3 V, float roughness)

524  {

525    vec3 R = -reflect(V, N);

526    float smoothness = 1.0 - roughness;

527    float fac = smoothness * (sqrt(smoothness) + roughness);

528    return normalize(mix(N, R, fac));

529  }

530  

531  float specular_occlusion(float NV, float AO, float roughness)

532  {

533    return saturate(pow(NV + AO, roughness) - 1.0 + AO);

534  }

535  

536  /* --- Refraction utils --- */

537  

538  float ior_from_f0(float f0)

539  {

540    float f = sqrt(f0);

541    return (-f - 1.0) / (f - 1.0);

542  }

543  

544  float f0_from_ior(float eta)

545  {

546    float A = (eta - 1.0) / (eta + 1.0);

547    return A * A;

548  }

549  

550  vec3 get_specular_refraction_dominant_dir(vec3 N, vec3 V, float roughness, float ior)

551  {

552    /* TODO: This a bad approximation. Better approximation should fit

553     * the refracted vector and roughness into the best prefiltered reflection

554     * lobe. */

555    /* Correct the IOR for ior < 1.0 to not see the abrupt delimitation or the TIR */

556    ior = (ior < 1.0) ? mix(ior, 1.0, roughness) : ior;

557    float eta = 1.0 / ior;

558  

559    float NV = dot(N, -V);

560  

561    /* Custom Refraction. */

562    float k = 1.0 - eta * eta * (1.0 - NV * NV);

563    k = max(0.0, k); /* Only this changes. */

564    vec3 R = eta * -V - (eta * NV + sqrt(k)) * N;

565  

566    return R;

567  }

568  

569  float get_btdf_lut(sampler2DArray btdf_lut_tex, float NV, float roughness, float ior)

570  {

571    const vec3 lut_scale_bias_texel_size = vec3((LUT_SIZE - 1.0), 0.5, 1.5) / LUT_SIZE;

572  

573    vec3 coords;

574    /* Try to compensate for the low resolution and interpolation error. */

575    coords.x = (ior > 1.0) ? (0.9 + lut_scale_bias_texel_size.z) +

576                                 (0.1 - lut_scale_bias_texel_size.z) * f0_from_ior(ior) :

577                             (0.9 + lut_scale_bias_texel_size.z) * ior * ior;

578    coords.y = 1.0 - saturate(NV);

579    coords.xy *= lut_scale_bias_texel_size.x;

580    coords.xy += lut_scale_bias_texel_size.y;

581  

582    const float lut_lvl_ofs = 4.0;    /* First texture lvl of roughness. */

583    const float lut_lvl_scale = 16.0; /* How many lvl of roughness in the lut. */

584  

585    float mip = roughness * lut_lvl_scale;

586    float mip_floor = floor(mip);

587  

588    coords.z = lut_lvl_ofs + mip_floor + 1.0;

589    float btdf_high = textureLod(btdf_lut_tex, coords, 0.0).r;

590  

591    coords.z -= 1.0;

592    float btdf_low = textureLod(btdf_lut_tex, coords, 0.0).r;

593  

594    float btdf = (ior == 1.0) ? 1.0 : mix(btdf_low, btdf_high, mip - coords.z);

595  

596    return btdf;

597  }

598  

599  /* ---- Encode / Decode Normal buffer data ---- */

600  /* From http://aras-p.info/texts/CompactNormalStorage.html

601   * Using Method #4: Spheremap Transform */

602  vec2 normal_encode(vec3 n, vec3 view)

603  {

604    float p = sqrt(n.z * 8.0 + 8.0);

605    return n.xy / p + 0.5;

606  }

607  

608  vec3 normal_decode(vec2 enc, vec3 view)

609  {

610    vec2 fenc = enc * 4.0 - 2.0;

611    float f = dot(fenc, fenc);

612    float g = sqrt(1.0 - f / 4.0);

613    vec3 n;

614    n.xy = fenc * g;

615    n.z = 1 - f / 2;

616    return n;

617  }

618  

619  /* ---- RGBM (shared multiplier) encoding ---- */

620  /* From http://iwasbeingirony.blogspot.fr/2010/06/difference-between-rgbm-and-rgbd.html */

621  

622  /* Higher RGBM_MAX_RANGE gives imprecision issues in low intensity. */

623  #define RGBM_MAX_RANGE 512.0

624  

625  vec4 rgbm_encode(vec3 rgb)

626  {

627    float maxRGB = max_v3(rgb);

628    float M = maxRGB / RGBM_MAX_RANGE;

629    M = ceil(M * 255.0) / 255.0;

630    return vec4(rgb / (M * RGBM_MAX_RANGE), M);

631  }

632  

633  vec3 rgbm_decode(vec4 data)

634  {

635    return data.rgb * (data.a * RGBM_MAX_RANGE);

636  }

637  

638  /* ---- RGBE (shared exponent) encoding ---- */

639  vec4 rgbe_encode(vec3 rgb)

640  {

641    float maxRGB = max_v3(rgb);

642    float fexp = ceil(log2(maxRGB));

643    return vec4(rgb / exp2(fexp), (fexp + 128.0) / 255.0);

644  }

645  

646  vec3 rgbe_decode(vec4 data)

647  {

648    float fexp = data.a * 255.0 - 128.0;

649    return data.rgb * exp2(fexp);

650  }

651  

652  #if 1

653  #  define irradiance_encode rgbe_encode

654  #  define irradiance_decode rgbe_decode

655  #else /* No ecoding (when using floating point format) */

656  #  define irradiance_encode(X) (X).rgbb

657  #  define irradiance_decode(X) (X).rgb

658  #endif

659  

660  /* Irradiance Visibility Encoding */

661  #if 1

662  vec4 visibility_encode(vec2 accum, float range)

663  {

664    accum /= range;

665  

666    vec4 data;

667    data.x = fract(accum.x);

668    data.y = floor(accum.x) / 255.0;

669    data.z = fract(accum.y);

670    data.w = floor(accum.y) / 255.0;

671  

672    return data;

673  }

674  

675  vec2 visibility_decode(vec4 data, float range)

676  {

677    return (data.xz + data.yw * 255.0) * range;

678  }

679  #else /* No ecoding (when using floating point format) */

680  vec4 visibility_encode(vec2 accum, float range)

681  {

682    return accum.xyxy;

683  }

684  

685  vec2 visibility_decode(vec4 data, float range)

686  {

687    return data.xy;

688  }

689  #endif

690  

691  /* Fresnel monochromatic, perfect mirror */

692  float F_eta(float eta, float cos_theta)

693  {

694    /* compute fresnel reflectance without explicitly computing

695     * the refracted direction */

696    float c = abs(cos_theta);

697    float g = eta * eta - 1.0 + c * c;

698    float result;

699  

700    if (g > 0.0) {

701      g = sqrt(g);

702      vec2 g_c = vec2(g) + vec2(c, -c);

703      float A = g_c.y / g_c.x;

704      A *= A;

705      g_c *= c;

706      float B = (g_c.y - 1.0) / (g_c.x + 1.0);

707      B *= B;

708      result = 0.5 * A * (1.0 + B);

709    }

710    else {

711      result = 1.0; /* TIR (no refracted component) */

712    }

713  

714    return result;

715  }

716  

717  /* Fresnel color blend base on fresnel factor */

718  vec3 F_color_blend(float eta, float fresnel, vec3 f0_color)

719  {

720    float f0 = F_eta(eta, 1.0);

721    float fac = saturate((fresnel - f0) / max(1e-8, 1.0 - f0));

722    return mix(f0_color, vec3(1.0), fac);

723  }

724  

725  /* Fresnel */

726  vec3 F_schlick(vec3 f0, float cos_theta)

727  {

728    float fac = 1.0 - cos_theta;

729    float fac2 = fac * fac;

730    fac = fac2 * fac2 * fac;

731  

732    /* Unreal specular matching : if specular color is below 2% intensity,

733     * (using green channel for intensity) treat as shadowning */

734    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * fac + (1.0 - fac) * f0;

735  }

736  

737  /* Fresnel approximation for LTC area lights (not MRP) */

738  vec3 F_area(vec3 f0, vec2 lut)

739  {

740    /* Unreal specular matching : if specular color is below 2% intensity,

741     * treat as shadowning */

742    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

743  }

744  

745  /* Fresnel approximation for IBL */

746  vec3 F_ibl(vec3 f0, vec2 lut)

747  {

748    /* Unreal specular matching : if specular color is below 2% intensity,

749     * treat as shadowning */

750    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

751  }

752  

753  /* GGX */

754  float D_ggx_opti(float NH, float a2)

755  {

756    float tmp = (NH * a2 - NH) * NH + 1.0;

757    return M_PI * tmp * tmp; /* Doing RCP and mul a2 at the end */

758  }

759  

760  float G1_Smith_GGX(float NX, float a2)

761  {

762    /* Using Brian Karis approach and refactoring by NX/NX

763     * this way the (2*NL)*(2*NV) in G = G1(V) * G1(L) gets canceled by the brdf denominator 4*NL*NV

764     * Rcp is done on the whole G later

765     * Note that this is not convenient for the transmission formula */

766    return NX + sqrt(NX * (NX - NX * a2) + a2);

767    /* return 2 / (1 + sqrt(1 + a2 * (1 - NX*NX) / (NX*NX) ) ); /* Reference function */

768  }

769  

770  float bsdf_ggx(vec3 N, vec3 L, vec3 V, float roughness)

771  {

772    float a = roughness;

773    float a2 = a * a;

774  

775    vec3 H = normalize(L + V);

776    float NH = max(dot(N, H), 1e-8);

777    float NL = max(dot(N, L), 1e-8);

778    float NV = max(dot(N, V), 1e-8);

779  

780    float G = G1_Smith_GGX(NV, a2) * G1_Smith_GGX(NL, a2); /* Doing RCP at the end */

781    float D = D_ggx_opti(NH, a2);

782  

783    /* Denominator is canceled by G1_Smith */

784    /* bsdf = D * G / (4.0 * NL * NV); /* Reference function */

785    return NL * a2 / (D * G); /* NL to Fit cycles Equation : line. 345 in bsdf_microfacet.h */

786  }

787  

788  void accumulate_light(vec3 light, float fac, inout vec4 accum)

789  {

790    accum += vec4(light, 1.0) * min(fac, (1.0 - accum.a));

791  }

792  

793  /* ----------- Cone Aperture Approximation --------- */

794  

795  /* Return a fitted cone angle given the input roughness */

796  float cone_cosine(float r)

797  {

798    /* Using phong gloss

799     * roughness = sqrt(2/(gloss+2)) */

800    float gloss = -2 + 2 / (r * r);

801    /* Drobot 2014 in GPUPro5 */

802    // return cos(2.0 * sqrt(2.0 / (gloss + 2)));

803    /* Uludag 2014 in GPUPro5 */

804    // return pow(0.244, 1 / (gloss + 1));

805    /* Jimenez 2016 in Practical Realtime Strategies for Accurate Indirect Occlusion*/

806    return exp2(-3.32193 * r * r);

807  }

808  

809  /* --------- Closure ---------- */

810  #ifdef VOLUMETRICS

811  

812  struct Closure {

813    vec3 absorption;

814    vec3 scatter;

815    vec3 emission;

816    float anisotropy;

817  };

818  

819  #  define CLOSURE_DEFAULT Closure(vec3(0.0), vec3(0.0), vec3(0.0), 0.0)

820  

821  Closure closure_mix(Closure cl1, Closure cl2, float fac)

822  {

823    Closure cl;

824    cl.absorption = mix(cl1.absorption, cl2.absorption, fac);

825    cl.scatter = mix(cl1.scatter, cl2.scatter, fac);

826    cl.emission = mix(cl1.emission, cl2.emission, fac);

827    cl.anisotropy = mix(cl1.anisotropy, cl2.anisotropy, fac);

828    return cl;

829  }

830  

831  Closure closure_add(Closure cl1, Closure cl2)

832  {

833    Closure cl;

834    cl.absorption = cl1.absorption + cl2.absorption;

835    cl.scatter = cl1.scatter + cl2.scatter;

836    cl.emission = cl1.emission + cl2.emission;

837    cl.anisotropy = (cl1.anisotropy + cl2.anisotropy) / 2.0; /* Average phase (no multi lobe) */

838    return cl;

839  }

840  

841  Closure closure_emission(vec3 rgb)

842  {

843    Closure cl = CLOSURE_DEFAULT;

844    cl.emission = rgb;

845    return cl;

846  }

847  

848  #else /* VOLUMETRICS */

849  

850  struct Closure {

851    vec3 radiance;

852    float opacity;

853  #  ifdef USE_SSS

854    vec4 sss_data;

855  #    ifdef USE_SSS_ALBEDO

856    vec3 sss_albedo;

857  #    endif

858  #  endif

859    vec4 ssr_data;

860    vec2 ssr_normal;

861    int ssr_id;

862  };

863  

864  /* This is hacking ssr_id to tag transparent bsdf */

865  #  define TRANSPARENT_CLOSURE_FLAG -2

866  #  define REFRACT_CLOSURE_FLAG -3

867  #  define NO_SSR -999

868  

869  #  ifdef USE_SSS

870  #    ifdef USE_SSS_ALBEDO

871  #      define CLOSURE_DEFAULT \

872          Closure(vec3(0.0), 1.0, vec4(0.0), vec3(0.0), vec4(0.0), vec2(0.0), -1)

873  #    else

874  #      define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec4(0.0), vec2(0.0), -1)

875  #    endif

876  #  else

877  #    define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec2(0.0), -1)

878  #  endif

879  

880  uniform int outputSsrId;

881  

882  Closure closure_mix(Closure cl1, Closure cl2, float fac)

883  {

884    Closure cl;

885  

886    if (cl1.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

887      cl1.ssr_normal = cl2.ssr_normal;

888      cl1.ssr_data = cl2.ssr_data;

889      cl1.ssr_id = cl2.ssr_id;

890  #  ifdef USE_SSS

891      cl1.sss_data = cl2.sss_data;

892  #    ifdef USE_SSS_ALBEDO

893      cl1.sss_albedo = cl2.sss_albedo;

894  #    endif

895  #  endif

896    }

897    if (cl2.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

898      cl2.ssr_normal = cl1.ssr_normal;

899      cl2.ssr_data = cl1.ssr_data;

900      cl2.ssr_id = cl1.ssr_id;

901  #  ifdef USE_SSS

902      cl2.sss_data = cl1.sss_data;

903  #    ifdef USE_SSS_ALBEDO

904      cl2.sss_albedo = cl1.sss_albedo;

905  #    endif

906  #  endif

907    }

908  

909    /* When mixing SSR don't blend roughness.

910     *

911     * It makes no sense to mix them really, so we take either one of them and

912     * tone down its specularity (ssr_data.xyz) while keeping its roughness (ssr_data.w).

913     */

914    if (cl1.ssr_id == outputSsrId) {

915      cl.ssr_data = mix(cl1.ssr_data.xyzw, vec4(vec3(0.0), cl1.ssr_data.w), fac);

916      cl.ssr_normal = cl1.ssr_normal;

917      cl.ssr_id = cl1.ssr_id;

918    }

919    else {

920      cl.ssr_data = mix(vec4(vec3(0.0), cl2.ssr_data.w), cl2.ssr_data.xyzw, fac);

921      cl.ssr_normal = cl2.ssr_normal;

922      cl.ssr_id = cl2.ssr_id;

923    }

924  

925    cl.opacity = mix(cl1.opacity, cl2.opacity, fac);

926    cl.radiance = mix(cl1.radiance * cl1.opacity, cl2.radiance * cl2.opacity, fac);

927    cl.radiance /= max(1e-8, cl.opacity);

928  

929  #  ifdef USE_SSS

930    cl.sss_data.rgb = mix(cl1.sss_data.rgb, cl2.sss_data.rgb, fac);

931    cl.sss_data.a = (cl1.sss_data.a > 0.0) ? cl1.sss_data.a : cl2.sss_data.a;

932  #    ifdef USE_SSS_ALBEDO

933    /* TODO Find a solution to this. Dither? */

934    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

935  #    endif

936  #  endif

937  

938    return cl;

939  }

940  

941  Closure closure_add(Closure cl1, Closure cl2)

942  {

943    Closure cl = (cl1.ssr_id == outputSsrId) ? cl1 : cl2;

944    cl.radiance = cl1.radiance + cl2.radiance;

945  #  ifdef USE_SSS

946    cl.sss_data = (cl1.sss_data.a > 0.0) ? cl1.sss_data : cl2.sss_data;

947    /* Add radiance that was supposed to be filtered but was rejected. */

948    cl.radiance += (cl1.sss_data.a > 0.0) ? cl2.sss_data.rgb : cl1.sss_data.rgb;

949  #    ifdef USE_SSS_ALBEDO

950    /* TODO Find a solution to this. Dither? */

951    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

952  #    endif

953  #  endif

954    cl.opacity = saturate(cl1.opacity + cl2.opacity);

955    return cl;

956  }

957  

958  Closure closure_emission(vec3 rgb)

959  {

960    Closure cl = CLOSURE_DEFAULT;

961    cl.radiance = rgb;

962    return cl;

963  }

964  

965  #  if defined(MESH_SHADER) && !defined(USE_ALPHA_HASH) && !defined(USE_ALPHA_CLIP) && \

966        !defined(SHADOW_SHADER) && !defined(USE_MULTIPLY)

967  layout(location = 0) out vec4 fragColor;

968  layout(location = 1) out vec4 ssrNormals;

969  layout(location = 2) out vec4 ssrData;

970  #    ifdef USE_SSS

971  layout(location = 3) out vec4 sssData;

972  #      ifdef USE_SSS_ALBEDO

973  layout(location = 4) out vec4 sssAlbedo;

974  #      endif /* USE_SSS_ALBEDO */

975  #    endif   /* USE_SSS */

976  

977  Closure nodetree_exec(void); /* Prototype */

978  

979  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

980  /* Prototype because this file is included before volumetric_lib.glsl */

981  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth);

982  #    endif

983  

984  #    define NODETREE_EXEC

985  void main()

986  {

987    Closure cl = nodetree_exec();

988  #    ifndef USE_ALPHA_BLEND

989    /* Prevent alpha hash material writing into alpha channel. */

990    cl.opacity = 1.0;

991  #    endif

992  

993  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

994    /* XXX fragile, better use real viewport resolution */

995    vec2 uvs = gl_FragCoord.xy / vec2(2 * textureSize(maxzBuffer, 0).xy);

996    fragColor.rgb = volumetric_resolve(vec4(cl.radiance, cl.opacity), uvs, gl_FragCoord.z).rgb;

997    fragColor.a = cl.opacity;

998  #    else

999    fragColor = vec4(cl.radiance, cl.opacity);

1000  #    endif

1001  

1002    ssrNormals = cl.ssr_normal.xyyy;

1003    ssrData = cl.ssr_data;

1004  #    ifdef USE_SSS

1005    sssData = cl.sss_data;

1006  #      ifdef USE_SSS_ALBEDO

1007    sssAlbedo = cl.sss_albedo.rgbb;

1008  #      endif

1009  #    endif

1010  

1011    /* For Probe capture */

1012  #    ifdef USE_SSS

1013  #      ifdef USE_SSS_ALBEDO

1014    fragColor.rgb += cl.sss_data.rgb * cl.sss_albedo.rgb * float(!sssToggle);

1015  #      else

1016    fragColor.rgb += cl.sss_data.rgb * float(!sssToggle);

1017  #      endif

1018  #    endif

1019  }

1020  

1021  #  endif /* MESH_SHADER && !SHADOW_SHADER */

1022  

1023  #endif /* VOLUMETRICS */

1024  

1025  Closure nodetree_exec(void); /* Prototype */

1026  

1027  /* TODO find a better place */

1028  #ifdef USE_MULTIPLY

1029  

1030  out vec4 fragColor;

1031  

1032  #  define NODETREE_EXEC

1033  void main()

1034  {

1035    Closure cl = nodetree_exec();

1036    fragColor = vec4(mix(vec3(1.0), cl.radiance, cl.opacity), 1.0);

1037  }

1038  #endif

1039  

1040  uniform sampler1D texHammersley;

1041  uniform sampler2D texJitter;

1042  uniform float sampleCount;

1043  uniform float invSampleCount;

1044  

1045  vec2 jitternoise = vec2(0.0);

1046  

1047  #ifndef UTIL_TEX

1048  #  define UTIL_TEX

1049  uniform sampler2DArray utilTex;

1050  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1051  #endif /* UTIL_TEX */

1052  

1053  void setup_noise(void)

1054  {

1055    jitternoise = texelfetch_noise_tex(gl_FragCoord.xy).rg; /* Global variable */

1056  }

1057  

1058  #ifdef HAMMERSLEY_SIZE

1059  vec3 hammersley_3d(float i, float invsamplenbr)

1060  {

1061    vec3 Xi; /* Theta, cos(Phi), sin(Phi) */

1062  

1063    Xi.x = i * invsamplenbr; /* i/samples */

1064    Xi.x = fract(Xi.x + jitternoise.x);

1065  

1066    int u = int(mod(i + jitternoise.y * HAMMERSLEY_SIZE, HAMMERSLEY_SIZE));

1067  

1068    Xi.yz = texelFetch(texHammersley, u, 0).rg;

1069  

1070    return Xi;

1071  }

1072  

1073  vec3 hammersley_3d(float i)

1074  {

1075    return hammersley_3d(i, invSampleCount);

1076  }

1077  #endif

1078  

1079  /* -------------- BSDFS -------------- */

1080  

1081  float pdf_ggx_reflect(float NH, float a2)

1082  {

1083    return NH * a2 / D_ggx_opti(NH, a2);

1084  }

1085  

1086  float pdf_hemisphere()

1087  {

1088    return 0.5 * M_1_PI;

1089  }

1090  

1091  vec3 sample_ggx(vec3 rand, float a2)

1092  {

1093    /* Theta is the aperture angle of the cone */

1094    float z = sqrt((1.0 - rand.x) / (1.0 + a2 * rand.x - rand.x)); /* cos theta */

1095    float r = sqrt(max(0.0, 1.0f - z * z));                        /* sin theta */

1096    float x = r * rand.y;

1097    float y = r * rand.z;

1098  

1099    /* Microfacet Normal */

1100    return vec3(x, y, z);

1101  }

1102  

1103  vec3 sample_ggx(vec3 rand, float a2, vec3 N, vec3 T, vec3 B, out float NH)

1104  {

1105    vec3 Ht = sample_ggx(rand, a2);

1106    NH = Ht.z;

1107    return tangent_to_world(Ht, N, T, B);

1108  }

1109  

1110  #ifdef HAMMERSLEY_SIZE

1111  vec3 sample_ggx(float nsample, float a2, vec3 N, vec3 T, vec3 B)

1112  {

1113    vec3 Xi = hammersley_3d(nsample);

1114    vec3 Ht = sample_ggx(Xi, a2);

1115    return tangent_to_world(Ht, N, T, B);

1116  }

1117  

1118  vec3 sample_hemisphere(float nsample, vec3 N, vec3 T, vec3 B)

1119  {

1120    vec3 Xi = hammersley_3d(nsample);

1121  

1122    float z = Xi.x;                         /* cos theta */

1123    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1124    float x = r * Xi.y;

1125    float y = r * Xi.z;

1126  

1127    vec3 Ht = vec3(x, y, z);

1128  

1129    return tangent_to_world(Ht, N, T, B);

1130  }

1131  

1132  vec3 sample_cone(float nsample, float angle, vec3 N, vec3 T, vec3 B)

1133  {

1134    vec3 Xi = hammersley_3d(nsample);

1135  

1136    float z = cos(angle * Xi.x);            /* cos theta */

1137    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1138    float x = r * Xi.y;

1139    float y = r * Xi.z;

1140  

1141    vec3 Ht = vec3(x, y, z);

1142  

1143    return tangent_to_world(Ht, N, T, B);

1144  }

1145  #endif

1146  

1147  uniform samplerCube probeHdr;

1148  uniform int probeSize;

1149  uniform float lodFactor;

1150  uniform float lodMax;

1151  uniform float intensityFac;

1152  

1153  in vec3 worldPosition;

1154  

1155  out vec4 FragColor;

1156  

1157  #define M_4PI 12.5663706143591729

1158  

1159  const mat3 CUBE_ROTATIONS[6] = mat3[](

1160      mat3(vec3(0.0, 0.0, -1.0), vec3(0.0, -1.0, 0.0), vec3(-1.0, 0.0, 0.0)),

1161      mat3(vec3(0.0, 0.0, 1.0), vec3(0.0, -1.0, 0.0), vec3(1.0, 0.0, 0.0)),

1162      mat3(vec3(1.0, 0.0, 0.0), vec3(0.0, 0.0, 1.0), vec3(0.0, -1.0, 0.0)),

1163      mat3(vec3(1.0, 0.0, 0.0), vec3(0.0, 0.0, -1.0), vec3(0.0, 1.0, 0.0)),

1164      mat3(vec3(1.0, 0.0, 0.0), vec3(0.0, -1.0, 0.0), vec3(0.0, 0.0, -1.0)),

1165      mat3(vec3(-1.0, 0.0, 0.0), vec3(0.0, -1.0, 0.0), vec3(0.0, 0.0, 1.0)));

1166  

1167  vec3 get_cubemap_vector(vec2 co, int face)

1168  {

1169    return normalize(CUBE_ROTATIONS[face] * vec3(co * 2.0 - 1.0, 1.0));

1170  }

1171  

1172  float area_element(float x, float y)

1173  {

1174    return atan(x * y, sqrt(x * x + y * y + 1));

1175  }

1176  

1177  float texel_solid_angle(vec2 co, float halfpix)

1178  {

1179    vec2 v1 = (co - vec2(halfpix)) * 2.0 - 1.0;

1180    vec2 v2 = (co + vec2(halfpix)) * 2.0 - 1.0;

1181  

1182    return area_element(v1.x, v1.y) - area_element(v1.x, v2.y) - area_element(v2.x, v1.y) +

1183           area_element(v2.x, v2.y);

1184  }

1185  

1186  vec3 octahedral_to_cubemap_proj(vec2 co)

1187  {

1188    co = co * 2.0 - 1.0;

1189  

1190    vec2 abs_co = abs(co);

1191    vec3 v = vec3(co, 1.0 - (abs_co.x + abs_co.y));

1192  

1193    if (abs_co.x + abs_co.y > 1.0) {

1194      v.xy = (abs(co.yx) - 1.0) * -sign(co.xy);

1195    }

1196  

1197    return v;

1198  }

1199  

1200  void main()

1201  {

1202  #if defined(IRRADIANCE_SH_L2)

1203    float pixstep = 1.0 / probeSize;

1204    float halfpix = pixstep / 2.0;

1205  

1206    /* Downside: leaks negative values, very bandwidth consuming */

1207    int comp = int(gl_FragCoord.x) % 3 + (int(gl_FragCoord.y) % 3) * 3;

1208  

1209    float weight_accum = 0.0;

1210    vec3 sh = vec3(0.0);

1211  

1212    for (int face = 0; face < 6; ++face) {

1213      for (float x = halfpix; x < 1.0; x += pixstep) {

1214        for (float y = halfpix; y < 1.0; y += pixstep) {

1215          float weight, coef;

1216          vec2 facecoord = vec2(x, y);

1217          vec3 cubevec = get_cubemap_vector(facecoord, face);

1218  

1219          if (comp == 0) {

1220            coef = 0.282095;

1221          }

1222          else if (comp == 1) {

1223            coef = -0.488603 * cubevec.z * 2.0 / 3.0;

1224          }

1225          else if (comp == 2) {

1226            coef = 0.488603 * cubevec.y * 2.0 / 3.0;

1227          }

1228          else if (comp == 3) {

1229            coef = -0.488603 * cubevec.x * 2.0 / 3.0;

1230          }

1231          else if (comp == 4) {

1232            coef = 1.092548 * cubevec.x * cubevec.z * 1.0 / 4.0;

1233          }

1234          else if (comp == 5) {

1235            coef = -1.092548 * cubevec.z * cubevec.y * 1.0 / 4.0;

1236          }

1237          else if (comp == 6) {

1238            coef = 0.315392 * (3.0 * cubevec.y * cubevec.y - 1.0) * 1.0 / 4.0;

1239          }

1240          else if (comp == 7) {

1241            coef = 1.092548 * cubevec.x * cubevec.y * 1.0 / 4.0;

1242          }

1243          else { /* (comp == 8) */

1244            coef = 0.546274 * (cubevec.x * cubevec.x - cubevec.z * cubevec.z) * 1.0 / 4.0;

1245          }

1246  

1247          weight = texel_solid_angle(facecoord, halfpix);

1248  

1249          vec4 sample = textureLod(probeHdr, cubevec, lodMax);

1250          sh += sample.rgb * coef * weight;

1251          weight_accum += weight;

1252        }

1253      }

1254    }

1255    sh *= M_4PI / weight_accum;

1256  

1257    FragColor = vec4(sh, 1.0);

1258  #else

1259  #  if defined(IRRADIANCE_CUBEMAP)

1260    /* Downside: Need lots of memory for storage, distortion due to octahedral mapping */

1261    const vec2 map_size = vec2(16.0);

1262    const vec2 texelSize = 1.0 / map_size;

1263    vec2 uvs = mod(gl_FragCoord.xy, map_size) * texelSize;

1264    const float paddingSize = 1.0;

1265  

1266    /* Add a N pixel border to ensure filtering is correct

1267     * for N mipmap levels. */

1268    uvs = (uvs - texelSize * paddingSize) / (1.0 - 2.0 * texelSize * paddingSize);

1269  

1270    /* edge mirroring : only mirror if directly adjacent

1271     * (not diagonally adjacent) */

1272    vec2 m = abs(uvs - 0.5) + 0.5;

1273    vec2 f = floor(m);

1274    if (f.x - f.y != 0.0) {

1275      uvs = 1.0 - uvs;

1276    }

1277  

1278    /* clamp to [0-1] */

1279    uvs = fract(uvs);

1280  

1281    /* get cubemap vector */

1282    vec3 cubevec = octahedral_to_cubemap_proj(uvs);

1283  

1284  #  elif defined(IRRADIANCE_HL2)

1285    /* Downside: very very low resolution (6 texels), bleed lighting because of interpolation */

1286    int x = int(gl_FragCoord.x) % 3;

1287    int y = int(gl_FragCoord.y) % 2;

1288  

1289    vec3 cubevec = vec3(1.0, 0.0, 0.0);

1290  

1291    if (x == 1) {

1292      cubevec = cubevec.yxy;

1293    }

1294    else if (x == 2) {

1295      cubevec = cubevec.yyx;

1296    }

1297  

1298    if (y == 1) {

1299      cubevec = -cubevec;

1300    }

1301  #  endif

1302  

1303    vec3 N, T, B, V;

1304  

1305    N = normalize(cubevec);

1306  

1307    make_orthonormal_basis(N, T, B); /* Generate tangent space */

1308  

1309    /* Integrating Envmap */

1310    float weight = 0.0;

1311    vec3 out_radiance = vec3(0.0);

1312    for (float i = 0; i < sampleCount; i++) {

1313      vec3 L = sample_hemisphere(i, N, T, B); /* Microfacet normal */

1314      float NL = dot(N, L);

1315  

1316      if (NL > 0.0) {

1317        /* Coarse Approximation of the mapping distortion

1318         * Unit Sphere -> Cubemap Face */

1319        const float dist = 4.0 * M_PI / 6.0;

1320        float pdf = pdf_hemisphere();

1321        /* http://http.developer.nvidia.com/GPUGems3/gpugems3_ch20.html : Equation 13 */

1322        float lod = clamp(lodFactor - 0.5 * log2(pdf * dist), 0.0, lodMax);

1323  

1324        out_radiance += textureLod(probeHdr, L, lod).rgb * NL;

1325        weight += NL;

1326      }

1327    }

1328  

1329    FragColor = irradiance_encode(intensityFac * out_radiance / weight);

1330  #endif

1331  }

0(965) : error C0105: Syntax error in #if
0(965) : error C0105: Syntax error in #if
0(966) : error C0000: syntax error, unexpected '!' at token "!"
0(1200) : error C1013: function "main" is already defined at 0(985)

GPUShader: compile error:
===== shader string 1 ====
 1  #version 330
===== shader string 2 ====
 2  #define GPU_FRAGMENT_SHADER
===== shader string 3 ====
 3  #extension GL_ARB_texture_gather: enable
 4  #define GPU_ARB_texture_gather
 5  #extension GL_ARB_texture_query_lod: enable
===== shader string 4 ====
 6  #define GPU_NVIDIA
 7  #define OS_WIN
===== shader string 5 ====
 8  #define HAMMERSLEY_SIZE 1024
 9  #define IRRADIANCE_HL2
10  #define NOISE_SIZE 64
===== shader string 6 ====
11  /* keep in sync with DRWManager.view_data */

12  layout(std140) uniform viewBlock

13  {

14    /* Same order as DRWViewportMatrixType */

15    mat4 ViewProjectionMatrix;

16    mat4 ViewProjectionMatrixInverse;

17    mat4 ViewMatrix;

18    mat4 ViewMatrixInverse;

19    mat4 ProjectionMatrix;

20    mat4 ProjectionMatrixInverse;

21  

22    vec4 CameraTexCoFactors;

23  

24    vec4 clipPlanes[2];

25  };

26  

27  layout(std140) uniform common_block

28  {

29    mat4 pastViewProjectionMatrix;

30    vec4 viewVecs[2];

31    vec2 mipRatio[10]; /* To correct mip level texel mis-alignement */

32    /* Ambient Occlusion */

33    vec4 aoParameters[2];

34    /* Volumetric */

35    ivec4 volTexSize;

36    vec4 volDepthParameters; /* Parameters to the volume Z equation */

37    vec4 volInvTexSize;

38    vec4 volJitter;

39    vec4 volCoordScale; /* To convert volume uvs to screen uvs */

40    float volHistoryAlpha;

41    float volLightClamp;

42    float volShadowSteps;

43    bool volUseLights;

44    /* Screen Space Reflections */

45    vec4 ssrParameters;

46    float ssrBorderFac;

47    float ssrMaxRoughness;

48    float ssrFireflyFac;

49    float ssrBrdfBias;

50    bool ssrToggle;

51    /* SubSurface Scattering */

52    float sssJitterThreshold;

53    bool sssToggle;

54    /* Specular */

55    bool specToggle;

56    /* Lights */

57    int laNumLight;

58    /* Probes */

59    int prbNumPlanar;

60    int prbNumRenderCube;

61    int prbNumRenderGrid;

62    int prbIrradianceVisSize;

63    float prbIrradianceSmooth;

64    float prbLodCubeMax;

65    float prbLodPlanarMax;

66    /* Misc*/

67    int hizMipOffset;

68    int rayType;

69    float rayDepth;

70  };

71  

72  /* rayType (keep in sync with ray_type) */

73  #define EEVEE_RAY_CAMERA 0

74  #define EEVEE_RAY_SHADOW 1

75  #define EEVEE_RAY_DIFFUSE 2

76  #define EEVEE_RAY_GLOSSY 3

77  

78  /* aoParameters */

79  #define aoDistance aoParameters[0].x

80  #define aoSamples aoParameters[0].y /* UNUSED */

81  #define aoFactor aoParameters[0].z

82  #define aoInvSamples aoParameters[0].w /* UNUSED */

83  

84  #define aoOffset aoParameters[1].x /* UNUSED */

85  #define aoBounceFac aoParameters[1].y

86  #define aoQuality aoParameters[1].z

87  #define aoSettings aoParameters[1].w

88  

89  /* ssrParameters */

90  #define ssrQuality ssrParameters.x

91  #define ssrThickness ssrParameters.y

92  #define ssrPixelSize ssrParameters.zw

93  

94  #define M_PI 3.14159265358979323846     /* pi */

95  #define M_2PI 6.28318530717958647692    /* 2*pi */

96  #define M_PI_2 1.57079632679489661923   /* pi/2 */

97  #define M_1_PI 0.318309886183790671538  /* 1/pi */

98  #define M_1_2PI 0.159154943091895335768 /* 1/(2*pi) */

99  #define M_1_PI2 0.101321183642337771443 /* 1/(pi^2) */

100  

101  #define LUT_SIZE 64

102  

103  /* Buffers */

104  uniform sampler2D colorBuffer;

105  uniform sampler2D depthBuffer;

106  uniform sampler2D maxzBuffer;

107  uniform sampler2D minzBuffer;

108  uniform sampler2DArray planarDepth;

109  

110  #define cameraForward normalize(ViewMatrixInverse[2].xyz)

111  #define cameraPos ViewMatrixInverse[3].xyz

112  #define cameraVec \

113    ((ProjectionMatrix[3][3] == 0.0) ? normalize(cameraPos - worldPosition) : cameraForward)

114  #define viewCameraVec \

115    ((ProjectionMatrix[3][3] == 0.0) ? normalize(-viewPosition) : vec3(0.0, 0.0, 1.0))

116  

117  /* ------- Structures -------- */

118  

119  /* ------ Lights ----- */

120  struct LightData {

121    vec4 position_influence;     /* w : InfluenceRadius (inversed and squared) */

122    vec4 color_spec;             /* w : Spec Intensity */

123    vec4 spotdata_radius_shadow; /* x : spot size, y : spot blend, z : radius, w: shadow id */

124    vec4 rightvec_sizex;         /* xyz: Normalized up vector, w: area size X or spot scale X */

125    vec4 upvec_sizey;            /* xyz: Normalized right vector, w: area size Y or spot scale Y */

126    vec4 forwardvec_type;        /* xyz: Normalized forward vector, w: Light Type */

127  };

128  

129  /* convenience aliases */

130  #define l_color color_spec.rgb

131  #define l_spec color_spec.a

132  #define l_position position_influence.xyz

133  #define l_influence position_influence.w

134  #define l_sizex rightvec_sizex.w

135  #define l_sizey upvec_sizey.w

136  #define l_right rightvec_sizex.xyz

137  #define l_up upvec_sizey.xyz

138  #define l_forward forwardvec_type.xyz

139  #define l_type forwardvec_type.w

140  #define l_spot_size spotdata_radius_shadow.x

141  #define l_spot_blend spotdata_radius_shadow.y

142  #define l_radius spotdata_radius_shadow.z

143  #define l_shadowid spotdata_radius_shadow.w

144  

145  /* ------ Shadows ----- */

146  #ifndef MAX_CASCADE_NUM

147  #  define MAX_CASCADE_NUM 4

148  #endif

149  

150  struct ShadowData {

151    vec4 near_far_bias_exp;

152    vec4 shadow_data_start_end;

153    vec4 contact_shadow_data;

154  };

155  

156  struct ShadowCubeData {

157    vec4 position;

158  };

159  

160  struct ShadowCascadeData {

161    mat4 shadowmat[MAX_CASCADE_NUM];

162    vec4 split_start_distances;

163    vec4 split_end_distances;

164  };

165  

166  /* convenience aliases */

167  #define sh_near near_far_bias_exp.x

168  #define sh_far near_far_bias_exp.y

169  #define sh_bias near_far_bias_exp.z

170  #define sh_exp near_far_bias_exp.w

171  #define sh_bleed near_far_bias_exp.w

172  #define sh_tex_start shadow_data_start_end.x

173  #define sh_data_start shadow_data_start_end.y

174  #define sh_multi_nbr shadow_data_start_end.z

175  #define sh_blur shadow_data_start_end.w

176  #define sh_contact_dist contact_shadow_data.x

177  #define sh_contact_offset contact_shadow_data.y

178  #define sh_contact_spread contact_shadow_data.z

179  #define sh_contact_thickness contact_shadow_data.w

180  

181  /* ------- Convenience functions --------- */

182  

183  vec3 mul(mat3 m, vec3 v)

184  {

185    return m * v;

186  }

187  mat3 mul(mat3 m1, mat3 m2)

188  {

189    return m1 * m2;

190  }

191  vec3 transform_direction(mat4 m, vec3 v)

192  {

193    return mat3(m) * v;

194  }

195  vec3 transform_point(mat4 m, vec3 v)

196  {

197    return (m * vec4(v, 1.0)).xyz;

198  }

199  vec3 project_point(mat4 m, vec3 v)

200  {

201    vec4 tmp = m * vec4(v, 1.0);

202    return tmp.xyz / tmp.w;

203  }

204  

205  #define min3(a, b, c) min(a, min(b, c))

206  #define min4(a, b, c, d) min(a, min3(b, c, d))

207  #define min5(a, b, c, d, e) min(a, min4(b, c, d, e))

208  #define min6(a, b, c, d, e, f) min(a, min5(b, c, d, e, f))

209  #define min7(a, b, c, d, e, f, g) min(a, min6(b, c, d, e, f, g))

210  #define min8(a, b, c, d, e, f, g, h) min(a, min7(b, c, d, e, f, g, h))

211  #define min9(a, b, c, d, e, f, g, h, i) min(a, min8(b, c, d, e, f, g, h, i))

212  

213  #define max3(a, b, c) max(a, max(b, c))

214  #define max4(a, b, c, d) max(a, max3(b, c, d))

215  #define max5(a, b, c, d, e) max(a, max4(b, c, d, e))

216  #define max6(a, b, c, d, e, f) max(a, max5(b, c, d, e, f))

217  #define max7(a, b, c, d, e, f, g) max(a, max6(b, c, d, e, f, g))

218  #define max8(a, b, c, d, e, f, g, h) max(a, max7(b, c, d, e, f, g, h))

219  #define max9(a, b, c, d, e, f, g, h, i) max(a, max8(b, c, d, e, f, g, h, i))

220  

221  #define avg3(a, b, c) (a + b + c) * (1.0 / 3.0)

222  #define avg4(a, b, c, d) (a + b + c + d) * (1.0 / 4.0)

223  #define avg5(a, b, c, d, e) (a + b + c + d + e) * (1.0 / 5.0)

224  #define avg6(a, b, c, d, e, f) (a + b + c + d + e + f) * (1.0 / 6.0)

225  #define avg7(a, b, c, d, e, f, g) (a + b + c + d + e + f + g) * (1.0 / 7.0)

226  #define avg8(a, b, c, d, e, f, g, h) (a + b + c + d + e + f + g + h) * (1.0 / 8.0)

227  #define avg9(a, b, c, d, e, f, g, h, i) (a + b + c + d + e + f + g + h + i) * (1.0 / 9.0)

228  

229  float min_v2(vec2 v)

230  {

231    return min(v.x, v.y);

232  }

233  float min_v3(vec3 v)

234  {

235    return min(v.x, min(v.y, v.z));

236  }

237  float max_v2(vec2 v)

238  {

239    return max(v.x, v.y);

240  }

241  float max_v3(vec3 v)

242  {

243    return max(v.x, max(v.y, v.z));

244  }

245  

246  float sum(vec2 v)

247  {

248    return dot(vec2(1.0), v);

249  }

250  float sum(vec3 v)

251  {

252    return dot(vec3(1.0), v);

253  }

254  float sum(vec4 v)

255  {

256    return dot(vec4(1.0), v);

257  }

258  

259  float saturate(float a)

260  {

261    return clamp(a, 0.0, 1.0);

262  }

263  vec2 saturate(vec2 a)

264  {

265    return clamp(a, 0.0, 1.0);

266  }

267  vec3 saturate(vec3 a)

268  {

269    return clamp(a, 0.0, 1.0);

270  }

271  vec4 saturate(vec4 a)

272  {

273    return clamp(a, 0.0, 1.0);

274  }

275  

276  float distance_squared(vec2 a, vec2 b)

277  {

278    a -= b;

279    return dot(a, a);

280  }

281  float distance_squared(vec3 a, vec3 b)

282  {

283    a -= b;

284    return dot(a, a);

285  }

286  float len_squared(vec3 a)

287  {

288    return dot(a, a);

289  }

290  

291  float inverse_distance(vec3 V)

292  {

293    return max(1 / length(V), 1e-8);

294  }

295  

296  vec2 mip_ratio_interp(float mip)

297  {

298    float low_mip = floor(mip);

299    return mix(mipRatio[int(low_mip)], mipRatio[int(low_mip + 1.0)], mip - low_mip);

300  }

301  

302  /* ------- RNG ------- */

303  

304  float wang_hash_noise(uint s)

305  {

306    s = (s ^ 61u) ^ (s >> 16u);

307    s *= 9u;

308    s = s ^ (s >> 4u);

309    s *= 0x27d4eb2du;

310    s = s ^ (s >> 15u);

311  

312    return fract(float(s) / 4294967296.0);

313  }

314  

315  /* ------- Fast Math ------- */

316  

317  /* [Drobot2014a] Low Level Optimizations for GCN */

318  float fast_sqrt(float v)

319  {

320    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

321  }

322  

323  vec2 fast_sqrt(vec2 v)

324  {

325    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

326  }

327  

328  /* [Eberly2014] GPGPU Programming for Games and Science */

329  float fast_acos(float v)

330  {

331    float res = -0.156583 * abs(v) + M_PI_2;

332    res *= fast_sqrt(1.0 - abs(v));

333    return (v >= 0) ? res : M_PI - res;

334  }

335  

336  vec2 fast_acos(vec2 v)

337  {

338    vec2 res = -0.156583 * abs(v) + M_PI_2;

339    res *= fast_sqrt(1.0 - abs(v));

340    v.x = (v.x >= 0) ? res.x : M_PI - res.x;

341    v.y = (v.y >= 0) ? res.y : M_PI - res.y;

342    return v;

343  }

344  

345  float point_plane_projection_dist(vec3 lineorigin, vec3 planeorigin, vec3 planenormal)

346  {

347    return dot(planenormal, planeorigin - lineorigin);

348  }

349  

350  float line_plane_intersect_dist(vec3 lineorigin,

351                                  vec3 linedirection,

352                                  vec3 planeorigin,

353                                  vec3 planenormal)

354  {

355    return dot(planenormal, planeorigin - lineorigin) / dot(planenormal, linedirection);

356  }

357  

358  float line_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec4 plane)

359  {

360    vec3 plane_co = plane.xyz * (-plane.w / len_squared(plane.xyz));

361    vec3 h = lineorigin - plane_co;

362    return -dot(plane.xyz, h) / dot(plane.xyz, linedirection);

363  }

364  

365  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin, vec3 planenormal)

366  {

367    float dist = line_plane_intersect_dist(lineorigin, linedirection, planeorigin, planenormal);

368    return lineorigin + linedirection * dist;

369  }

370  

371  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec4 plane)

372  {

373    float dist = line_plane_intersect_dist(lineorigin, linedirection, plane);

374    return lineorigin + linedirection * dist;

375  }

376  

377  float line_aligned_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

378  {

379    /* aligned plane normal */

380    vec3 L = planeorigin - lineorigin;

381    float diskdist = length(L);

382    vec3 planenormal = -normalize(L);

383    return -diskdist / dot(planenormal, linedirection);

384  }

385  

386  vec3 line_aligned_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

387  {

388    float dist = line_aligned_plane_intersect_dist(lineorigin, linedirection, planeorigin);

389    if (dist < 0) {

390      /* if intersection is behind we fake the intersection to be

391       * really far and (hopefully) not inside the radius of interest */

392      dist = 1e16;

393    }

394    return lineorigin + linedirection * dist;

395  }

396  

397  float line_unit_sphere_intersect_dist(vec3 lineorigin, vec3 linedirection)

398  {

399    float a = dot(linedirection, linedirection);

400    float b = dot(linedirection, lineorigin);

401    float c = dot(lineorigin, lineorigin) - 1;

402  

403    float dist = 1e15;

404    float determinant = b * b - a * c;

405    if (determinant >= 0) {

406      dist = (sqrt(determinant) - b) / a;

407    }

408  

409    return dist;

410  }

411  

412  float line_unit_box_intersect_dist(vec3 lineorigin, vec3 linedirection)

413  {

414    /* https://seblagarde.wordpress.com/2012/09/29/image-based-lighting-approaches-and-parallax-corrected-cubemap/ */

415    vec3 firstplane = (vec3(1.0) - lineorigin) / linedirection;

416    vec3 secondplane = (vec3(-1.0) - lineorigin) / linedirection;

417    vec3 furthestplane = max(firstplane, secondplane);

418  

419    return min_v3(furthestplane);

420  }

421  

422  /* Return texture coordinates to sample Surface LUT */

423  vec2 lut_coords(float cosTheta, float roughness)

424  {

425    float theta = acos(cosTheta);

426    vec2 coords = vec2(roughness, theta / M_PI_2);

427  

428    /* scale and bias coordinates, for correct filtered lookup */

429    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

430  }

431  

432  vec2 lut_coords_ltc(float cosTheta, float roughness)

433  {

434    vec2 coords = vec2(roughness, sqrt(1.0 - cosTheta));

435  

436    /* scale and bias coordinates, for correct filtered lookup */

437    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

438  }

439  

440  /* -- Tangent Space conversion -- */

441  vec3 tangent_to_world(vec3 vector, vec3 N, vec3 T, vec3 B)

442  {

443    return T * vector.x + B * vector.y + N * vector.z;

444  }

445  

446  vec3 world_to_tangent(vec3 vector, vec3 N, vec3 T, vec3 B)

447  {

448    return vec3(dot(T, vector), dot(B, vector), dot(N, vector));

449  }

450  

451  void make_orthonormal_basis(vec3 N, out vec3 T, out vec3 B)

452  {

453    vec3 UpVector = abs(N.z) < 0.99999 ? vec3(0.0, 0.0, 1.0) : vec3(1.0, 0.0, 0.0);

454    T = normalize(cross(UpVector, N));

455    B = cross(N, T);

456  }

457  

458  /* ---- Opengl Depth conversion ---- */

459  

460  float linear_depth(bool is_persp, float z, float zf, float zn)

461  {

462    if (is_persp) {

463      return (zn * zf) / (z * (zn - zf) + zf);

464    }

465    else {

466      return (z * 2.0 - 1.0) * zf;

467    }

468  }

469  

470  float buffer_depth(bool is_persp, float z, float zf, float zn)

471  {

472    if (is_persp) {

473      return (zf * (zn - z)) / (z * (zn - zf));

474    }

475    else {

476      return (z / (zf * 2.0)) + 0.5;

477    }

478  }

479  

480  float get_view_z_from_depth(float depth)

481  {

482    if (ProjectionMatrix[3][3] == 0.0) {

483      float d = 2.0 * depth - 1.0;

484      return -ProjectionMatrix[3][2] / (d + ProjectionMatrix[2][2]);

485    }

486    else {

487      return viewVecs[0].z + depth * viewVecs[1].z;

488    }

489  }

490  

491  float get_depth_from_view_z(float z)

492  {

493    if (ProjectionMatrix[3][3] == 0.0) {

494      float d = (-ProjectionMatrix[3][2] / z) - ProjectionMatrix[2][2];

495      return d * 0.5 + 0.5;

496    }

497    else {

498      return (z - viewVecs[0].z) / viewVecs[1].z;

499    }

500  }

501  

502  vec2 get_uvs_from_view(vec3 view)

503  {

504    vec3 ndc = project_point(ProjectionMatrix, view);

505    return ndc.xy * 0.5 + 0.5;

506  }

507  

508  vec3 get_view_space_from_depth(vec2 uvcoords, float depth)

509  {

510    if (ProjectionMatrix[3][3] == 0.0) {

511      return vec3(viewVecs[0].xy + uvcoords * viewVecs[1].xy, 1.0) * get_view_z_from_depth(depth);

512    }

513    else {

514      return viewVecs[0].xyz + vec3(uvcoords, depth) * viewVecs[1].xyz;

515    }

516  }

517  

518  vec3 get_world_space_from_depth(vec2 uvcoords, float depth)

519  {

520    return (ViewMatrixInverse * vec4(get_view_space_from_depth(uvcoords, depth), 1.0)).xyz;

521  }

522  

523  vec3 get_specular_reflection_dominant_dir(vec3 N, vec3 V, float roughness)

524  {

525    vec3 R = -reflect(V, N);

526    float smoothness = 1.0 - roughness;

527    float fac = smoothness * (sqrt(smoothness) + roughness);

528    return normalize(mix(N, R, fac));

529  }

530  

531  float specular_occlusion(float NV, float AO, float roughness)

532  {

533    return saturate(pow(NV + AO, roughness) - 1.0 + AO);

534  }

535  

536  /* --- Refraction utils --- */

537  

538  float ior_from_f0(float f0)

539  {

540    float f = sqrt(f0);

541    return (-f - 1.0) / (f - 1.0);

542  }

543  

544  float f0_from_ior(float eta)

545  {

546    float A = (eta - 1.0) / (eta + 1.0);

547    return A * A;

548  }

549  

550  vec3 get_specular_refraction_dominant_dir(vec3 N, vec3 V, float roughness, float ior)

551  {

552    /* TODO: This a bad approximation. Better approximation should fit

553     * the refracted vector and roughness into the best prefiltered reflection

554     * lobe. */

555    /* Correct the IOR for ior < 1.0 to not see the abrupt delimitation or the TIR */

556    ior = (ior < 1.0) ? mix(ior, 1.0, roughness) : ior;

557    float eta = 1.0 / ior;

558  

559    float NV = dot(N, -V);

560  

561    /* Custom Refraction. */

562    float k = 1.0 - eta * eta * (1.0 - NV * NV);

563    k = max(0.0, k); /* Only this changes. */

564    vec3 R = eta * -V - (eta * NV + sqrt(k)) * N;

565  

566    return R;

567  }

568  

569  float get_btdf_lut(sampler2DArray btdf_lut_tex, float NV, float roughness, float ior)

570  {

571    const vec3 lut_scale_bias_texel_size = vec3((LUT_SIZE - 1.0), 0.5, 1.5) / LUT_SIZE;

572  

573    vec3 coords;

574    /* Try to compensate for the low resolution and interpolation error. */

575    coords.x = (ior > 1.0) ? (0.9 + lut_scale_bias_texel_size.z) +

576                                 (0.1 - lut_scale_bias_texel_size.z) * f0_from_ior(ior) :

577                             (0.9 + lut_scale_bias_texel_size.z) * ior * ior;

578    coords.y = 1.0 - saturate(NV);

579    coords.xy *= lut_scale_bias_texel_size.x;

580    coords.xy += lut_scale_bias_texel_size.y;

581  

582    const float lut_lvl_ofs = 4.0;    /* First texture lvl of roughness. */

583    const float lut_lvl_scale = 16.0; /* How many lvl of roughness in the lut. */

584  

585    float mip = roughness * lut_lvl_scale;

586    float mip_floor = floor(mip);

587  

588    coords.z = lut_lvl_ofs + mip_floor + 1.0;

589    float btdf_high = textureLod(btdf_lut_tex, coords, 0.0).r;

590  

591    coords.z -= 1.0;

592    float btdf_low = textureLod(btdf_lut_tex, coords, 0.0).r;

593  

594    float btdf = (ior == 1.0) ? 1.0 : mix(btdf_low, btdf_high, mip - coords.z);

595  

596    return btdf;

597  }

598  

599  /* ---- Encode / Decode Normal buffer data ---- */

600  /* From http://aras-p.info/texts/CompactNormalStorage.html

601   * Using Method #4: Spheremap Transform */

602  vec2 normal_encode(vec3 n, vec3 view)

603  {

604    float p = sqrt(n.z * 8.0 + 8.0);

605    return n.xy / p + 0.5;

606  }

607  

608  vec3 normal_decode(vec2 enc, vec3 view)

609  {

610    vec2 fenc = enc * 4.0 - 2.0;

611    float f = dot(fenc, fenc);

612    float g = sqrt(1.0 - f / 4.0);

613    vec3 n;

614    n.xy = fenc * g;

615    n.z = 1 - f / 2;

616    return n;

617  }

618  

619  /* ---- RGBM (shared multiplier) encoding ---- */

620  /* From http://iwasbeingirony.blogspot.fr/2010/06/difference-between-rgbm-and-rgbd.html */

621  

622  /* Higher RGBM_MAX_RANGE gives imprecision issues in low intensity. */

623  #define RGBM_MAX_RANGE 512.0

624  

625  vec4 rgbm_encode(vec3 rgb)

626  {

627    float maxRGB = max_v3(rgb);

628    float M = maxRGB / RGBM_MAX_RANGE;

629    M = ceil(M * 255.0) / 255.0;

630    return vec4(rgb / (M * RGBM_MAX_RANGE), M);

631  }

632  

633  vec3 rgbm_decode(vec4 data)

634  {

635    return data.rgb * (data.a * RGBM_MAX_RANGE);

636  }

637  

638  /* ---- RGBE (shared exponent) encoding ---- */

639  vec4 rgbe_encode(vec3 rgb)

640  {

641    float maxRGB = max_v3(rgb);

642    float fexp = ceil(log2(maxRGB));

643    return vec4(rgb / exp2(fexp), (fexp + 128.0) / 255.0);

644  }

645  

646  vec3 rgbe_decode(vec4 data)

647  {

648    float fexp = data.a * 255.0 - 128.0;

649    return data.rgb * exp2(fexp);

650  }

651  

652  #if 1

653  #  define irradiance_encode rgbe_encode

654  #  define irradiance_decode rgbe_decode

655  #else /* No ecoding (when using floating point format) */

656  #  define irradiance_encode(X) (X).rgbb

657  #  define irradiance_decode(X) (X).rgb

658  #endif

659  

660  /* Irradiance Visibility Encoding */

661  #if 1

662  vec4 visibility_encode(vec2 accum, float range)

663  {

664    accum /= range;

665  

666    vec4 data;

667    data.x = fract(accum.x);

668    data.y = floor(accum.x) / 255.0;

669    data.z = fract(accum.y);

670    data.w = floor(accum.y) / 255.0;

671  

672    return data;

673  }

674  

675  vec2 visibility_decode(vec4 data, float range)

676  {

677    return (data.xz + data.yw * 255.0) * range;

678  }

679  #else /* No ecoding (when using floating point format) */

680  vec4 visibility_encode(vec2 accum, float range)

681  {

682    return accum.xyxy;

683  }

684  

685  vec2 visibility_decode(vec4 data, float range)

686  {

687    return data.xy;

688  }

689  #endif

690  

691  /* Fresnel monochromatic, perfect mirror */

692  float F_eta(float eta, float cos_theta)

693  {

694    /* compute fresnel reflectance without explicitly computing

695     * the refracted direction */

696    float c = abs(cos_theta);

697    float g = eta * eta - 1.0 + c * c;

698    float result;

699  

700    if (g > 0.0) {

701      g = sqrt(g);

702      vec2 g_c = vec2(g) + vec2(c, -c);

703      float A = g_c.y / g_c.x;

704      A *= A;

705      g_c *= c;

706      float B = (g_c.y - 1.0) / (g_c.x + 1.0);

707      B *= B;

708      result = 0.5 * A * (1.0 + B);

709    }

710    else {

711      result = 1.0; /* TIR (no refracted component) */

712    }

713  

714    return result;

715  }

716  

717  /* Fresnel color blend base on fresnel factor */

718  vec3 F_color_blend(float eta, float fresnel, vec3 f0_color)

719  {

720    float f0 = F_eta(eta, 1.0);

721    float fac = saturate((fresnel - f0) / max(1e-8, 1.0 - f0));

722    return mix(f0_color, vec3(1.0), fac);

723  }

724  

725  /* Fresnel */

726  vec3 F_schlick(vec3 f0, float cos_theta)

727  {

728    float fac = 1.0 - cos_theta;

729    float fac2 = fac * fac;

730    fac = fac2 * fac2 * fac;

731  

732    /* Unreal specular matching : if specular color is below 2% intensity,

733     * (using green channel for intensity) treat as shadowning */

734    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * fac + (1.0 - fac) * f0;

735  }

736  

737  /* Fresnel approximation for LTC area lights (not MRP) */

738  vec3 F_area(vec3 f0, vec2 lut)

739  {

740    /* Unreal specular matching : if specular color is below 2% intensity,

741     * treat as shadowning */

742    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

743  }

744  

745  /* Fresnel approximation for IBL */

746  vec3 F_ibl(vec3 f0, vec2 lut)

747  {

748    /* Unreal specular matching : if specular color is below 2% intensity,

749     * treat as shadowning */

750    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

751  }

752  

753  /* GGX */

754  float D_ggx_opti(float NH, float a2)

755  {

756    float tmp = (NH * a2 - NH) * NH + 1.0;

757    return M_PI * tmp * tmp; /* Doing RCP and mul a2 at the end */

758  }

759  

760  float G1_Smith_GGX(float NX, float a2)

761  {

762    /* Using Brian Karis approach and refactoring by NX/NX

763     * this way the (2*NL)*(2*NV) in G = G1(V) * G1(L) gets canceled by the brdf denominator 4*NL*NV

764     * Rcp is done on the whole G later

765     * Note that this is not convenient for the transmission formula */

766    return NX + sqrt(NX * (NX - NX * a2) + a2);

767    /* return 2 / (1 + sqrt(1 + a2 * (1 - NX*NX) / (NX*NX) ) ); /* Reference function */

768  }

769  

770  float bsdf_ggx(vec3 N, vec3 L, vec3 V, float roughness)

771  {

772    float a = roughness;

773    float a2 = a * a;

774  

775    vec3 H = normalize(L + V);

776    float NH = max(dot(N, H), 1e-8);

777    float NL = max(dot(N, L), 1e-8);

778    float NV = max(dot(N, V), 1e-8);

779  

780    float G = G1_Smith_GGX(NV, a2) * G1_Smith_GGX(NL, a2); /* Doing RCP at the end */

781    float D = D_ggx_opti(NH, a2);

782  

783    /* Denominator is canceled by G1_Smith */

784    /* bsdf = D * G / (4.0 * NL * NV); /* Reference function */

785    return NL * a2 / (D * G); /* NL to Fit cycles Equation : line. 345 in bsdf_microfacet.h */

786  }

787  

788  void accumulate_light(vec3 light, float fac, inout vec4 accum)

789  {

790    accum += vec4(light, 1.0) * min(fac, (1.0 - accum.a));

791  }

792  

793  /* ----------- Cone Aperture Approximation --------- */

794  

795  /* Return a fitted cone angle given the input roughness */

796  float cone_cosine(float r)

797  {

798    /* Using phong gloss

799     * roughness = sqrt(2/(gloss+2)) */

800    float gloss = -2 + 2 / (r * r);

801    /* Drobot 2014 in GPUPro5 */

802    // return cos(2.0 * sqrt(2.0 / (gloss + 2)));

803    /* Uludag 2014 in GPUPro5 */

804    // return pow(0.244, 1 / (gloss + 1));

805    /* Jimenez 2016 in Practical Realtime Strategies for Accurate Indirect Occlusion*/

806    return exp2(-3.32193 * r * r);

807  }

808  

809  /* --------- Closure ---------- */

810  #ifdef VOLUMETRICS

811  

812  struct Closure {

813    vec3 absorption;

814    vec3 scatter;

815    vec3 emission;

816    float anisotropy;

817  };

818  

819  #  define CLOSURE_DEFAULT Closure(vec3(0.0), vec3(0.0), vec3(0.0), 0.0)

820  

821  Closure closure_mix(Closure cl1, Closure cl2, float fac)

822  {

823    Closure cl;

824    cl.absorption = mix(cl1.absorption, cl2.absorption, fac);

825    cl.scatter = mix(cl1.scatter, cl2.scatter, fac);

826    cl.emission = mix(cl1.emission, cl2.emission, fac);

827    cl.anisotropy = mix(cl1.anisotropy, cl2.anisotropy, fac);

828    return cl;

829  }

830  

831  Closure closure_add(Closure cl1, Closure cl2)

832  {

833    Closure cl;

834    cl.absorption = cl1.absorption + cl2.absorption;

835    cl.scatter = cl1.scatter + cl2.scatter;

836    cl.emission = cl1.emission + cl2.emission;

837    cl.anisotropy = (cl1.anisotropy + cl2.anisotropy) / 2.0; /* Average phase (no multi lobe) */

838    return cl;

839  }

840  

841  Closure closure_emission(vec3 rgb)

842  {

843    Closure cl = CLOSURE_DEFAULT;

844    cl.emission = rgb;

845    return cl;

846  }

847  

848  #else /* VOLUMETRICS */

849  

850  struct Closure {

851    vec3 radiance;

852    float opacity;

853  #  ifdef USE_SSS

854    vec4 sss_data;

855  #    ifdef USE_SSS_ALBEDO

856    vec3 sss_albedo;

857  #    endif

858  #  endif

859    vec4 ssr_data;

860    vec2 ssr_normal;

861    int ssr_id;

862  };

863  

864  /* This is hacking ssr_id to tag transparent bsdf */

865  #  define TRANSPARENT_CLOSURE_FLAG -2

866  #  define REFRACT_CLOSURE_FLAG -3

867  #  define NO_SSR -999

868  

869  #  ifdef USE_SSS

870  #    ifdef USE_SSS_ALBEDO

871  #      define CLOSURE_DEFAULT \

872          Closure(vec3(0.0), 1.0, vec4(0.0), vec3(0.0), vec4(0.0), vec2(0.0), -1)

873  #    else

874  #      define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec4(0.0), vec2(0.0), -1)

875  #    endif

876  #  else

877  #    define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec2(0.0), -1)

878  #  endif

879  

880  uniform int outputSsrId;

881  

882  Closure closure_mix(Closure cl1, Closure cl2, float fac)

883  {

884    Closure cl;

885  

886    if (cl1.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

887      cl1.ssr_normal = cl2.ssr_normal;

888      cl1.ssr_data = cl2.ssr_data;

889      cl1.ssr_id = cl2.ssr_id;

890  #  ifdef USE_SSS

891      cl1.sss_data = cl2.sss_data;

892  #    ifdef USE_SSS_ALBEDO

893      cl1.sss_albedo = cl2.sss_albedo;

894  #    endif

895  #  endif

896    }

897    if (cl2.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

898      cl2.ssr_normal = cl1.ssr_normal;

899      cl2.ssr_data = cl1.ssr_data;

900      cl2.ssr_id = cl1.ssr_id;

901  #  ifdef USE_SSS

902      cl2.sss_data = cl1.sss_data;

903  #    ifdef USE_SSS_ALBEDO

904      cl2.sss_albedo = cl1.sss_albedo;

905  #    endif

906  #  endif

907    }

908  

909    /* When mixing SSR don't blend roughness.

910     *

911     * It makes no sense to mix them really, so we take either one of them and

912     * tone down its specularity (ssr_data.xyz) while keeping its roughness (ssr_data.w).

913     */

914    if (cl1.ssr_id == outputSsrId) {

915      cl.ssr_data = mix(cl1.ssr_data.xyzw, vec4(vec3(0.0), cl1.ssr_data.w), fac);

916      cl.ssr_normal = cl1.ssr_normal;

917      cl.ssr_id = cl1.ssr_id;

918    }

919    else {

920      cl.ssr_data = mix(vec4(vec3(0.0), cl2.ssr_data.w), cl2.ssr_data.xyzw, fac);

921      cl.ssr_normal = cl2.ssr_normal;

922      cl.ssr_id = cl2.ssr_id;

923    }

924  

925    cl.opacity = mix(cl1.opacity, cl2.opacity, fac);

926    cl.radiance = mix(cl1.radiance * cl1.opacity, cl2.radiance * cl2.opacity, fac);

927    cl.radiance /= max(1e-8, cl.opacity);

928  

929  #  ifdef USE_SSS

930    cl.sss_data.rgb = mix(cl1.sss_data.rgb, cl2.sss_data.rgb, fac);

931    cl.sss_data.a = (cl1.sss_data.a > 0.0) ? cl1.sss_data.a : cl2.sss_data.a;

932  #    ifdef USE_SSS_ALBEDO

933    /* TODO Find a solution to this. Dither? */

934    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

935  #    endif

936  #  endif

937  

938    return cl;

939  }

940  

941  Closure closure_add(Closure cl1, Closure cl2)

942  {

943    Closure cl = (cl1.ssr_id == outputSsrId) ? cl1 : cl2;

944    cl.radiance = cl1.radiance + cl2.radiance;

945  #  ifdef USE_SSS

946    cl.sss_data = (cl1.sss_data.a > 0.0) ? cl1.sss_data : cl2.sss_data;

947    /* Add radiance that was supposed to be filtered but was rejected. */

948    cl.radiance += (cl1.sss_data.a > 0.0) ? cl2.sss_data.rgb : cl1.sss_data.rgb;

949  #    ifdef USE_SSS_ALBEDO

950    /* TODO Find a solution to this. Dither? */

951    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

952  #    endif

953  #  endif

954    cl.opacity = saturate(cl1.opacity + cl2.opacity);

955    return cl;

956  }

957  

958  Closure closure_emission(vec3 rgb)

959  {

960    Closure cl = CLOSURE_DEFAULT;

961    cl.radiance = rgb;

962    return cl;

963  }

964  

965  #  if defined(MESH_SHADER) && !defined(USE_ALPHA_HASH) && !defined(USE_ALPHA_CLIP) && \

966        !defined(SHADOW_SHADER) && !defined(USE_MULTIPLY)

967  layout(location = 0) out vec4 fragColor;

968  layout(location = 1) out vec4 ssrNormals;

969  layout(location = 2) out vec4 ssrData;

970  #    ifdef USE_SSS

971  layout(location = 3) out vec4 sssData;

972  #      ifdef USE_SSS_ALBEDO

973  layout(location = 4) out vec4 sssAlbedo;

974  #      endif /* USE_SSS_ALBEDO */

975  #    endif   /* USE_SSS */

976  

977  Closure nodetree_exec(void); /* Prototype */

978  

979  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

980  /* Prototype because this file is included before volumetric_lib.glsl */

981  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth);

982  #    endif

983  

984  #    define NODETREE_EXEC

985  void main()

986  {

987    Closure cl = nodetree_exec();

988  #    ifndef USE_ALPHA_BLEND

989    /* Prevent alpha hash material writing into alpha channel. */

990    cl.opacity = 1.0;

991  #    endif

992  

993  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

994    /* XXX fragile, better use real viewport resolution */

995    vec2 uvs = gl_FragCoord.xy / vec2(2 * textureSize(maxzBuffer, 0).xy);

996    fragColor.rgb = volumetric_resolve(vec4(cl.radiance, cl.opacity), uvs, gl_FragCoord.z).rgb;

997    fragColor.a = cl.opacity;

998  #    else

999    fragColor = vec4(cl.radiance, cl.opacity);

1000  #    endif

1001  

1002    ssrNormals = cl.ssr_normal.xyyy;

1003    ssrData = cl.ssr_data;

1004  #    ifdef USE_SSS

1005    sssData = cl.sss_data;

1006  #      ifdef USE_SSS_ALBEDO

1007    sssAlbedo = cl.sss_albedo.rgbb;

1008  #      endif

1009  #    endif

1010  

1011    /* For Probe capture */

1012  #    ifdef USE_SSS

1013  #      ifdef USE_SSS_ALBEDO

1014    fragColor.rgb += cl.sss_data.rgb * cl.sss_albedo.rgb * float(!sssToggle);

1015  #      else

1016    fragColor.rgb += cl.sss_data.rgb * float(!sssToggle);

1017  #      endif

1018  #    endif

1019  }

1020  

1021  #  endif /* MESH_SHADER && !SHADOW_SHADER */

1022  

1023  #endif /* VOLUMETRICS */

1024  

1025  Closure nodetree_exec(void); /* Prototype */

1026  

1027  /* TODO find a better place */

1028  #ifdef USE_MULTIPLY

1029  

1030  out vec4 fragColor;

1031  

1032  #  define NODETREE_EXEC

1033  void main()

1034  {

1035    Closure cl = nodetree_exec();

1036    fragColor = vec4(mix(vec3(1.0), cl.radiance, cl.opacity), 1.0);

1037  }

1038  #endif

1039  

1040  uniform sampler1D texHammersley;

1041  uniform sampler2D texJitter;

1042  uniform float sampleCount;

1043  uniform float invSampleCount;

1044  

1045  vec2 jitternoise = vec2(0.0);

1046  

1047  #ifndef UTIL_TEX

1048  #  define UTIL_TEX

1049  uniform sampler2DArray utilTex;

1050  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1051  #endif /* UTIL_TEX */

1052  

1053  void setup_noise(void)

1054  {

1055    jitternoise = texelfetch_noise_tex(gl_FragCoord.xy).rg; /* Global variable */

1056  }

1057  

1058  #ifdef HAMMERSLEY_SIZE

1059  vec3 hammersley_3d(float i, float invsamplenbr)

1060  {

1061    vec3 Xi; /* Theta, cos(Phi), sin(Phi) */

1062  

1063    Xi.x = i * invsamplenbr; /* i/samples */

1064    Xi.x = fract(Xi.x + jitternoise.x);

1065  

1066    int u = int(mod(i + jitternoise.y * HAMMERSLEY_SIZE, HAMMERSLEY_SIZE));

1067  

1068    Xi.yz = texelFetch(texHammersley, u, 0).rg;

1069  

1070    return Xi;

1071  }

1072  

1073  vec3 hammersley_3d(float i)

1074  {

1075    return hammersley_3d(i, invSampleCount);

1076  }

1077  #endif

1078  

1079  /* -------------- BSDFS -------------- */

1080  

1081  float pdf_ggx_reflect(float NH, float a2)

1082  {

1083    return NH * a2 / D_ggx_opti(NH, a2);

1084  }

1085  

1086  float pdf_hemisphere()

1087  {

1088    return 0.5 * M_1_PI;

1089  }

1090  

1091  vec3 sample_ggx(vec3 rand, float a2)

1092  {

1093    /* Theta is the aperture angle of the cone */

1094    float z = sqrt((1.0 - rand.x) / (1.0 + a2 * rand.x - rand.x)); /* cos theta */

1095    float r = sqrt(max(0.0, 1.0f - z * z));                        /* sin theta */

1096    float x = r * rand.y;

1097    float y = r * rand.z;

1098  

1099    /* Microfacet Normal */

1100    return vec3(x, y, z);

1101  }

1102  

1103  vec3 sample_ggx(vec3 rand, float a2, vec3 N, vec3 T, vec3 B, out float NH)

1104  {

1105    vec3 Ht = sample_ggx(rand, a2);

1106    NH = Ht.z;

1107    return tangent_to_world(Ht, N, T, B);

1108  }

1109  

1110  #ifdef HAMMERSLEY_SIZE

1111  vec3 sample_ggx(float nsample, float a2, vec3 N, vec3 T, vec3 B)

1112  {

1113    vec3 Xi = hammersley_3d(nsample);

1114    vec3 Ht = sample_ggx(Xi, a2);

1115    return tangent_to_world(Ht, N, T, B);

1116  }

1117  

1118  vec3 sample_hemisphere(float nsample, vec3 N, vec3 T, vec3 B)

1119  {

1120    vec3 Xi = hammersley_3d(nsample);

1121  

1122    float z = Xi.x;                         /* cos theta */

1123    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1124    float x = r * Xi.y;

1125    float y = r * Xi.z;

1126  

1127    vec3 Ht = vec3(x, y, z);

1128  

1129    return tangent_to_world(Ht, N, T, B);

1130  }

1131  

1132  vec3 sample_cone(float nsample, float angle, vec3 N, vec3 T, vec3 B)

1133  {

1134    vec3 Xi = hammersley_3d(nsample);

1135  

1136    float z = cos(angle * Xi.x);            /* cos theta */

1137    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1138    float x = r * Xi.y;

1139    float y = r * Xi.z;

1140  

1141    vec3 Ht = vec3(x, y, z);

1142  

1143    return tangent_to_world(Ht, N, T, B);

1144  }

1145  #endif

1146  

1147  uniform samplerCube probeDepth;

1148  uniform int outputSize;

1149  uniform float lodFactor;

1150  uniform float storedTexelSize;

1151  uniform float lodMax;

1152  uniform float nearClip;

1153  uniform float farClip;

1154  uniform float visibilityRange;

1155  uniform float visibilityBlur;

1156  

1157  out vec4 FragColor;

1158  

1159  vec3 octahedral_to_cubemap_proj(vec2 co)

1160  {

1161    co = co * 2.0 - 1.0;

1162  

1163    vec2 abs_co = abs(co);

1164    vec3 v = vec3(co, 1.0 - (abs_co.x + abs_co.y));

1165  

1166    if (abs_co.x + abs_co.y > 1.0) {

1167      v.xy = (abs(co.yx) - 1.0) * -sign(co.xy);

1168    }

1169  

1170    return v;

1171  }

1172  

1173  float linear_depth(float z)

1174  {

1175    return (nearClip * farClip) / (z * (nearClip - farClip) + farClip);

1176  }

1177  

1178  float get_world_distance(float depth, vec3 cos)

1179  {

1180    float is_background = step(1.0, depth);

1181    depth = linear_depth(depth);

1182    depth += 1e1 * is_background;

1183    cos = normalize(abs(cos));

1184    float cos_vec = max(cos.x, max(cos.y, cos.z));

1185    return depth / cos_vec;

1186  }

1187  

1188  void main()

1189  {

1190    ivec2 texel = ivec2(gl_FragCoord.xy) % ivec2(outputSize);

1191  

1192    vec3 cos;

1193  

1194    cos.xy = (vec2(texel) + 0.5) * storedTexelSize;

1195  

1196    /* add a 2 pixel border to ensure filtering is correct */

1197    cos.xy = (cos.xy - storedTexelSize) / (1.0 - 2.0 * storedTexelSize);

1198  

1199    float pattern = 1.0;

1200  

1201    /* edge mirroring : only mirror if directly adjacent

1202     * (not diagonally adjacent) */

1203    vec2 m = abs(cos.xy - 0.5) + 0.5;

1204    vec2 f = floor(m);

1205    if (f.x - f.y != 0.0) {

1206      cos.xy = 1.0 - cos.xy;

1207    }

1208  

1209    /* clamp to [0-1] */

1210    cos.xy = fract(cos.xy);

1211  

1212    /* get cubemap vector */

1213    cos = normalize(octahedral_to_cubemap_proj(cos.xy));

1214  

1215    vec3 T, B;

1216    make_orthonormal_basis(cos, T, B); /* Generate tangent space */

1217  

1218    vec2 accum = vec2(0.0);

1219  

1220    for (float i = 0; i < sampleCount; i++) {

1221      vec3 sample = sample_cone(i, M_PI_2 * visibilityBlur, cos, T, B);

1222      float depth = texture(probeDepth, sample).r;

1223      depth = get_world_distance(depth, sample);

1224      accum += vec2(depth, depth * depth);

1225    }

1226  

1227    accum *= invSampleCount;

1228    accum = abs(accum);

1229  

1230    /* Encode to normalized RGBA 8 */

1231    FragColor = visibility_encode(accum, visibilityRange);

1232  }

0(965) : error C0105: Syntax error in #if
0(965) : error C0105: Syntax error in #if
0(966) : error C0000: syntax error, unexpected '!' at token "!"
0(1188) : error C1013: function "main" is already defined at 0(985)

GPUTexture: create : TEXTURE_1D, RG16F, w : 1024, h : 0, d : 0, comp : 2, size : 0.00 MiB
GPUTexture: create : TEXTURE_2D_ARRAY, RGBA8, w : 4, h : 4, d : 1, comp : 4, size : 0.00 MiB
GPUTexture: create : TEXTURE_2D_ARRAY, R11F_G11F_B10F, w : 1255, h : 1255, d : 1, comp : 3, size : 6.01 MiB
GPUTexture: create : TEXTURE_2D_ARRAY, RGBA8, w : 1, h : 1, d : 1, comp : 4, size : 0.00 MiB
GPUShader: compile error:
===== shader string 1 ====
 1  #version 330
===== shader string 2 ====
 2  #define GPU_FRAGMENT_SHADER
===== shader string 3 ====
 3  #extension GL_ARB_texture_gather: enable
 4  #define GPU_ARB_texture_gather
 5  #extension GL_ARB_texture_query_lod: enable
===== shader string 4 ====
 6  #define GPU_NVIDIA
 7  #define OS_WIN
===== shader string 5 ====
 8  #define EEVEE_ENGINE
 9  #define MAX_PROBE 128
10  #define MAX_GRID 64
11  #define MAX_PLANAR 16
12  #define MAX_LIGHT 128
13  #define MAX_SHADOW 256
14  #define MAX_SHADOW_CUBE (256 - 4 * 8)
15  #define MAX_SHADOW_CASCADE 8
16  #define MAX_CASCADE_NUM 4
17  #define IRRADIANCE_HL2
18  #define PROBE_CAPTURE
===== shader string 6 ====
19  /* keep in sync with DRWManager.view_data */

20  layout(std140) uniform viewBlock

21  {

22    /* Same order as DRWViewportMatrixType */

23    mat4 ViewProjectionMatrix;

24    mat4 ViewProjectionMatrixInverse;

25    mat4 ViewMatrix;

26    mat4 ViewMatrixInverse;

27    mat4 ProjectionMatrix;

28    mat4 ProjectionMatrixInverse;

29  

30    vec4 CameraTexCoFactors;

31  

32    vec4 clipPlanes[2];

33  };

34  

35  layout(std140) uniform common_block

36  {

37    mat4 pastViewProjectionMatrix;

38    vec4 viewVecs[2];

39    vec2 mipRatio[10]; /* To correct mip level texel mis-alignement */

40    /* Ambient Occlusion */

41    vec4 aoParameters[2];

42    /* Volumetric */

43    ivec4 volTexSize;

44    vec4 volDepthParameters; /* Parameters to the volume Z equation */

45    vec4 volInvTexSize;

46    vec4 volJitter;

47    vec4 volCoordScale; /* To convert volume uvs to screen uvs */

48    float volHistoryAlpha;

49    float volLightClamp;

50    float volShadowSteps;

51    bool volUseLights;

52    /* Screen Space Reflections */

53    vec4 ssrParameters;

54    float ssrBorderFac;

55    float ssrMaxRoughness;

56    float ssrFireflyFac;

57    float ssrBrdfBias;

58    bool ssrToggle;

59    /* SubSurface Scattering */

60    float sssJitterThreshold;

61    bool sssToggle;

62    /* Specular */

63    bool specToggle;

64    /* Lights */

65    int laNumLight;

66    /* Probes */

67    int prbNumPlanar;

68    int prbNumRenderCube;

69    int prbNumRenderGrid;

70    int prbIrradianceVisSize;

71    float prbIrradianceSmooth;

72    float prbLodCubeMax;

73    float prbLodPlanarMax;

74    /* Misc*/

75    int hizMipOffset;

76    int rayType;

77    float rayDepth;

78  };

79  

80  /* rayType (keep in sync with ray_type) */

81  #define EEVEE_RAY_CAMERA 0

82  #define EEVEE_RAY_SHADOW 1

83  #define EEVEE_RAY_DIFFUSE 2

84  #define EEVEE_RAY_GLOSSY 3

85  

86  /* aoParameters */

87  #define aoDistance aoParameters[0].x

88  #define aoSamples aoParameters[0].y /* UNUSED */

89  #define aoFactor aoParameters[0].z

90  #define aoInvSamples aoParameters[0].w /* UNUSED */

91  

92  #define aoOffset aoParameters[1].x /* UNUSED */

93  #define aoBounceFac aoParameters[1].y

94  #define aoQuality aoParameters[1].z

95  #define aoSettings aoParameters[1].w

96  

97  /* ssrParameters */

98  #define ssrQuality ssrParameters.x

99  #define ssrThickness ssrParameters.y

100  #define ssrPixelSize ssrParameters.zw

101  

102  #define M_PI 3.14159265358979323846     /* pi */

103  #define M_2PI 6.28318530717958647692    /* 2*pi */

104  #define M_PI_2 1.57079632679489661923   /* pi/2 */

105  #define M_1_PI 0.318309886183790671538  /* 1/pi */

106  #define M_1_2PI 0.159154943091895335768 /* 1/(2*pi) */

107  #define M_1_PI2 0.101321183642337771443 /* 1/(pi^2) */

108  

109  #define LUT_SIZE 64

110  

111  /* Buffers */

112  uniform sampler2D colorBuffer;

113  uniform sampler2D depthBuffer;

114  uniform sampler2D maxzBuffer;

115  uniform sampler2D minzBuffer;

116  uniform sampler2DArray planarDepth;

117  

118  #define cameraForward normalize(ViewMatrixInverse[2].xyz)

119  #define cameraPos ViewMatrixInverse[3].xyz

120  #define cameraVec \

121    ((ProjectionMatrix[3][3] == 0.0) ? normalize(cameraPos - worldPosition) : cameraForward)

122  #define viewCameraVec \

123    ((ProjectionMatrix[3][3] == 0.0) ? normalize(-viewPosition) : vec3(0.0, 0.0, 1.0))

124  

125  /* ------- Structures -------- */

126  

127  /* ------ Lights ----- */

128  struct LightData {

129    vec4 position_influence;     /* w : InfluenceRadius (inversed and squared) */

130    vec4 color_spec;             /* w : Spec Intensity */

131    vec4 spotdata_radius_shadow; /* x : spot size, y : spot blend, z : radius, w: shadow id */

132    vec4 rightvec_sizex;         /* xyz: Normalized up vector, w: area size X or spot scale X */

133    vec4 upvec_sizey;            /* xyz: Normalized right vector, w: area size Y or spot scale Y */

134    vec4 forwardvec_type;        /* xyz: Normalized forward vector, w: Light Type */

135  };

136  

137  /* convenience aliases */

138  #define l_color color_spec.rgb

139  #define l_spec color_spec.a

140  #define l_position position_influence.xyz

141  #define l_influence position_influence.w

142  #define l_sizex rightvec_sizex.w

143  #define l_sizey upvec_sizey.w

144  #define l_right rightvec_sizex.xyz

145  #define l_up upvec_sizey.xyz

146  #define l_forward forwardvec_type.xyz

147  #define l_type forwardvec_type.w

148  #define l_spot_size spotdata_radius_shadow.x

149  #define l_spot_blend spotdata_radius_shadow.y

150  #define l_radius spotdata_radius_shadow.z

151  #define l_shadowid spotdata_radius_shadow.w

152  

153  /* ------ Shadows ----- */

154  #ifndef MAX_CASCADE_NUM

155  #  define MAX_CASCADE_NUM 4

156  #endif

157  

158  struct ShadowData {

159    vec4 near_far_bias_exp;

160    vec4 shadow_data_start_end;

161    vec4 contact_shadow_data;

162  };

163  

164  struct ShadowCubeData {

165    vec4 position;

166  };

167  

168  struct ShadowCascadeData {

169    mat4 shadowmat[MAX_CASCADE_NUM];

170    vec4 split_start_distances;

171    vec4 split_end_distances;

172  };

173  

174  /* convenience aliases */

175  #define sh_near near_far_bias_exp.x

176  #define sh_far near_far_bias_exp.y

177  #define sh_bias near_far_bias_exp.z

178  #define sh_exp near_far_bias_exp.w

179  #define sh_bleed near_far_bias_exp.w

180  #define sh_tex_start shadow_data_start_end.x

181  #define sh_data_start shadow_data_start_end.y

182  #define sh_multi_nbr shadow_data_start_end.z

183  #define sh_blur shadow_data_start_end.w

184  #define sh_contact_dist contact_shadow_data.x

185  #define sh_contact_offset contact_shadow_data.y

186  #define sh_contact_spread contact_shadow_data.z

187  #define sh_contact_thickness contact_shadow_data.w

188  

189  /* ------- Convenience functions --------- */

190  

191  vec3 mul(mat3 m, vec3 v)

192  {

193    return m * v;

194  }

195  mat3 mul(mat3 m1, mat3 m2)

196  {

197    return m1 * m2;

198  }

199  vec3 transform_direction(mat4 m, vec3 v)

200  {

201    return mat3(m) * v;

202  }

203  vec3 transform_point(mat4 m, vec3 v)

204  {

205    return (m * vec4(v, 1.0)).xyz;

206  }

207  vec3 project_point(mat4 m, vec3 v)

208  {

209    vec4 tmp = m * vec4(v, 1.0);

210    return tmp.xyz / tmp.w;

211  }

212  

213  #define min3(a, b, c) min(a, min(b, c))

214  #define min4(a, b, c, d) min(a, min3(b, c, d))

215  #define min5(a, b, c, d, e) min(a, min4(b, c, d, e))

216  #define min6(a, b, c, d, e, f) min(a, min5(b, c, d, e, f))

217  #define min7(a, b, c, d, e, f, g) min(a, min6(b, c, d, e, f, g))

218  #define min8(a, b, c, d, e, f, g, h) min(a, min7(b, c, d, e, f, g, h))

219  #define min9(a, b, c, d, e, f, g, h, i) min(a, min8(b, c, d, e, f, g, h, i))

220  

221  #define max3(a, b, c) max(a, max(b, c))

222  #define max4(a, b, c, d) max(a, max3(b, c, d))

223  #define max5(a, b, c, d, e) max(a, max4(b, c, d, e))

224  #define max6(a, b, c, d, e, f) max(a, max5(b, c, d, e, f))

225  #define max7(a, b, c, d, e, f, g) max(a, max6(b, c, d, e, f, g))

226  #define max8(a, b, c, d, e, f, g, h) max(a, max7(b, c, d, e, f, g, h))

227  #define max9(a, b, c, d, e, f, g, h, i) max(a, max8(b, c, d, e, f, g, h, i))

228  

229  #define avg3(a, b, c) (a + b + c) * (1.0 / 3.0)

230  #define avg4(a, b, c, d) (a + b + c + d) * (1.0 / 4.0)

231  #define avg5(a, b, c, d, e) (a + b + c + d + e) * (1.0 / 5.0)

232  #define avg6(a, b, c, d, e, f) (a + b + c + d + e + f) * (1.0 / 6.0)

233  #define avg7(a, b, c, d, e, f, g) (a + b + c + d + e + f + g) * (1.0 / 7.0)

234  #define avg8(a, b, c, d, e, f, g, h) (a + b + c + d + e + f + g + h) * (1.0 / 8.0)

235  #define avg9(a, b, c, d, e, f, g, h, i) (a + b + c + d + e + f + g + h + i) * (1.0 / 9.0)

236  

237  float min_v2(vec2 v)

238  {

239    return min(v.x, v.y);

240  }

241  float min_v3(vec3 v)

242  {

243    return min(v.x, min(v.y, v.z));

244  }

245  float max_v2(vec2 v)

246  {

247    return max(v.x, v.y);

248  }

249  float max_v3(vec3 v)

250  {

251    return max(v.x, max(v.y, v.z));

252  }

253  

254  float sum(vec2 v)

255  {

256    return dot(vec2(1.0), v);

257  }

258  float sum(vec3 v)

259  {

260    return dot(vec3(1.0), v);

261  }

262  float sum(vec4 v)

263  {

264    return dot(vec4(1.0), v);

265  }

266  

267  float saturate(float a)

268  {

269    return clamp(a, 0.0, 1.0);

270  }

271  vec2 saturate(vec2 a)

272  {

273    return clamp(a, 0.0, 1.0);

274  }

275  vec3 saturate(vec3 a)

276  {

277    return clamp(a, 0.0, 1.0);

278  }

279  vec4 saturate(vec4 a)

280  {

281    return clamp(a, 0.0, 1.0);

282  }

283  

284  float distance_squared(vec2 a, vec2 b)

285  {

286    a -= b;

287    return dot(a, a);

288  }

289  float distance_squared(vec3 a, vec3 b)

290  {

291    a -= b;

292    return dot(a, a);

293  }

294  float len_squared(vec3 a)

295  {

296    return dot(a, a);

297  }

298  

299  float inverse_distance(vec3 V)

300  {

301    return max(1 / length(V), 1e-8);

302  }

303  

304  vec2 mip_ratio_interp(float mip)

305  {

306    float low_mip = floor(mip);

307    return mix(mipRatio[int(low_mip)], mipRatio[int(low_mip + 1.0)], mip - low_mip);

308  }

309  

310  /* ------- RNG ------- */

311  

312  float wang_hash_noise(uint s)

313  {

314    s = (s ^ 61u) ^ (s >> 16u);

315    s *= 9u;

316    s = s ^ (s >> 4u);

317    s *= 0x27d4eb2du;

318    s = s ^ (s >> 15u);

319  

320    return fract(float(s) / 4294967296.0);

321  }

322  

323  /* ------- Fast Math ------- */

324  

325  /* [Drobot2014a] Low Level Optimizations for GCN */

326  float fast_sqrt(float v)

327  {

328    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

329  }

330  

331  vec2 fast_sqrt(vec2 v)

332  {

333    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

334  }

335  

336  /* [Eberly2014] GPGPU Programming for Games and Science */

337  float fast_acos(float v)

338  {

339    float res = -0.156583 * abs(v) + M_PI_2;

340    res *= fast_sqrt(1.0 - abs(v));

341    return (v >= 0) ? res : M_PI - res;

342  }

343  

344  vec2 fast_acos(vec2 v)

345  {

346    vec2 res = -0.156583 * abs(v) + M_PI_2;

347    res *= fast_sqrt(1.0 - abs(v));

348    v.x = (v.x >= 0) ? res.x : M_PI - res.x;

349    v.y = (v.y >= 0) ? res.y : M_PI - res.y;

350    return v;

351  }

352  

353  float point_plane_projection_dist(vec3 lineorigin, vec3 planeorigin, vec3 planenormal)

354  {

355    return dot(planenormal, planeorigin - lineorigin);

356  }

357  

358  float line_plane_intersect_dist(vec3 lineorigin,

359                                  vec3 linedirection,

360                                  vec3 planeorigin,

361                                  vec3 planenormal)

362  {

363    return dot(planenormal, planeorigin - lineorigin) / dot(planenormal, linedirection);

364  }

365  

366  float line_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec4 plane)

367  {

368    vec3 plane_co = plane.xyz * (-plane.w / len_squared(plane.xyz));

369    vec3 h = lineorigin - plane_co;

370    return -dot(plane.xyz, h) / dot(plane.xyz, linedirection);

371  }

372  

373  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin, vec3 planenormal)

374  {

375    float dist = line_plane_intersect_dist(lineorigin, linedirection, planeorigin, planenormal);

376    return lineorigin + linedirection * dist;

377  }

378  

379  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec4 plane)

380  {

381    float dist = line_plane_intersect_dist(lineorigin, linedirection, plane);

382    return lineorigin + linedirection * dist;

383  }

384  

385  float line_aligned_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

386  {

387    /* aligned plane normal */

388    vec3 L = planeorigin - lineorigin;

389    float diskdist = length(L);

390    vec3 planenormal = -normalize(L);

391    return -diskdist / dot(planenormal, linedirection);

392  }

393  

394  vec3 line_aligned_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

395  {

396    float dist = line_aligned_plane_intersect_dist(lineorigin, linedirection, planeorigin);

397    if (dist < 0) {

398      /* if intersection is behind we fake the intersection to be

399       * really far and (hopefully) not inside the radius of interest */

400      dist = 1e16;

401    }

402    return lineorigin + linedirection * dist;

403  }

404  

405  float line_unit_sphere_intersect_dist(vec3 lineorigin, vec3 linedirection)

406  {

407    float a = dot(linedirection, linedirection);

408    float b = dot(linedirection, lineorigin);

409    float c = dot(lineorigin, lineorigin) - 1;

410  

411    float dist = 1e15;

412    float determinant = b * b - a * c;

413    if (determinant >= 0) {

414      dist = (sqrt(determinant) - b) / a;

415    }

416  

417    return dist;

418  }

419  

420  float line_unit_box_intersect_dist(vec3 lineorigin, vec3 linedirection)

421  {

422    /* https://seblagarde.wordpress.com/2012/09/29/image-based-lighting-approaches-and-parallax-corrected-cubemap/ */

423    vec3 firstplane = (vec3(1.0) - lineorigin) / linedirection;

424    vec3 secondplane = (vec3(-1.0) - lineorigin) / linedirection;

425    vec3 furthestplane = max(firstplane, secondplane);

426  

427    return min_v3(furthestplane);

428  }

429  

430  /* Return texture coordinates to sample Surface LUT */

431  vec2 lut_coords(float cosTheta, float roughness)

432  {

433    float theta = acos(cosTheta);

434    vec2 coords = vec2(roughness, theta / M_PI_2);

435  

436    /* scale and bias coordinates, for correct filtered lookup */

437    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

438  }

439  

440  vec2 lut_coords_ltc(float cosTheta, float roughness)

441  {

442    vec2 coords = vec2(roughness, sqrt(1.0 - cosTheta));

443  

444    /* scale and bias coordinates, for correct filtered lookup */

445    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

446  }

447  

448  /* -- Tangent Space conversion -- */

449  vec3 tangent_to_world(vec3 vector, vec3 N, vec3 T, vec3 B)

450  {

451    return T * vector.x + B * vector.y + N * vector.z;

452  }

453  

454  vec3 world_to_tangent(vec3 vector, vec3 N, vec3 T, vec3 B)

455  {

456    return vec3(dot(T, vector), dot(B, vector), dot(N, vector));

457  }

458  

459  void make_orthonormal_basis(vec3 N, out vec3 T, out vec3 B)

460  {

461    vec3 UpVector = abs(N.z) < 0.99999 ? vec3(0.0, 0.0, 1.0) : vec3(1.0, 0.0, 0.0);

462    T = normalize(cross(UpVector, N));

463    B = cross(N, T);

464  }

465  

466  /* ---- Opengl Depth conversion ---- */

467  

468  float linear_depth(bool is_persp, float z, float zf, float zn)

469  {

470    if (is_persp) {

471      return (zn * zf) / (z * (zn - zf) + zf);

472    }

473    else {

474      return (z * 2.0 - 1.0) * zf;

475    }

476  }

477  

478  float buffer_depth(bool is_persp, float z, float zf, float zn)

479  {

480    if (is_persp) {

481      return (zf * (zn - z)) / (z * (zn - zf));

482    }

483    else {

484      return (z / (zf * 2.0)) + 0.5;

485    }

486  }

487  

488  float get_view_z_from_depth(float depth)

489  {

490    if (ProjectionMatrix[3][3] == 0.0) {

491      float d = 2.0 * depth - 1.0;

492      return -ProjectionMatrix[3][2] / (d + ProjectionMatrix[2][2]);

493    }

494    else {

495      return viewVecs[0].z + depth * viewVecs[1].z;

496    }

497  }

498  

499  float get_depth_from_view_z(float z)

500  {

501    if (ProjectionMatrix[3][3] == 0.0) {

502      float d = (-ProjectionMatrix[3][2] / z) - ProjectionMatrix[2][2];

503      return d * 0.5 + 0.5;

504    }

505    else {

506      return (z - viewVecs[0].z) / viewVecs[1].z;

507    }

508  }

509  

510  vec2 get_uvs_from_view(vec3 view)

511  {

512    vec3 ndc = project_point(ProjectionMatrix, view);

513    return ndc.xy * 0.5 + 0.5;

514  }

515  

516  vec3 get_view_space_from_depth(vec2 uvcoords, float depth)

517  {

518    if (ProjectionMatrix[3][3] == 0.0) {

519      return vec3(viewVecs[0].xy + uvcoords * viewVecs[1].xy, 1.0) * get_view_z_from_depth(depth);

520    }

521    else {

522      return viewVecs[0].xyz + vec3(uvcoords, depth) * viewVecs[1].xyz;

523    }

524  }

525  

526  vec3 get_world_space_from_depth(vec2 uvcoords, float depth)

527  {

528    return (ViewMatrixInverse * vec4(get_view_space_from_depth(uvcoords, depth), 1.0)).xyz;

529  }

530  

531  vec3 get_specular_reflection_dominant_dir(vec3 N, vec3 V, float roughness)

532  {

533    vec3 R = -reflect(V, N);

534    float smoothness = 1.0 - roughness;

535    float fac = smoothness * (sqrt(smoothness) + roughness);

536    return normalize(mix(N, R, fac));

537  }

538  

539  float specular_occlusion(float NV, float AO, float roughness)

540  {

541    return saturate(pow(NV + AO, roughness) - 1.0 + AO);

542  }

543  

544  /* --- Refraction utils --- */

545  

546  float ior_from_f0(float f0)

547  {

548    float f = sqrt(f0);

549    return (-f - 1.0) / (f - 1.0);

550  }

551  

552  float f0_from_ior(float eta)

553  {

554    float A = (eta - 1.0) / (eta + 1.0);

555    return A * A;

556  }

557  

558  vec3 get_specular_refraction_dominant_dir(vec3 N, vec3 V, float roughness, float ior)

559  {

560    /* TODO: This a bad approximation. Better approximation should fit

561     * the refracted vector and roughness into the best prefiltered reflection

562     * lobe. */

563    /* Correct the IOR for ior < 1.0 to not see the abrupt delimitation or the TIR */

564    ior = (ior < 1.0) ? mix(ior, 1.0, roughness) : ior;

565    float eta = 1.0 / ior;

566  

567    float NV = dot(N, -V);

568  

569    /* Custom Refraction. */

570    float k = 1.0 - eta * eta * (1.0 - NV * NV);

571    k = max(0.0, k); /* Only this changes. */

572    vec3 R = eta * -V - (eta * NV + sqrt(k)) * N;

573  

574    return R;

575  }

576  

577  float get_btdf_lut(sampler2DArray btdf_lut_tex, float NV, float roughness, float ior)

578  {

579    const vec3 lut_scale_bias_texel_size = vec3((LUT_SIZE - 1.0), 0.5, 1.5) / LUT_SIZE;

580  

581    vec3 coords;

582    /* Try to compensate for the low resolution and interpolation error. */

583    coords.x = (ior > 1.0) ? (0.9 + lut_scale_bias_texel_size.z) +

584                                 (0.1 - lut_scale_bias_texel_size.z) * f0_from_ior(ior) :

585                             (0.9 + lut_scale_bias_texel_size.z) * ior * ior;

586    coords.y = 1.0 - saturate(NV);

587    coords.xy *= lut_scale_bias_texel_size.x;

588    coords.xy += lut_scale_bias_texel_size.y;

589  

590    const float lut_lvl_ofs = 4.0;    /* First texture lvl of roughness. */

591    const float lut_lvl_scale = 16.0; /* How many lvl of roughness in the lut. */

592  

593    float mip = roughness * lut_lvl_scale;

594    float mip_floor = floor(mip);

595  

596    coords.z = lut_lvl_ofs + mip_floor + 1.0;

597    float btdf_high = textureLod(btdf_lut_tex, coords, 0.0).r;

598  

599    coords.z -= 1.0;

600    float btdf_low = textureLod(btdf_lut_tex, coords, 0.0).r;

601  

602    float btdf = (ior == 1.0) ? 1.0 : mix(btdf_low, btdf_high, mip - coords.z);

603  

604    return btdf;

605  }

606  

607  /* ---- Encode / Decode Normal buffer data ---- */

608  /* From http://aras-p.info/texts/CompactNormalStorage.html

609   * Using Method #4: Spheremap Transform */

610  vec2 normal_encode(vec3 n, vec3 view)

611  {

612    float p = sqrt(n.z * 8.0 + 8.0);

613    return n.xy / p + 0.5;

614  }

615  

616  vec3 normal_decode(vec2 enc, vec3 view)

617  {

618    vec2 fenc = enc * 4.0 - 2.0;

619    float f = dot(fenc, fenc);

620    float g = sqrt(1.0 - f / 4.0);

621    vec3 n;

622    n.xy = fenc * g;

623    n.z = 1 - f / 2;

624    return n;

625  }

626  

627  /* ---- RGBM (shared multiplier) encoding ---- */

628  /* From http://iwasbeingirony.blogspot.fr/2010/06/difference-between-rgbm-and-rgbd.html */

629  

630  /* Higher RGBM_MAX_RANGE gives imprecision issues in low intensity. */

631  #define RGBM_MAX_RANGE 512.0

632  

633  vec4 rgbm_encode(vec3 rgb)

634  {

635    float maxRGB = max_v3(rgb);

636    float M = maxRGB / RGBM_MAX_RANGE;

637    M = ceil(M * 255.0) / 255.0;

638    return vec4(rgb / (M * RGBM_MAX_RANGE), M);

639  }

640  

641  vec3 rgbm_decode(vec4 data)

642  {

643    return data.rgb * (data.a * RGBM_MAX_RANGE);

644  }

645  

646  /* ---- RGBE (shared exponent) encoding ---- */

647  vec4 rgbe_encode(vec3 rgb)

648  {

649    float maxRGB = max_v3(rgb);

650    float fexp = ceil(log2(maxRGB));

651    return vec4(rgb / exp2(fexp), (fexp + 128.0) / 255.0);

652  }

653  

654  vec3 rgbe_decode(vec4 data)

655  {

656    float fexp = data.a * 255.0 - 128.0;

657    return data.rgb * exp2(fexp);

658  }

659  

660  #if 1

661  #  define irradiance_encode rgbe_encode

662  #  define irradiance_decode rgbe_decode

663  #else /* No ecoding (when using floating point format) */

664  #  define irradiance_encode(X) (X).rgbb

665  #  define irradiance_decode(X) (X).rgb

666  #endif

667  

668  /* Irradiance Visibility Encoding */

669  #if 1

670  vec4 visibility_encode(vec2 accum, float range)

671  {

672    accum /= range;

673  

674    vec4 data;

675    data.x = fract(accum.x);

676    data.y = floor(accum.x) / 255.0;

677    data.z = fract(accum.y);

678    data.w = floor(accum.y) / 255.0;

679  

680    return data;

681  }

682  

683  vec2 visibility_decode(vec4 data, float range)

684  {

685    return (data.xz + data.yw * 255.0) * range;

686  }

687  #else /* No ecoding (when using floating point format) */

688  vec4 visibility_encode(vec2 accum, float range)

689  {

690    return accum.xyxy;

691  }

692  

693  vec2 visibility_decode(vec4 data, float range)

694  {

695    return data.xy;

696  }

697  #endif

698  

699  /* Fresnel monochromatic, perfect mirror */

700  float F_eta(float eta, float cos_theta)

701  {

702    /* compute fresnel reflectance without explicitly computing

703     * the refracted direction */

704    float c = abs(cos_theta);

705    float g = eta * eta - 1.0 + c * c;

706    float result;

707  

708    if (g > 0.0) {

709      g = sqrt(g);

710      vec2 g_c = vec2(g) + vec2(c, -c);

711      float A = g_c.y / g_c.x;

712      A *= A;

713      g_c *= c;

714      float B = (g_c.y - 1.0) / (g_c.x + 1.0);

715      B *= B;

716      result = 0.5 * A * (1.0 + B);

717    }

718    else {

719      result = 1.0; /* TIR (no refracted component) */

720    }

721  

722    return result;

723  }

724  

725  /* Fresnel color blend base on fresnel factor */

726  vec3 F_color_blend(float eta, float fresnel, vec3 f0_color)

727  {

728    float f0 = F_eta(eta, 1.0);

729    float fac = saturate((fresnel - f0) / max(1e-8, 1.0 - f0));

730    return mix(f0_color, vec3(1.0), fac);

731  }

732  

733  /* Fresnel */

734  vec3 F_schlick(vec3 f0, float cos_theta)

735  {

736    float fac = 1.0 - cos_theta;

737    float fac2 = fac * fac;

738    fac = fac2 * fac2 * fac;

739  

740    /* Unreal specular matching : if specular color is below 2% intensity,

741     * (using green channel for intensity) treat as shadowning */

742    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * fac + (1.0 - fac) * f0;

743  }

744  

745  /* Fresnel approximation for LTC area lights (not MRP) */

746  vec3 F_area(vec3 f0, vec2 lut)

747  {

748    /* Unreal specular matching : if specular color is below 2% intensity,

749     * treat as shadowning */

750    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

751  }

752  

753  /* Fresnel approximation for IBL */

754  vec3 F_ibl(vec3 f0, vec2 lut)

755  {

756    /* Unreal specular matching : if specular color is below 2% intensity,

757     * treat as shadowning */

758    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

759  }

760  

761  /* GGX */

762  float D_ggx_opti(float NH, float a2)

763  {

764    float tmp = (NH * a2 - NH) * NH + 1.0;

765    return M_PI * tmp * tmp; /* Doing RCP and mul a2 at the end */

766  }

767  

768  float G1_Smith_GGX(float NX, float a2)

769  {

770    /* Using Brian Karis approach and refactoring by NX/NX

771     * this way the (2*NL)*(2*NV) in G = G1(V) * G1(L) gets canceled by the brdf denominator 4*NL*NV

772     * Rcp is done on the whole G later

773     * Note that this is not convenient for the transmission formula */

774    return NX + sqrt(NX * (NX - NX * a2) + a2);

775    /* return 2 / (1 + sqrt(1 + a2 * (1 - NX*NX) / (NX*NX) ) ); /* Reference function */

776  }

777  

778  float bsdf_ggx(vec3 N, vec3 L, vec3 V, float roughness)

779  {

780    float a = roughness;

781    float a2 = a * a;

782  

783    vec3 H = normalize(L + V);

784    float NH = max(dot(N, H), 1e-8);

785    float NL = max(dot(N, L), 1e-8);

786    float NV = max(dot(N, V), 1e-8);

787  

788    float G = G1_Smith_GGX(NV, a2) * G1_Smith_GGX(NL, a2); /* Doing RCP at the end */

789    float D = D_ggx_opti(NH, a2);

790  

791    /* Denominator is canceled by G1_Smith */

792    /* bsdf = D * G / (4.0 * NL * NV); /* Reference function */

793    return NL * a2 / (D * G); /* NL to Fit cycles Equation : line. 345 in bsdf_microfacet.h */

794  }

795  

796  void accumulate_light(vec3 light, float fac, inout vec4 accum)

797  {

798    accum += vec4(light, 1.0) * min(fac, (1.0 - accum.a));

799  }

800  

801  /* ----------- Cone Aperture Approximation --------- */

802  

803  /* Return a fitted cone angle given the input roughness */

804  float cone_cosine(float r)

805  {

806    /* Using phong gloss

807     * roughness = sqrt(2/(gloss+2)) */

808    float gloss = -2 + 2 / (r * r);

809    /* Drobot 2014 in GPUPro5 */

810    // return cos(2.0 * sqrt(2.0 / (gloss + 2)));

811    /* Uludag 2014 in GPUPro5 */

812    // return pow(0.244, 1 / (gloss + 1));

813    /* Jimenez 2016 in Practical Realtime Strategies for Accurate Indirect Occlusion*/

814    return exp2(-3.32193 * r * r);

815  }

816  

817  /* --------- Closure ---------- */

818  #ifdef VOLUMETRICS

819  

820  struct Closure {

821    vec3 absorption;

822    vec3 scatter;

823    vec3 emission;

824    float anisotropy;

825  };

826  

827  #  define CLOSURE_DEFAULT Closure(vec3(0.0), vec3(0.0), vec3(0.0), 0.0)

828  

829  Closure closure_mix(Closure cl1, Closure cl2, float fac)

830  {

831    Closure cl;

832    cl.absorption = mix(cl1.absorption, cl2.absorption, fac);

833    cl.scatter = mix(cl1.scatter, cl2.scatter, fac);

834    cl.emission = mix(cl1.emission, cl2.emission, fac);

835    cl.anisotropy = mix(cl1.anisotropy, cl2.anisotropy, fac);

836    return cl;

837  }

838  

839  Closure closure_add(Closure cl1, Closure cl2)

840  {

841    Closure cl;

842    cl.absorption = cl1.absorption + cl2.absorption;

843    cl.scatter = cl1.scatter + cl2.scatter;

844    cl.emission = cl1.emission + cl2.emission;

845    cl.anisotropy = (cl1.anisotropy + cl2.anisotropy) / 2.0; /* Average phase (no multi lobe) */

846    return cl;

847  }

848  

849  Closure closure_emission(vec3 rgb)

850  {

851    Closure cl = CLOSURE_DEFAULT;

852    cl.emission = rgb;

853    return cl;

854  }

855  

856  #else /* VOLUMETRICS */

857  

858  struct Closure {

859    vec3 radiance;

860    float opacity;

861  #  ifdef USE_SSS

862    vec4 sss_data;

863  #    ifdef USE_SSS_ALBEDO

864    vec3 sss_albedo;

865  #    endif

866  #  endif

867    vec4 ssr_data;

868    vec2 ssr_normal;

869    int ssr_id;

870  };

871  

872  /* This is hacking ssr_id to tag transparent bsdf */

873  #  define TRANSPARENT_CLOSURE_FLAG -2

874  #  define REFRACT_CLOSURE_FLAG -3

875  #  define NO_SSR -999

876  

877  #  ifdef USE_SSS

878  #    ifdef USE_SSS_ALBEDO

879  #      define CLOSURE_DEFAULT \

880          Closure(vec3(0.0), 1.0, vec4(0.0), vec3(0.0), vec4(0.0), vec2(0.0), -1)

881  #    else

882  #      define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec4(0.0), vec2(0.0), -1)

883  #    endif

884  #  else

885  #    define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec2(0.0), -1)

886  #  endif

887  

888  uniform int outputSsrId;

889  

890  Closure closure_mix(Closure cl1, Closure cl2, float fac)

891  {

892    Closure cl;

893  

894    if (cl1.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

895      cl1.ssr_normal = cl2.ssr_normal;

896      cl1.ssr_data = cl2.ssr_data;

897      cl1.ssr_id = cl2.ssr_id;

898  #  ifdef USE_SSS

899      cl1.sss_data = cl2.sss_data;

900  #    ifdef USE_SSS_ALBEDO

901      cl1.sss_albedo = cl2.sss_albedo;

902  #    endif

903  #  endif

904    }

905    if (cl2.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

906      cl2.ssr_normal = cl1.ssr_normal;

907      cl2.ssr_data = cl1.ssr_data;

908      cl2.ssr_id = cl1.ssr_id;

909  #  ifdef USE_SSS

910      cl2.sss_data = cl1.sss_data;

911  #    ifdef USE_SSS_ALBEDO

912      cl2.sss_albedo = cl1.sss_albedo;

913  #    endif

914  #  endif

915    }

916  

917    /* When mixing SSR don't blend roughness.

918     *

919     * It makes no sense to mix them really, so we take either one of them and

920     * tone down its specularity (ssr_data.xyz) while keeping its roughness (ssr_data.w).

921     */

922    if (cl1.ssr_id == outputSsrId) {

923      cl.ssr_data = mix(cl1.ssr_data.xyzw, vec4(vec3(0.0), cl1.ssr_data.w), fac);

924      cl.ssr_normal = cl1.ssr_normal;

925      cl.ssr_id = cl1.ssr_id;

926    }

927    else {

928      cl.ssr_data = mix(vec4(vec3(0.0), cl2.ssr_data.w), cl2.ssr_data.xyzw, fac);

929      cl.ssr_normal = cl2.ssr_normal;

930      cl.ssr_id = cl2.ssr_id;

931    }

932  

933    cl.opacity = mix(cl1.opacity, cl2.opacity, fac);

934    cl.radiance = mix(cl1.radiance * cl1.opacity, cl2.radiance * cl2.opacity, fac);

935    cl.radiance /= max(1e-8, cl.opacity);

936  

937  #  ifdef USE_SSS

938    cl.sss_data.rgb = mix(cl1.sss_data.rgb, cl2.sss_data.rgb, fac);

939    cl.sss_data.a = (cl1.sss_data.a > 0.0) ? cl1.sss_data.a : cl2.sss_data.a;

940  #    ifdef USE_SSS_ALBEDO

941    /* TODO Find a solution to this. Dither? */

942    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

943  #    endif

944  #  endif

945  

946    return cl;

947  }

948  

949  Closure closure_add(Closure cl1, Closure cl2)

950  {

951    Closure cl = (cl1.ssr_id == outputSsrId) ? cl1 : cl2;

952    cl.radiance = cl1.radiance + cl2.radiance;

953  #  ifdef USE_SSS

954    cl.sss_data = (cl1.sss_data.a > 0.0) ? cl1.sss_data : cl2.sss_data;

955    /* Add radiance that was supposed to be filtered but was rejected. */

956    cl.radiance += (cl1.sss_data.a > 0.0) ? cl2.sss_data.rgb : cl1.sss_data.rgb;

957  #    ifdef USE_SSS_ALBEDO

958    /* TODO Find a solution to this. Dither? */

959    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

960  #    endif

961  #  endif

962    cl.opacity = saturate(cl1.opacity + cl2.opacity);

963    return cl;

964  }

965  

966  Closure closure_emission(vec3 rgb)

967  {

968    Closure cl = CLOSURE_DEFAULT;

969    cl.radiance = rgb;

970    return cl;

971  }

972  

973  #  if defined(MESH_SHADER) && !defined(USE_ALPHA_HASH) && !defined(USE_ALPHA_CLIP) && \

974        !defined(SHADOW_SHADER) && !defined(USE_MULTIPLY)

975  layout(location = 0) out vec4 fragColor;

976  layout(location = 1) out vec4 ssrNormals;

977  layout(location = 2) out vec4 ssrData;

978  #    ifdef USE_SSS

979  layout(location = 3) out vec4 sssData;

980  #      ifdef USE_SSS_ALBEDO

981  layout(location = 4) out vec4 sssAlbedo;

982  #      endif /* USE_SSS_ALBEDO */

983  #    endif   /* USE_SSS */

984  

985  Closure nodetree_exec(void); /* Prototype */

986  

987  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

988  /* Prototype because this file is included before volumetric_lib.glsl */

989  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth);

990  #    endif

991  

992  #    define NODETREE_EXEC

993  void main()

994  {

995    Closure cl = nodetree_exec();

996  #    ifndef USE_ALPHA_BLEND

997    /* Prevent alpha hash material writing into alpha channel. */

998    cl.opacity = 1.0;

999  #    endif

1000  

1001  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

1002    /* XXX fragile, better use real viewport resolution */

1003    vec2 uvs = gl_FragCoord.xy / vec2(2 * textureSize(maxzBuffer, 0).xy);

1004    fragColor.rgb = volumetric_resolve(vec4(cl.radiance, cl.opacity), uvs, gl_FragCoord.z).rgb;

1005    fragColor.a = cl.opacity;

1006  #    else

1007    fragColor = vec4(cl.radiance, cl.opacity);

1008  #    endif

1009  

1010    ssrNormals = cl.ssr_normal.xyyy;

1011    ssrData = cl.ssr_data;

1012  #    ifdef USE_SSS

1013    sssData = cl.sss_data;

1014  #      ifdef USE_SSS_ALBEDO

1015    sssAlbedo = cl.sss_albedo.rgbb;

1016  #      endif

1017  #    endif

1018  

1019    /* For Probe capture */

1020  #    ifdef USE_SSS

1021  #      ifdef USE_SSS_ALBEDO

1022    fragColor.rgb += cl.sss_data.rgb * cl.sss_albedo.rgb * float(!sssToggle);

1023  #      else

1024    fragColor.rgb += cl.sss_data.rgb * float(!sssToggle);

1025  #      endif

1026  #    endif

1027  }

1028  

1029  #  endif /* MESH_SHADER && !SHADOW_SHADER */

1030  

1031  #endif /* VOLUMETRICS */

1032  

1033  Closure nodetree_exec(void); /* Prototype */

1034  

1035  /* TODO find a better place */

1036  #ifdef USE_MULTIPLY

1037  

1038  out vec4 fragColor;

1039  

1040  #  define NODETREE_EXEC

1041  void main()

1042  {

1043    Closure cl = nodetree_exec();

1044    fragColor = vec4(mix(vec3(1.0), cl.radiance, cl.opacity), 1.0);

1045  }

1046  #endif

1047  

1048  uniform sampler1D texHammersley;

1049  uniform sampler2D texJitter;

1050  uniform float sampleCount;

1051  uniform float invSampleCount;

1052  

1053  vec2 jitternoise = vec2(0.0);

1054  

1055  #ifndef UTIL_TEX

1056  #  define UTIL_TEX

1057  uniform sampler2DArray utilTex;

1058  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1059  #endif /* UTIL_TEX */

1060  

1061  void setup_noise(void)

1062  {

1063    jitternoise = texelfetch_noise_tex(gl_FragCoord.xy).rg; /* Global variable */

1064  }

1065  

1066  #ifdef HAMMERSLEY_SIZE

1067  vec3 hammersley_3d(float i, float invsamplenbr)

1068  {

1069    vec3 Xi; /* Theta, cos(Phi), sin(Phi) */

1070  

1071    Xi.x = i * invsamplenbr; /* i/samples */

1072    Xi.x = fract(Xi.x + jitternoise.x);

1073  

1074    int u = int(mod(i + jitternoise.y * HAMMERSLEY_SIZE, HAMMERSLEY_SIZE));

1075  

1076    Xi.yz = texelFetch(texHammersley, u, 0).rg;

1077  

1078    return Xi;

1079  }

1080  

1081  vec3 hammersley_3d(float i)

1082  {

1083    return hammersley_3d(i, invSampleCount);

1084  }

1085  #endif

1086  

1087  /* -------------- BSDFS -------------- */

1088  

1089  float pdf_ggx_reflect(float NH, float a2)

1090  {

1091    return NH * a2 / D_ggx_opti(NH, a2);

1092  }

1093  

1094  float pdf_hemisphere()

1095  {

1096    return 0.5 * M_1_PI;

1097  }

1098  

1099  vec3 sample_ggx(vec3 rand, float a2)

1100  {

1101    /* Theta is the aperture angle of the cone */

1102    float z = sqrt((1.0 - rand.x) / (1.0 + a2 * rand.x - rand.x)); /* cos theta */

1103    float r = sqrt(max(0.0, 1.0f - z * z));                        /* sin theta */

1104    float x = r * rand.y;

1105    float y = r * rand.z;

1106  

1107    /* Microfacet Normal */

1108    return vec3(x, y, z);

1109  }

1110  

1111  vec3 sample_ggx(vec3 rand, float a2, vec3 N, vec3 T, vec3 B, out float NH)

1112  {

1113    vec3 Ht = sample_ggx(rand, a2);

1114    NH = Ht.z;

1115    return tangent_to_world(Ht, N, T, B);

1116  }

1117  

1118  #ifdef HAMMERSLEY_SIZE

1119  vec3 sample_ggx(float nsample, float a2, vec3 N, vec3 T, vec3 B)

1120  {

1121    vec3 Xi = hammersley_3d(nsample);

1122    vec3 Ht = sample_ggx(Xi, a2);

1123    return tangent_to_world(Ht, N, T, B);

1124  }

1125  

1126  vec3 sample_hemisphere(float nsample, vec3 N, vec3 T, vec3 B)

1127  {

1128    vec3 Xi = hammersley_3d(nsample);

1129  

1130    float z = Xi.x;                         /* cos theta */

1131    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1132    float x = r * Xi.y;

1133    float y = r * Xi.z;

1134  

1135    vec3 Ht = vec3(x, y, z);

1136  

1137    return tangent_to_world(Ht, N, T, B);

1138  }

1139  

1140  vec3 sample_cone(float nsample, float angle, vec3 N, vec3 T, vec3 B)

1141  {

1142    vec3 Xi = hammersley_3d(nsample);

1143  

1144    float z = cos(angle * Xi.x);            /* cos theta */

1145    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1146    float x = r * Xi.y;

1147    float y = r * Xi.z;

1148  

1149    vec3 Ht = vec3(x, y, z);

1150  

1151    return tangent_to_world(Ht, N, T, B);

1152  }

1153  #endif

1154  

1155  /* Based on Practical Realtime Strategies for Accurate Indirect Occlusion

1156   * http://blog.selfshadow.com/publications/s2016-shading-course/activision/s2016_pbs_activision_occlusion.pdf

1157   * http://blog.selfshadow.com/publications/s2016-shading-course/activision/s2016_pbs_activision_occlusion.pptx */

1158  

1159  #if defined(MESH_SHADER)

1160  #  if !defined(USE_ALPHA_HASH)

1161  #    if !defined(USE_ALPHA_CLIP)

1162  #      if !defined(SHADOW_SHADER)

1163  #        if !defined(USE_MULTIPLY)

1164  #          if !defined(USE_ALPHA_BLEND)

1165  #            define ENABLE_DEFERED_AO

1166  #          endif

1167  #        endif

1168  #      endif

1169  #    endif

1170  #  endif

1171  #endif

1172  

1173  #ifndef ENABLE_DEFERED_AO

1174  #  if defined(STEP_RESOLVE)

1175  #    define ENABLE_DEFERED_AO

1176  #  endif

1177  #endif

1178  

1179  #define MAX_PHI_STEP 32

1180  #define MAX_SEARCH_ITER 32

1181  #define MAX_LOD 6.0

1182  

1183  #ifndef UTIL_TEX

1184  #  define UTIL_TEX

1185  uniform sampler2DArray utilTex;

1186  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1187  #endif /* UTIL_TEX */

1188  

1189  uniform sampler2D horizonBuffer;

1190  

1191  /* aoSettings flags */

1192  #define USE_AO 1

1193  #define USE_BENT_NORMAL 2

1194  #define USE_DENOISE 4

1195  

1196  vec4 pack_horizons(vec4 v)

1197  {

1198    return v * 0.5 + 0.5;

1199  }

1200  vec4 unpack_horizons(vec4 v)

1201  {

1202    return v * 2.0 - 1.0;

1203  }

1204  

1205  /* Returns maximum screen distance an AO ray can travel for a given view depth */

1206  vec2 get_max_dir(float view_depth)

1207  {

1208    float homcco = ProjectionMatrix[2][3] * view_depth + ProjectionMatrix[3][3];

1209    float max_dist = aoDistance / homcco;

1210    return vec2(ProjectionMatrix[0][0], ProjectionMatrix[1][1]) * max_dist;

1211  }

1212  

1213  vec2 get_ao_dir(float jitter)

1214  {

1215    /* Only half a turn because we integrate in slices. */

1216    jitter *= M_PI;

1217    return vec2(cos(jitter), sin(jitter));

1218  }

1219  

1220  void get_max_horizon_grouped(vec4 co1, vec4 co2, vec3 x, float lod, inout float h)

1221  {

1222    int mip = int(lod) + hizMipOffset;

1223    co1 *= mipRatio[mip].xyxy;

1224    co2 *= mipRatio[mip].xyxy;

1225  

1226    float depth1 = textureLod(maxzBuffer, co1.xy, floor(lod)).r;

1227    float depth2 = textureLod(maxzBuffer, co1.zw, floor(lod)).r;

1228    float depth3 = textureLod(maxzBuffer, co2.xy, floor(lod)).r;

1229    float depth4 = textureLod(maxzBuffer, co2.zw, floor(lod)).r;

1230  

1231    vec4 len, s_h;

1232  

1233    vec3 s1 = get_view_space_from_depth(co1.xy, depth1); /* s View coordinate */

1234    vec3 omega_s1 = s1 - x;

1235    len.x = length(omega_s1);

1236    s_h.x = omega_s1.z / len.x;

1237  

1238    vec3 s2 = get_view_space_from_depth(co1.zw, depth2); /* s View coordinate */

1239    vec3 omega_s2 = s2 - x;

1240    len.y = length(omega_s2);

1241    s_h.y = omega_s2.z / len.y;

1242  

1243    vec3 s3 = get_view_space_from_depth(co2.xy, depth3); /* s View coordinate */

1244    vec3 omega_s3 = s3 - x;

1245    len.z = length(omega_s3);

1246    s_h.z = omega_s3.z / len.z;

1247  

1248    vec3 s4 = get_view_space_from_depth(co2.zw, depth4); /* s View coordinate */

1249    vec3 omega_s4 = s4 - x;

1250    len.w = length(omega_s4);

1251    s_h.w = omega_s4.z / len.w;

1252  

1253    /* Blend weight after half the aoDistance to fade artifacts */

1254    vec4 blend = saturate((1.0 - len / aoDistance) * 2.0);

1255  

1256    h = mix(h, max(h, s_h.x), blend.x);

1257    h = mix(h, max(h, s_h.y), blend.y);

1258    h = mix(h, max(h, s_h.z), blend.z);

1259    h = mix(h, max(h, s_h.w), blend.w);

1260  }

1261  

1262  vec2 search_horizon_sweep(vec2 t_phi, vec3 pos, vec2 uvs, float jitter, vec2 max_dir)

1263  {

1264    max_dir *= max_v2(abs(t_phi));

1265  

1266    /* Convert to pixel space. */

1267    t_phi /= vec2(textureSize(maxzBuffer, 0));

1268  

1269    /* Avoid division by 0 */

1270    t_phi += vec2(1e-5);

1271  

1272    jitter *= 0.25;

1273  

1274    /* Compute end points */

1275    vec2 corner1 = min(vec2(1.0) - uvs, max_dir);  /* Top right */

1276    vec2 corner2 = max(vec2(0.0) - uvs, -max_dir); /* Bottom left */

1277    vec2 iter1 = corner1 / t_phi;

1278    vec2 iter2 = corner2 / t_phi;

1279  

1280    vec2 min_iter = max(-iter1, -iter2);

1281    vec2 max_iter = max(iter1, iter2);

1282  

1283    vec2 times = vec2(-min_v2(min_iter), min_v2(max_iter));

1284  

1285    vec2 h = vec2(-1.0); /* init at cos(pi) */

1286  

1287    /* This is freaking sexy optimized. */

1288    for (float i = 0.0, ofs = 4.0, time = -1.0; i < MAX_SEARCH_ITER && time > times.x;

1289         i++, time -= ofs, ofs = min(exp2(MAX_LOD) * 4.0, ofs + ofs * aoQuality)) {

1290      vec4 t = max(times.xxxx, vec4(time) - (vec4(0.25, 0.5, 0.75, 1.0) - jitter) * ofs);

1291      vec4 cos1 = uvs.xyxy + t_phi.xyxy * t.xxyy;

1292      vec4 cos2 = uvs.xyxy + t_phi.xyxy * t.zzww;

1293      float lod = min(MAX_LOD, max(i - jitter * 4.0, 0.0) * aoQuality);

1294      get_max_horizon_grouped(cos1, cos2, pos, lod, h.y);

1295    }

1296  

1297    for (float i = 0.0, ofs = 4.0, time = 1.0; i < MAX_SEARCH_ITER && time < times.y;

1298         i++, time += ofs, ofs = min(exp2(MAX_LOD) * 4.0, ofs + ofs * aoQuality)) {

1299      vec4 t = min(times.yyyy, vec4(time) + (vec4(0.25, 0.5, 0.75, 1.0) - jitter) * ofs);

1300      vec4 cos1 = uvs.xyxy + t_phi.xyxy * t.xxyy;

1301      vec4 cos2 = uvs.xyxy + t_phi.xyxy * t.zzww;

1302      float lod = min(MAX_LOD, max(i - jitter * 4.0, 0.0) * aoQuality);

1303      get_max_horizon_grouped(cos1, cos2, pos, lod, h.x);

1304    }

1305  

1306    return h;

1307  }

1308  

1309  void integrate_slice(

1310      vec3 normal, vec2 t_phi, vec2 horizons, inout float visibility, inout vec3 bent_normal)

1311  {

1312    /* Projecting Normal to Plane P defined by t_phi and omega_o */

1313    vec3 np = vec3(t_phi.y, -t_phi.x, 0.0); /* Normal vector to Integration plane */

1314    vec3 t = vec3(-t_phi, 0.0);

1315    vec3 n_proj = normal - np * dot(np, normal);

1316    float n_proj_len = max(1e-16, length(n_proj));

1317  

1318    float cos_n = clamp(n_proj.z / n_proj_len, -1.0, 1.0);

1319    float n = sign(dot(n_proj, t)) * fast_acos(cos_n); /* Angle between view vec and normal */

1320  

1321    /* (Slide 54) */

1322    vec2 h = fast_acos(horizons);

1323    h.x = -h.x;

1324  

1325    /* Clamping thetas (slide 58) */

1326    h.x = n + max(h.x - n, -M_PI_2);

1327    h.y = n + min(h.y - n, M_PI_2);

1328  

1329    /* Solving inner integral */

1330    vec2 h_2 = 2.0 * h;

1331    vec2 vd = -cos(h_2 - n) + cos_n + h_2 * sin(n);

1332    float vis = (vd.x + vd.y) * 0.25 * n_proj_len;

1333  

1334    visibility += vis;

1335  

1336    /* O. Klehm, T. Ritschel, E. Eisemann, H.-P. Seidel

1337     * Bent Normals and Cones in Screen-space

1338     * Sec. 3.1 : Bent normals */

1339    float b_angle = (h.x + h.y) * 0.5;

1340    bent_normal += vec3(sin(b_angle) * -t_phi, cos(b_angle)) * vis;

1341  }

1342  

1343  void gtao_deferred(

1344      vec3 normal, vec4 noise, float frag_depth, out float visibility, out vec3 bent_normal)

1345  {

1346    /* Fetch early, hide latency! */

1347    vec4 horizons = texelFetch(horizonBuffer, ivec2(gl_FragCoord.xy), 0);

1348  

1349    vec4 dirs;

1350    dirs.xy = get_ao_dir(noise.x * 0.5);

1351    dirs.zw = get_ao_dir(noise.x * 0.5 + 0.5);

1352  

1353    bent_normal = vec3(0.0);

1354    visibility = 0.0;

1355  

1356    horizons = unpack_horizons(horizons);

1357  

1358    integrate_slice(normal, dirs.xy, horizons.xy, visibility, bent_normal);

1359    integrate_slice(normal, dirs.zw, horizons.zw, visibility, bent_normal);

1360  

1361    bent_normal = normalize(bent_normal / visibility);

1362  

1363    visibility *= 0.5; /* We integrated 2 slices. */

1364  }

1365  

1366  void gtao(vec3 normal, vec3 position, vec4 noise, out float visibility, out vec3 bent_normal)

1367  {

1368    vec2 uvs = get_uvs_from_view(position);

1369    vec2 max_dir = get_max_dir(position.z);

1370    vec2 dir = get_ao_dir(noise.x);

1371  

1372    bent_normal = vec3(0.0);

1373    visibility = 0.0;

1374  

1375    /* Only trace in 2 directions. May lead to a darker result but since it's mostly for

1376     * alpha blended objects that will have overdraw, we limit the performance impact. */

1377    vec2 horizons = search_horizon_sweep(dir, position, uvs, noise.y, max_dir);

1378    integrate_slice(normal, dir, horizons, visibility, bent_normal);

1379  

1380    bent_normal = normalize(bent_normal / visibility);

1381  }

1382  

1383  /* Multibounce approximation base on surface albedo.

1384   * Page 78 in the .pdf version. */

1385  float gtao_multibounce(float visibility, vec3 albedo)

1386  {

1387    if (aoBounceFac == 0.0)

1388      return visibility;

1389  

1390    /* Median luminance. Because Colored multibounce looks bad. */

1391    float lum = dot(albedo, vec3(0.3333));

1392  

1393    float a = 2.0404 * lum - 0.3324;

1394    float b = -4.7951 * lum + 0.6417;

1395    float c = 2.7552 * lum + 0.6903;

1396  

1397    float x = visibility;

1398    return max(x, ((x * a + b) * x + c) * x);

1399  }

1400  

1401  /* Use the right occlusion  */

1402  float occlusion_compute(vec3 N, vec3 vpos, float user_occlusion, vec4 rand, out vec3 bent_normal)

1403  {

1404  #ifndef USE_REFRACTION

1405    if ((int(aoSettings) & USE_AO) != 0) {

1406      float visibility;

1407      vec3 vnor = mat3(ViewMatrix) * N;

1408  

1409  #  ifdef ENABLE_DEFERED_AO

1410      gtao_deferred(vnor, rand, gl_FragCoord.z, visibility, bent_normal);

1411  #  else

1412      gtao(vnor, vpos, rand, visibility, bent_normal);

1413  #  endif

1414  

1415      /* Prevent some problems down the road. */

1416      visibility = max(1e-3, visibility);

1417  

1418      if ((int(aoSettings) & USE_BENT_NORMAL) != 0) {

1419        /* The bent normal will show the facet look of the mesh. Try to minimize this. */

1420        float mix_fac = visibility * visibility * visibility;

1421        bent_normal = normalize(mix(bent_normal, vnor, mix_fac));

1422  

1423        bent_normal = transform_direction(ViewMatrixInverse, bent_normal);

1424      }

1425      else {

1426        bent_normal = N;

1427      }

1428  

1429      /* Scale by user factor */

1430      visibility = pow(visibility, aoFactor);

1431  

1432      return min(visibility, user_occlusion);

1433    }

1434  #endif

1435  

1436    bent_normal = N;

1437    return user_occlusion;

1438  }

1439  #define MAX_STEP 256

1440  

1441  float sample_depth(vec2 uv, int index, float lod)

1442  {

1443  #ifdef PLANAR_PROBE_RAYTRACE

1444    if (index > -1) {

1445      return textureLod(planarDepth, vec3(uv, index), 0.0).r;

1446    }

1447    else {

1448  #endif

1449      /* Correct UVs for mipmaping mis-alignment */

1450      uv *= mipRatio[int(lod) + hizMipOffset];

1451      return textureLod(maxzBuffer, uv, lod).r;

1452  #ifdef PLANAR_PROBE_RAYTRACE

1453    }

1454  #endif

1455  }

1456  

1457  vec4 sample_depth_grouped(vec4 uv1, vec4 uv2, int index, float lod)

1458  {

1459    vec4 depths;

1460  #ifdef PLANAR_PROBE_RAYTRACE

1461    if (index > -1) {

1462      depths.x = textureLod(planarDepth, vec3(uv1.xy, index), 0.0).r;

1463      depths.y = textureLod(planarDepth, vec3(uv1.zw, index), 0.0).r;

1464      depths.z = textureLod(planarDepth, vec3(uv2.xy, index), 0.0).r;

1465      depths.w = textureLod(planarDepth, vec3(uv2.zw, index), 0.0).r;

1466    }

1467    else {

1468  #endif

1469      depths.x = textureLod(maxzBuffer, uv1.xy, lod).r;

1470      depths.y = textureLod(maxzBuffer, uv1.zw, lod).r;

1471      depths.z = textureLod(maxzBuffer, uv2.xy, lod).r;

1472      depths.w = textureLod(maxzBuffer, uv2.zw, lod).r;

1473  #ifdef PLANAR_PROBE_RAYTRACE

1474    }

1475  #endif

1476    return depths;

1477  }

1478  

1479  float refine_isect(float prev_delta, float curr_delta)

1480  {

1481    /**

1482     * Simplification of 2D intersection :

1483     * r0 = (0.0, prev_ss_ray.z);

1484     * r1 = (1.0, curr_ss_ray.z);

1485     * d0 = (0.0, prev_hit_depth_sample);

1486     * d1 = (1.0, curr_hit_depth_sample);

1487     * vec2 r = r1 - r0;

1488     * vec2 d = d1 - d0;

1489     * vec2 isect = ((d * cross(r1, r0)) - (r * cross(d1, d0))) / cross(r,d);

1490     *

1491     * We only want isect.x to know how much stride we need. So it simplifies :

1492     *

1493     * isect_x = (cross(r1, r0) - cross(d1, d0)) / cross(r,d);

1494     * isect_x = (prev_ss_ray.z - prev_hit_depth_sample.z) / cross(r,d);

1495     */

1496    return saturate(prev_delta / (prev_delta - curr_delta));

1497  }

1498  

1499  void prepare_raycast(vec3 ray_origin,

1500                       vec3 ray_dir,

1501                       float thickness,

1502                       int index,

1503                       out vec4 ss_step,

1504                       out vec4 ss_ray,

1505                       out float max_time)

1506  {

1507    /* Negate the ray direction if it goes towards the camera.

1508     * This way we don't need to care if the projected point

1509     * is behind the near plane. */

1510    float z_sign = -sign(ray_dir.z);

1511    vec3 ray_end = ray_origin + z_sign * ray_dir;

1512  

1513    /* Project into screen space. */

1514    vec4 ss_start, ss_end;

1515    ss_start.xyz = project_point(ProjectionMatrix, ray_origin);

1516    ss_end.xyz = project_point(ProjectionMatrix, ray_end);

1517  

1518    /* We interpolate the ray Z + thickness values to check if depth is within threshold. */

1519    ray_origin.z -= thickness;

1520    ray_end.z -= thickness;

1521    ss_start.w = project_point(ProjectionMatrix, ray_origin).z;

1522    ss_end.w = project_point(ProjectionMatrix, ray_end).z;

1523  

1524    /* XXX This is a hack a better method is welcome ! */

1525    /* We take the delta between the offseted depth and the depth and substract it from the ray depth.

1526     * This will change the world space thickness appearance a bit but we can have negative

1527     * values without worries. We cannot do this in viewspace because of the perspective division. */

1528    ss_start.w = 2.0 * ss_start.z - ss_start.w;

1529    ss_end.w = 2.0 * ss_end.z - ss_end.w;

1530  

1531    ss_step = ss_end - ss_start;

1532    max_time = length(ss_step.xyz);

1533    ss_step = z_sign * ss_step / length(ss_step.xyz);

1534  

1535    /* If the line is degenerate, make it cover at least one pixel

1536     * to not have to handle zero-pixel extent as a special case later */

1537    ss_step.xy += vec2((dot(ss_step.xy, ss_step.xy) < 0.00001) ? 0.001 : 0.0);

1538  

1539    /* Make ss_step cover one pixel. */

1540    ss_step /= max(abs(ss_step.x), abs(ss_step.y));

1541    ss_step *= (abs(ss_step.x) > abs(ss_step.y)) ? ssrPixelSize.x : ssrPixelSize.y;

1542  

1543    /* Clip to segment's end. */

1544    max_time /= length(ss_step.xyz);

1545  

1546    /* Clipping to frustum sides. */

1547    max_time = min(max_time, line_unit_box_intersect_dist(ss_start.xyz, ss_step.xyz));

1548  

1549    /* Convert to texture coords. Z component included

1550     * since this is how it's stored in the depth buffer.

1551     * 4th component how far we are on the ray */

1552  #ifdef PLANAR_PROBE_RAYTRACE

1553    /* Planar Reflections have X mirrored. */

1554    vec2 m = (index > -1) ? vec2(-0.5, 0.5) : vec2(0.5);

1555  #else

1556    const vec2 m = vec2(0.5);

1557  #endif

1558    ss_ray = ss_start * m.xyyy + 0.5;

1559    ss_step *= m.xyyy;

1560  

1561    ss_ray.xy += m * ssrPixelSize * 2.0; /* take the center of the texel. * 2 because halfres. */

1562  }

1563  

1564  /* See times_and_deltas. */

1565  #define curr_time times_and_deltas.x

1566  #define prev_time times_and_deltas.y

1567  #define curr_delta times_and_deltas.z

1568  #define prev_delta times_and_deltas.w

1569  

1570  // #define GROUPED_FETCHES /* is still slower, need to see where is the bottleneck. */

1571  /* Return the hit position, and negate the z component (making it positive) if not hit occurred. */

1572  /* __ray_dir__ is the ray direction premultiplied by it's maximum length */

1573  vec3 raycast(int index,

1574               vec3 ray_origin,

1575               vec3 ray_dir,

1576               float thickness,

1577               float ray_jitter,

1578               float trace_quality,

1579               float roughness,

1580               const bool discard_backface)

1581  {

1582    vec4 ss_step, ss_start;

1583    float max_time;

1584    prepare_raycast(ray_origin, ray_dir, thickness, index, ss_step, ss_start, max_time);

1585  

1586    float max_trace_time = max(0.01, max_time - 0.01);

1587  

1588  #ifdef GROUPED_FETCHES

1589    ray_jitter *= 0.25;

1590  #endif

1591  

1592    /* x : current_time, y: previous_time, z: current_delta, w: previous_delta */

1593    vec4 times_and_deltas = vec4(0.0);

1594  

1595    float ray_time = 0.0;

1596    float depth_sample = sample_depth(ss_start.xy, index, 0.0);

1597    curr_delta = depth_sample - ss_start.z;

1598  

1599    float lod_fac = saturate(fast_sqrt(roughness) * 2.0 - 0.4);

1600    bool hit = false;

1601    float iter;

1602    for (iter = 1.0; !hit && (ray_time < max_time) && (iter < MAX_STEP); iter++) {

1603      /* Minimum stride of 2 because we are using half res minmax zbuffer. */

1604      float stride = max(1.0, iter * trace_quality) * 2.0;

1605      float lod = log2(stride * 0.5 * trace_quality) * lod_fac;

1606      ray_time += stride;

1607  

1608      /* Save previous values. */

1609      times_and_deltas.xyzw = times_and_deltas.yxwz;

1610  

1611  #ifdef GROUPED_FETCHES

1612      stride *= 4.0;

1613      vec4 jit_stride = mix(vec4(2.0), vec4(stride), vec4(0.0, 0.25, 0.5, 0.75) + ray_jitter);

1614  

1615      vec4 times = min(vec4(ray_time) + jit_stride, vec4(max_trace_time));

1616  

1617      vec4 uv1 = ss_start.xyxy + ss_step.xyxy * times.xxyy;

1618      vec4 uv2 = ss_start.xyxy + ss_step.xyxy * times.zzww;

1619  

1620      vec4 depth_samples = sample_depth_grouped(uv1, uv2, index, lod);

1621  

1622      vec4 ray_z = ss_start.zzzz + ss_step.zzzz * times.xyzw;

1623      vec4 ray_w = ss_start.wwww + ss_step.wwww * vec4(prev_time, times.xyz);

1624  

1625      vec4 deltas = depth_samples - ray_z;

1626      /* Same as component wise (curr_delta <= 0.0) && (prev_w <= depth_sample). */

1627      bvec4 test = equal(step(deltas, vec4(0.0)) * step(ray_w, depth_samples), vec4(1.0));

1628      hit = any(test);

1629  

1630      if (hit) {

1631        vec2 m = vec2(1.0, 0.0); /* Mask */

1632  

1633        vec4 ret_times_and_deltas = times.wzzz * m.xxyy + deltas.wwwz * m.yyxx;

1634        ret_times_and_deltas = (test.z) ? times.zyyy * m.xxyy + deltas.zzzy * m.yyxx :

1635                                          ret_times_and_deltas;

1636        ret_times_and_deltas = (test.y) ? times.yxxx * m.xxyy + deltas.yyyx * m.yyxx :

1637                                          ret_times_and_deltas;

1638        times_and_deltas = (test.x) ? times.xxxx * m.xyyy + deltas.xxxx * m.yyxy +

1639                                          times_and_deltas.yyww * m.yxyx :

1640                                      ret_times_and_deltas;

1641  

1642        depth_sample = depth_samples.w;

1643        depth_sample = (test.z) ? depth_samples.z : depth_sample;

1644        depth_sample = (test.y) ? depth_samples.y : depth_sample;

1645        depth_sample = (test.x) ? depth_samples.x : depth_sample;

1646      }

1647      else {

1648        curr_time = times.w;

1649        curr_delta = deltas.w;

1650      }

1651  #else

1652      float jit_stride = mix(2.0, stride, ray_jitter);

1653  

1654      curr_time = min(ray_time + jit_stride, max_trace_time);

1655      vec4 ss_ray = ss_start + ss_step * curr_time;

1656  

1657      depth_sample = sample_depth(ss_ray.xy, index, lod);

1658  

1659      float prev_w = ss_start.w + ss_step.w * prev_time;

1660      curr_delta = depth_sample - ss_ray.z;

1661      hit = (curr_delta <= 0.0) && (prev_w <= depth_sample);

1662  #endif

1663    }

1664  

1665    if (discard_backface) {

1666      /* Discard backface hits */

1667      hit = hit && (prev_delta > 0.0);

1668    }

1669  

1670    /* Reject hit if background. */

1671    hit = hit && (depth_sample != 1.0);

1672  

1673    curr_time = (hit) ? mix(prev_time, curr_time, refine_isect(prev_delta, curr_delta)) : curr_time;

1674    ray_time = (hit) ? curr_time : ray_time;

1675  

1676    /* Clip to frustum. */

1677    ray_time = max(0.001, min(ray_time, max_time - 1.5));

1678  

1679    vec4 ss_ray = ss_start + ss_step * ray_time;

1680  

1681    /* Tag Z if ray failed. */

1682    ss_ray.z *= (hit) ? 1.0 : -1.0;

1683    return ss_ray.xyz;

1684  }

1685  

1686  float screen_border_mask(vec2 hit_co)

1687  {

1688    const float margin = 0.003;

1689    float atten = ssrBorderFac + margin; /* Screen percentage */

1690    hit_co = smoothstep(margin, atten, hit_co) * (1 - smoothstep(1.0 - atten, 1.0 - margin, hit_co));

1691  

1692    float screenfade = hit_co.x * hit_co.y;

1693  

1694    return screenfade;

1695  }

1696  /* ------------ Refraction ------------ */

1697  

1698  #define BTDF_BIAS 0.85

1699  

1700  vec4 screen_space_refraction(

1701      vec3 viewPosition, vec3 N, vec3 V, float ior, float roughnessSquared, vec4 rand)

1702  {

1703    float a2 = max(5e-6, roughnessSquared * roughnessSquared);

1704  

1705    /* Importance sampling bias */

1706    rand.x = mix(rand.x, 0.0, BTDF_BIAS);

1707  

1708    vec3 T, B;

1709    float NH;

1710    make_orthonormal_basis(N, T, B);

1711    vec3 H = sample_ggx(rand.xzw, a2, N, T, B, NH); /* Microfacet normal */

1712    float pdf = pdf_ggx_reflect(NH, a2);

1713  

1714    /* If ray is bad (i.e. going below the plane) regenerate. */

1715    if (F_eta(ior, dot(H, V)) < 1.0) {

1716      H = sample_ggx(rand.xzw * vec3(1.0, -1.0, -1.0), a2, N, T, B, NH); /* Microfacet normal */

1717      pdf = pdf_ggx_reflect(NH, a2);

1718    }

1719  

1720    vec3 vV = viewCameraVec;

1721    float eta = 1.0 / ior;

1722    if (dot(H, V) < 0.0) {

1723      H = -H;

1724      eta = ior;

1725    }

1726  

1727    vec3 R = refract(-V, H, 1.0 / ior);

1728  

1729    R = transform_direction(ViewMatrix, R);

1730  

1731    vec3 hit_pos = raycast(

1732        -1, viewPosition, R * 1e16, ssrThickness, rand.y, ssrQuality, roughnessSquared, false);

1733  

1734    if ((hit_pos.z > 0.0) && (F_eta(ior, dot(H, V)) < 1.0)) {

1735      hit_pos = get_view_space_from_depth(hit_pos.xy, hit_pos.z);

1736      float hit_dist = distance(hit_pos, viewPosition);

1737  

1738      float cone_cos = cone_cosine(roughnessSquared);

1739      float cone_tan = sqrt(1 - cone_cos * cone_cos) / cone_cos;

1740  

1741      /* Empirical fit for refraction. */

1742      /* TODO find a better fit or precompute inside the LUT. */

1743      cone_tan *= 0.5 * fast_sqrt(f0_from_ior((ior < 1.0) ? 1.0 / ior : ior));

1744  

1745      float cone_footprint = hit_dist * cone_tan;

1746  

1747      /* find the offset in screen space by multiplying a point

1748       * in camera space at the depth of the point by the projection matrix. */

1749      float homcoord = ProjectionMatrix[2][3] * hit_pos.z + ProjectionMatrix[3][3];

1750      /* UV space footprint */

1751      cone_footprint = BTDF_BIAS * 0.5 * max(ProjectionMatrix[0][0], ProjectionMatrix[1][1]) *

1752                       cone_footprint / homcoord;

1753  

1754      vec2 hit_uvs = project_point(ProjectionMatrix, hit_pos).xy * 0.5 + 0.5;

1755  

1756      /* Texel footprint */

1757      vec2 texture_size = vec2(textureSize(colorBuffer, 0).xy);

1758      float mip = clamp(log2(cone_footprint * max(texture_size.x, texture_size.y)), 0.0, 9.0);

1759  

1760      /* Correct UVs for mipmaping mis-alignment */

1761      hit_uvs *= mip_ratio_interp(mip);

1762  

1763      vec3 spec = textureLod(colorBuffer, hit_uvs, mip).xyz;

1764      float mask = screen_border_mask(hit_uvs);

1765  

1766      return vec4(spec, mask);

1767    }

1768  

1769    return vec4(0.0);

1770  }

1771  

1772  vec2 mapping_octahedron(vec3 cubevec, vec2 texel_size)

1773  {

1774    /* projection onto octahedron */

1775    cubevec /= dot(vec3(1.0), abs(cubevec));

1776  

1777    /* out-folding of the downward faces */

1778    if (cubevec.z < 0.0) {

1779      vec2 cubevec_sign = step(0.0, cubevec.xy) * 2.0 - 1.0;

1780      cubevec.xy = (1.0 - abs(cubevec.yx)) * cubevec_sign;

1781    }

1782  

1783    /* mapping to [0;1]ˆ2 texture space */

1784    vec2 uvs = cubevec.xy * (0.5) + 0.5;

1785  

1786    /* edge filtering fix */

1787    uvs = (1.0 - 2.0 * texel_size) * uvs + texel_size;

1788  

1789    return uvs;

1790  }

1791  

1792  vec4 textureLod_octahedron(sampler2DArray tex, vec4 cubevec, float lod, float lod_max)

1793  {

1794    vec2 texelSize = 1.0 / vec2(textureSize(tex, int(lod_max)));

1795  

1796    vec2 uvs = mapping_octahedron(cubevec.xyz, texelSize);

1797  

1798    return textureLod(tex, vec3(uvs, cubevec.w), lod);

1799  }

1800  

1801  vec4 texture_octahedron(sampler2DArray tex, vec4 cubevec)

1802  {

1803    vec2 texelSize = 1.0 / vec2(textureSize(tex, 0));

1804  

1805    vec2 uvs = mapping_octahedron(cubevec.xyz, texelSize);

1806  

1807    return texture(tex, vec3(uvs, cubevec.w));

1808  }

1809  

1810  uniform sampler2DArray irradianceGrid;

1811  

1812  #define IRRADIANCE_LIB

1813  

1814  #ifdef IRRADIANCE_CUBEMAP

1815  struct IrradianceData {

1816    vec3 color;

1817  };

1818  #elif defined(IRRADIANCE_SH_L2)

1819  struct IrradianceData {

1820    vec3 shcoefs[9];

1821  };

1822  #else /* defined(IRRADIANCE_HL2) */

1823  struct IrradianceData {

1824    vec3 cubesides[3];

1825  };

1826  #endif

1827  

1828  IrradianceData load_irradiance_cell(int cell, vec3 N)

1829  {

1830    /* Keep in sync with diffuse_filter_probe() */

1831  

1832  #if defined(IRRADIANCE_CUBEMAP)

1833  

1834  #  define AMBIANT_CUBESIZE 8

1835    ivec2 cell_co = ivec2(AMBIANT_CUBESIZE);

1836    int cell_per_row = textureSize(irradianceGrid, 0).x / cell_co.x;

1837    cell_co.x *= cell % cell_per_row;

1838    cell_co.y *= cell / cell_per_row;

1839  

1840    vec2 texelSize = 1.0 / vec2(AMBIANT_CUBESIZE);

1841  

1842    vec2 uvs = mapping_octahedron(N, texelSize);

1843    uvs *= vec2(AMBIANT_CUBESIZE) / vec2(textureSize(irradianceGrid, 0));

1844    uvs += vec2(cell_co) / vec2(textureSize(irradianceGrid, 0));

1845  

1846    IrradianceData ir;

1847    ir.color = texture(irradianceGrid, vec3(uvs, 0.0)).rgb;

1848  

1849  #elif defined(IRRADIANCE_SH_L2)

1850  

1851    ivec2 cell_co = ivec2(3, 3);

1852    int cell_per_row = textureSize(irradianceGrid, 0).x / cell_co.x;

1853    cell_co.x *= cell % cell_per_row;

1854    cell_co.y *= cell / cell_per_row;

1855  

1856    ivec3 ofs = ivec3(0, 1, 2);

1857  

1858    IrradianceData ir;

1859    ir.shcoefs[0] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.xx, 0), 0).rgb;

1860    ir.shcoefs[1] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.yx, 0), 0).rgb;

1861    ir.shcoefs[2] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.zx, 0), 0).rgb;

1862    ir.shcoefs[3] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.xy, 0), 0).rgb;

1863    ir.shcoefs[4] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.yy, 0), 0).rgb;

1864    ir.shcoefs[5] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.zy, 0), 0).rgb;

1865    ir.shcoefs[6] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.xz, 0), 0).rgb;

1866    ir.shcoefs[7] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.yz, 0), 0).rgb;

1867    ir.shcoefs[8] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.zz, 0), 0).rgb;

1868  

1869  #else /* defined(IRRADIANCE_HL2) */

1870  

1871    ivec2 cell_co = ivec2(3, 2);

1872    int cell_per_row = textureSize(irradianceGrid, 0).x / cell_co.x;

1873    cell_co.x *= cell % cell_per_row;

1874    cell_co.y *= cell / cell_per_row;

1875  

1876    ivec3 is_negative = ivec3(step(0.0, -N));

1877  

1878    IrradianceData ir;

1879    ir.cubesides[0] = irradiance_decode(

1880        texelFetch(irradianceGrid, ivec3(cell_co + ivec2(0, is_negative.x), 0), 0));

1881    ir.cubesides[1] = irradiance_decode(

1882        texelFetch(irradianceGrid, ivec3(cell_co + ivec2(1, is_negative.y), 0), 0));

1883    ir.cubesides[2] = irradiance_decode(

1884        texelFetch(irradianceGrid, ivec3(cell_co + ivec2(2, is_negative.z), 0), 0));

1885  

1886  #endif

1887  

1888    return ir;

1889  }

1890  

1891  float load_visibility_cell(int cell, vec3 L, float dist, float bias, float bleed_bias, float range)

1892  {

1893    /* Keep in sync with diffuse_filter_probe() */

1894    ivec2 cell_co = ivec2(prbIrradianceVisSize);

1895    ivec2 cell_per_row_col = textureSize(irradianceGrid, 0).xy / prbIrradianceVisSize;

1896    cell_co.x *= (cell % cell_per_row_col.x);

1897    cell_co.y *= (cell / cell_per_row_col.x) % cell_per_row_col.y;

1898    float layer = 1.0 + float((cell / cell_per_row_col.x) / cell_per_row_col.y);

1899  

1900    vec2 texel_size = 1.0 / vec2(textureSize(irradianceGrid, 0).xy);

1901    vec2 co = vec2(cell_co) * texel_size;

1902  

1903    vec2 uv = mapping_octahedron(-L, vec2(1.0 / float(prbIrradianceVisSize)));

1904    uv *= vec2(prbIrradianceVisSize) * texel_size;

1905  

1906    vec4 data = texture(irradianceGrid, vec3(co + uv, layer));

1907  

1908    /* Decoding compressed data */

1909    vec2 moments = visibility_decode(data, range);

1910  

1911    /* Doing chebishev test */

1912    float variance = abs(moments.x * moments.x - moments.y);

1913    variance = max(variance, bias / 10.0);

1914  

1915    float d = dist - moments.x;

1916    float p_max = variance / (variance + d * d);

1917  

1918    /* Increase contrast in the weight by squaring it */

1919    p_max *= p_max;

1920  

1921    /* Now reduce light-bleeding by removing the [0, x] tail and linearly rescaling (x, 1] */

1922    p_max = clamp((p_max - bleed_bias) / (1.0 - bleed_bias), 0.0, 1.0);

1923  

1924    return (dist <= moments.x) ? 1.0 : p_max;

1925  }

1926  

1927  /* http://seblagarde.wordpress.com/2012/01/08/pi-or-not-to-pi-in-game-lighting-equation/ */

1928  vec3 spherical_harmonics_L1(vec3 N, vec3 shcoefs[4])

1929  {

1930    vec3 sh = vec3(0.0);

1931  

1932    sh += 0.282095 * shcoefs[0];

1933  

1934    sh += -0.488603 * N.z * shcoefs[1];

1935    sh += 0.488603 * N.y * shcoefs[2];

1936    sh += -0.488603 * N.x * shcoefs[3];

1937  

1938    return sh;

1939  }

1940  

1941  vec3 spherical_harmonics_L2(vec3 N, vec3 shcoefs[9])

1942  {

1943    vec3 sh = vec3(0.0);

1944  

1945    sh += 0.282095 * shcoefs[0];

1946  

1947    sh += -0.488603 * N.z * shcoefs[1];

1948    sh += 0.488603 * N.y * shcoefs[2];

1949    sh += -0.488603 * N.x * shcoefs[3];

1950  

1951    sh += 1.092548 * N.x * N.z * shcoefs[4];

1952    sh += -1.092548 * N.z * N.y * shcoefs[5];

1953    sh += 0.315392 * (3.0 * N.y * N.y - 1.0) * shcoefs[6];

1954    sh += -1.092548 * N.x * N.y * shcoefs[7];

1955    sh += 0.546274 * (N.x * N.x - N.z * N.z) * shcoefs[8];

1956  

1957    return sh;

1958  }

1959  

1960  vec3 hl2_basis(vec3 N, vec3 cubesides[3])

1961  {

1962    vec3 irradiance = vec3(0.0);

1963  

1964    vec3 n_squared = N * N;

1965  

1966    irradiance += n_squared.x * cubesides[0];

1967    irradiance += n_squared.y * cubesides[1];

1968    irradiance += n_squared.z * cubesides[2];

1969  

1970    return irradiance;

1971  }

1972  

1973  vec3 compute_irradiance(vec3 N, IrradianceData ird)

1974  {

1975  #if defined(IRRADIANCE_CUBEMAP)

1976    return ird.color;

1977  #elif defined(IRRADIANCE_SH_L2)

1978    return spherical_harmonics_L2(N, ird.shcoefs);

1979  #else /* defined(IRRADIANCE_HL2) */

1980    return hl2_basis(N, ird.cubesides);

1981  #endif

1982  }

1983  

1984  vec3 irradiance_from_cell_get(int cell, vec3 ir_dir)

1985  {

1986    IrradianceData ir_data = load_irradiance_cell(cell, ir_dir);

1987    return compute_irradiance(ir_dir, ir_data);

1988  }

1989  /* ----------- Uniforms --------- */

1990  

1991  uniform sampler2DArray probePlanars;

1992  uniform sampler2DArray probeCubes;

1993  

1994  /* ----------- Structures --------- */

1995  

1996  struct CubeData {

1997    vec4 position_type;

1998    vec4 attenuation_fac_type;

1999    mat4 influencemat;

2000    mat4 parallaxmat;

2001  };

2002  

2003  #define PROBE_PARALLAX_BOX 1.0

2004  #define PROBE_ATTENUATION_BOX 1.0

2005  

2006  #define p_position position_type.xyz

2007  #define p_parallax_type position_type.w

2008  #define p_atten_fac attenuation_fac_type.x

2009  #define p_atten_type attenuation_fac_type.y

2010  

2011  struct PlanarData {

2012    vec4 plane_equation;

2013    vec4 clip_vec_x_fade_scale;

2014    vec4 clip_vec_y_fade_bias;

2015    vec4 clip_edges;

2016    vec4 facing_scale_bias;

2017    mat4 reflectionmat; /* transform world space into reflection texture space */

2018    mat4 unused;

2019  };

2020  

2021  #define pl_plane_eq plane_equation

2022  #define pl_normal plane_equation.xyz

2023  #define pl_facing_scale facing_scale_bias.x

2024  #define pl_facing_bias facing_scale_bias.y

2025  #define pl_fade_scale clip_vec_x_fade_scale.w

2026  #define pl_fade_bias clip_vec_y_fade_bias.w

2027  #define pl_clip_pos_x clip_vec_x_fade_scale.xyz

2028  #define pl_clip_pos_y clip_vec_y_fade_bias.xyz

2029  #define pl_clip_edges clip_edges

2030  

2031  struct GridData {

2032    mat4 localmat;

2033    ivec4 resolution_offset;

2034    vec4 ws_corner_atten_scale;     /* world space corner position */

2035    vec4 ws_increment_x_atten_bias; /* world space vector between 2 opposite cells */

2036    vec4 ws_increment_y_lvl_bias;

2037    vec4 ws_increment_z;

2038    vec4 vis_bias_bleed_range;

2039  };

2040  

2041  #define g_corner ws_corner_atten_scale.xyz

2042  #define g_atten_scale ws_corner_atten_scale.w

2043  #define g_atten_bias ws_increment_x_atten_bias.w

2044  #define g_level_bias ws_increment_y_lvl_bias.w

2045  #define g_increment_x ws_increment_x_atten_bias.xyz

2046  #define g_increment_y ws_increment_y_lvl_bias.xyz

2047  #define g_increment_z ws_increment_z.xyz

2048  #define g_resolution resolution_offset.xyz

2049  #define g_offset resolution_offset.w

2050  #define g_vis_bias vis_bias_bleed_range.x

2051  #define g_vis_bleed vis_bias_bleed_range.y

2052  #define g_vis_range vis_bias_bleed_range.z

2053  

2054  #ifndef MAX_PROBE

2055  #  define MAX_PROBE 1

2056  #endif

2057  #ifndef MAX_GRID

2058  #  define MAX_GRID 1

2059  #endif

2060  #ifndef MAX_PLANAR

2061  #  define MAX_PLANAR 1

2062  #endif

2063  

2064  #ifndef UTIL_TEX

2065  #  define UTIL_TEX

2066  uniform sampler2DArray utilTex;

2067  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

2068  #endif /* UTIL_TEX */

2069  

2070  layout(std140) uniform probe_block

2071  {

2072    CubeData probes_data[MAX_PROBE];

2073  };

2074  

2075  layout(std140) uniform grid_block

2076  {

2077    GridData grids_data[MAX_GRID];

2078  };

2079  

2080  layout(std140) uniform planar_block

2081  {

2082    PlanarData planars_data[MAX_PLANAR];

2083  };

2084  

2085  /* ----------- Functions --------- */

2086  

2087  float probe_attenuation_cube(int pd_id, vec3 W)

2088  {

2089    vec3 localpos = transform_point(probes_data[pd_id].influencemat, W);

2090  

2091    float probe_atten_fac = probes_data[pd_id].p_atten_fac;

2092    float fac;

2093    if (probes_data[pd_id].p_atten_type == PROBE_ATTENUATION_BOX) {

2094      vec3 axes_fac = saturate(probe_atten_fac - probe_atten_fac * abs(localpos));

2095      fac = min_v3(axes_fac);

2096    }

2097    else {

2098      fac = saturate(probe_atten_fac - probe_atten_fac * length(localpos));

2099    }

2100  

2101    return fac;

2102  }

2103  

2104  float probe_attenuation_planar(PlanarData pd, vec3 W, vec3 N, float roughness)

2105  {

2106    /* Normal Facing */

2107    float fac = saturate(dot(pd.pl_normal, N) * pd.pl_facing_scale + pd.pl_facing_bias);

2108  

2109    /* Distance from plane */

2110    fac *= saturate(abs(dot(pd.pl_plane_eq, vec4(W, 1.0))) * pd.pl_fade_scale + pd.pl_fade_bias);

2111  

2112    /* Fancy fast clipping calculation */

2113    vec2 dist_to_clip;

2114    dist_to_clip.x = dot(pd.pl_clip_pos_x, W);

2115    dist_to_clip.y = dot(pd.pl_clip_pos_y, W);

2116    /* compare and add all tests */

2117    fac *= step(2.0, dot(step(pd.pl_clip_edges, dist_to_clip.xxyy), vec2(-1.0, 1.0).xyxy));

2118  

2119    /* Decrease influence for high roughness */

2120    fac *= saturate(1.0 - roughness * 10.0);

2121  

2122    return fac;

2123  }

2124  

2125  float probe_attenuation_grid(GridData gd, mat4 localmat, vec3 W, out vec3 localpos)

2126  {

2127    localpos = transform_point(localmat, W);

2128    vec3 pos_to_edge = max(vec3(0.0), abs(localpos) - 1.0);

2129    float fade = length(pos_to_edge);

2130    return saturate(-fade * gd.g_atten_scale + gd.g_atten_bias);

2131  }

2132  

2133  vec3 probe_evaluate_cube(int pd_id, vec3 W, vec3 R, float roughness)

2134  {

2135    /* Correct reflection ray using parallax volume intersection. */

2136    vec3 localpos = transform_point(probes_data[pd_id].parallaxmat, W);

2137    vec3 localray = transform_direction(probes_data[pd_id].parallaxmat, R);

2138  

2139    float dist;

2140    if (probes_data[pd_id].p_parallax_type == PROBE_PARALLAX_BOX) {

2141      dist = line_unit_box_intersect_dist(localpos, localray);

2142    }

2143    else {

2144      dist = line_unit_sphere_intersect_dist(localpos, localray);

2145    }

2146  

2147    /* Use Distance in WS directly to recover intersection */

2148    vec3 intersection = W + R * dist - probes_data[pd_id].p_position;

2149  

2150    /* From Frostbite PBR Course

2151     * Distance based roughness

2152     * http://www.frostbite.com/wp-content/uploads/2014/11/course_notes_moving_frostbite_to_pbr.pdf */

2153    float original_roughness = roughness;

2154    float linear_roughness = sqrt(roughness);

2155    float distance_roughness = saturate(dist * linear_roughness / length(intersection));

2156    linear_roughness = mix(distance_roughness, linear_roughness, linear_roughness);

2157    roughness = linear_roughness * linear_roughness;

2158  

2159    float fac = saturate(original_roughness * 2.0 - 1.0);

2160    R = mix(intersection, R, fac * fac);

2161  

2162    return textureLod_octahedron(

2163               probeCubes, vec4(R, float(pd_id)), roughness * prbLodCubeMax, prbLodCubeMax)

2164        .rgb;

2165  }

2166  

2167  vec3 probe_evaluate_world_spec(vec3 R, float roughness)

2168  {

2169    return textureLod_octahedron(probeCubes, vec4(R, 0.0), roughness * prbLodCubeMax, prbLodCubeMax)

2170        .rgb;

2171  }

2172  

2173  vec3 probe_evaluate_planar(

2174      float id, PlanarData pd, vec3 W, vec3 N, vec3 V, float roughness, inout float fade)

2175  {

2176    /* Find view vector / reflection plane intersection. */

2177    vec3 point_on_plane = line_plane_intersect(W, V, pd.pl_plane_eq);

2178  

2179    /* How far the pixel is from the plane. */

2180    float ref_depth = 1.0; /* TODO parameter */

2181  

2182    /* Compute distorded reflection vector based on the distance to the reflected object.

2183     * In other words find intersection between reflection vector and the sphere center

2184     * around point_on_plane. */

2185    vec3 proj_ref = reflect(reflect(-V, N) * ref_depth, pd.pl_normal);

2186  

2187    /* Final point in world space. */

2188    vec3 ref_pos = point_on_plane + proj_ref;

2189  

2190    /* Reproject to find texture coords. */

2191    vec4 refco = ViewProjectionMatrix * vec4(ref_pos, 1.0);

2192    refco.xy /= refco.w;

2193  

2194    /* TODO: If we support non-ssr planar reflection, we should blur them with gaussian

2195     * and chose the right mip depending on the cone footprint after projection */

2196    /* NOTE: X is inverted here to compensate inverted drawing.  */

2197    vec3 sample = textureLod(probePlanars, vec3(refco.xy * vec2(-0.5, 0.5) + 0.5, id), 0.0).rgb;

2198  

2199    return sample;

2200  }

2201  

2202  void fallback_cubemap(vec3 N,

2203                        vec3 V,

2204                        vec3 W,

2205                        vec3 viewPosition,

2206                        float roughness,

2207                        float roughnessSquared,

2208                        inout vec4 spec_accum)

2209  {

2210    /* Specular probes */

2211    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

2212  

2213  #ifdef SSR_AO

2214    vec4 rand = texelfetch_noise_tex(gl_FragCoord.xy);

2215    vec3 bent_normal;

2216    float final_ao = occlusion_compute(N, viewPosition, 1.0, rand, bent_normal);

2217    final_ao = specular_occlusion(dot(N, V), final_ao, roughness);

2218  #else

2219    const float final_ao = 1.0;

2220  #endif

2221  

2222    /* Starts at 1 because 0 is world probe */

2223    for (int i = 1; i < MAX_PROBE && i < prbNumRenderCube && spec_accum.a < 0.999; ++i) {

2224      float fade = probe_attenuation_cube(i, W);

2225  

2226      if (fade > 0.0) {

2227        vec3 spec = final_ao * probe_evaluate_cube(i, W, spec_dir, roughness);

2228        accumulate_light(spec, fade, spec_accum);

2229      }

2230    }

2231  

2232    /* World Specular */

2233    if (spec_accum.a < 0.999) {

2234      vec3 spec = final_ao * probe_evaluate_world_spec(spec_dir, roughness);

2235      accumulate_light(spec, 1.0, spec_accum);

2236    }

2237  }

2238  

2239  #ifdef IRRADIANCE_LIB

2240  vec3 probe_evaluate_grid(GridData gd, vec3 W, vec3 N, vec3 localpos)

2241  {

2242    localpos = localpos * 0.5 + 0.5;

2243    localpos = localpos * vec3(gd.g_resolution) - 0.5;

2244  

2245    vec3 localpos_floored = floor(localpos);

2246    vec3 trilinear_weight = fract(localpos);

2247  

2248    float weight_accum = 0.0;

2249    vec3 irradiance_accum = vec3(0.0);

2250  

2251    /* For each neighboor cells */

2252    for (int i = 0; i < 8; ++i) {

2253      ivec3 offset = ivec3(i, i >> 1, i >> 2) & ivec3(1);

2254      vec3 cell_cos = clamp(localpos_floored + vec3(offset), vec3(0.0), vec3(gd.g_resolution) - 1.0);

2255  

2256      /* Keep in sync with update_irradiance_probe */

2257      ivec3 icell_cos = ivec3(gd.g_level_bias * floor(cell_cos / gd.g_level_bias));

2258      int cell = gd.g_offset + icell_cos.z + icell_cos.y * gd.g_resolution.z +

2259                 icell_cos.x * gd.g_resolution.z * gd.g_resolution.y;

2260  

2261      vec3 color = irradiance_from_cell_get(cell, N);

2262  

2263      /* We need this because we render probes in world space (so we need light vector in WS).

2264       * And rendering them in local probe space is too much problem. */

2265      vec3 ws_cell_location = gd.g_corner +

2266                              (gd.g_increment_x * cell_cos.x + gd.g_increment_y * cell_cos.y +

2267                               gd.g_increment_z * cell_cos.z);

2268  

2269      vec3 ws_point_to_cell = ws_cell_location - W;

2270      float ws_dist_point_to_cell = length(ws_point_to_cell);

2271      vec3 ws_light = ws_point_to_cell / ws_dist_point_to_cell;

2272  

2273      /* Smooth backface test */

2274      float weight = saturate(dot(ws_light, N));

2275  

2276      /* Precomputed visibility */

2277      weight *= load_visibility_cell(

2278          cell, ws_light, ws_dist_point_to_cell, gd.g_vis_bias, gd.g_vis_bleed, gd.g_vis_range);

2279  

2280      /* Smoother transition */

2281      weight += prbIrradianceSmooth;

2282  

2283      /* Trilinear weights */

2284      vec3 trilinear = mix(1.0 - trilinear_weight, trilinear_weight, offset);

2285      weight *= trilinear.x * trilinear.y * trilinear.z;

2286  

2287      /* Avoid zero weight */

2288      weight = max(0.00001, weight);

2289  

2290      weight_accum += weight;

2291      irradiance_accum += color * weight;

2292    }

2293  

2294    return irradiance_accum / weight_accum;

2295  }

2296  

2297  vec3 probe_evaluate_world_diff(vec3 N)

2298  {

2299    return irradiance_from_cell_get(0, N);

2300  }

2301  

2302  #endif /* IRRADIANCE_LIB */

2303  /**

2304   * Adapted from :

2305   * Real-Time Polygonal-Light Shading with Linearly Transformed Cosines.

2306   * Eric Heitz, Jonathan Dupuy, Stephen Hill and David Neubelt.

2307   * ACM Transactions on Graphics (Proceedings of ACM SIGGRAPH 2016) 35(4), 2016.

2308   * Project page: https://eheitzresearch.wordpress.com/415-2/

2309   */

2310  

2311  #define USE_LTC

2312  

2313  #ifndef UTIL_TEX

2314  #  define UTIL_TEX

2315  uniform sampler2DArray utilTex;

2316  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

2317  #endif /* UTIL_TEX */

2318  

2319  /* Diffuse *clipped* sphere integral. */

2320  float diffuse_sphere_integral(float avg_dir_z, float form_factor)

2321  {

2322  #if 1

2323    /* use tabulated horizon-clipped sphere */

2324    vec2 uv = vec2(avg_dir_z * 0.5 + 0.5, form_factor);

2325    uv = uv * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

2326  

2327    return texture(utilTex, vec3(uv, 3.0)).x;

2328  #else

2329    /* Cheap approximation. Less smooth and have energy issues. */

2330    return max((form_factor * form_factor + avg_dir_z) / (form_factor + 1.0), 0.0);

2331  #endif

2332  }

2333  

2334  /**

2335   * An extended version of the implementation from

2336   * "How to solve a cubic equation, revisited"

2337   * http://momentsingraphics.de/?p=105

2338   */

2339  vec3 solve_cubic(vec4 coefs)

2340  {

2341    /* Normalize the polynomial */

2342    coefs.xyz /= coefs.w;

2343    /* Divide middle coefficients by three */

2344    coefs.yz /= 3.0;

2345  

2346    float A = coefs.w;

2347    float B = coefs.z;

2348    float C = coefs.y;

2349    float D = coefs.x;

2350  

2351    /* Compute the Hessian and the discriminant */

2352    vec3 delta = vec3(-coefs.z * coefs.z + coefs.y,

2353                      -coefs.y * coefs.z + coefs.x,

2354                      dot(vec2(coefs.z, -coefs.y), coefs.xy));

2355  

2356    /* Discriminant */

2357    float discr = dot(vec2(4.0 * delta.x, -delta.y), delta.zy);

2358  

2359    vec2 xlc, xsc;

2360  

2361    /* Algorithm A */

2362    {

2363      float A_a = 1.0;

2364      float C_a = delta.x;

2365      float D_a = -2.0 * B * delta.x + delta.y;

2366  

2367      /* Take the cubic root of a normalized complex number */

2368      float theta = atan(sqrt(discr), -D_a) / 3.0;

2369  

2370      float x_1a = 2.0 * sqrt(-C_a) * cos(theta);

2371      float x_3a = 2.0 * sqrt(-C_a) * cos(theta + (2.0 / 3.0) * M_PI);

2372  

2373      float xl;

2374      if ((x_1a + x_3a) > 2.0 * B) {

2375        xl = x_1a;

2376      }

2377      else {

2378        xl = x_3a;

2379      }

2380  

2381      xlc = vec2(xl - B, A);

2382    }

2383  

2384    /* Algorithm D */

2385    {

2386      float A_d = D;

2387      float C_d = delta.z;

2388      float D_d = -D * delta.y + 2.0 * C * delta.z;

2389  

2390      /* Take the cubic root of a normalized complex number */

2391      float theta = atan(D * sqrt(discr), -D_d) / 3.0;

2392  

2393      float x_1d = 2.0 * sqrt(-C_d) * cos(theta);

2394      float x_3d = 2.0 * sqrt(-C_d) * cos(theta + (2.0 / 3.0) * M_PI);

2395  

2396      float xs;

2397      if (x_1d + x_3d < 2.0 * C) {

2398        xs = x_1d;

2399      }

2400      else {

2401        xs = x_3d;

2402      }

2403  

2404      xsc = vec2(-D, xs + C);

2405    }

2406  

2407    float E = xlc.y * xsc.y;

2408    float F = -xlc.x * xsc.y - xlc.y * xsc.x;

2409    float G = xlc.x * xsc.x;

2410  

2411    vec2 xmc = vec2(C * F - B * G, -B * F + C * E);

2412  

2413    vec3 root = vec3(xsc.x / xsc.y, xmc.x / xmc.y, xlc.x / xlc.y);

2414  

2415    if (root.x < root.y && root.x < root.z) {

2416      root.xyz = root.yxz;

2417    }

2418    else if (root.z < root.x && root.z < root.y) {

2419      root.xyz = root.xzy;

2420    }

2421  

2422    return root;

2423  }

2424  

2425  /* from Real-Time Area Lighting: a Journey from Research to Production

2426   * Stephen Hill and Eric Heitz */

2427  vec3 edge_integral_vec(vec3 v1, vec3 v2)

2428  {

2429    float x = dot(v1, v2);

2430    float y = abs(x);

2431  

2432    float a = 0.8543985 + (0.4965155 + 0.0145206 * y) * y;

2433    float b = 3.4175940 + (4.1616724 + y) * y;

2434    float v = a / b;

2435  

2436    float theta_sintheta = (x > 0.0) ? v : 0.5 * inversesqrt(max(1.0 - x * x, 1e-7)) - v;

2437  

2438    return cross(v1, v2) * theta_sintheta;

2439  }

2440  

2441  mat3 ltc_matrix(vec4 lut)

2442  {

2443    /* load inverse matrix */

2444    mat3 Minv = mat3(vec3(lut.x, 0, lut.y), vec3(0, 1, 0), vec3(lut.z, 0, lut.w));

2445  

2446    return Minv;

2447  }

2448  

2449  void ltc_transform_quad(vec3 N, vec3 V, mat3 Minv, inout vec3 corners[4])

2450  {

2451    /* Avoid dot(N, V) == 1 in ortho mode, leading T1 normalize to fail. */

2452    V = normalize(V + 1e-8);

2453  

2454    /* construct orthonormal basis around N */

2455    vec3 T1, T2;

2456    T1 = normalize(V - N * dot(N, V));

2457    T2 = cross(N, T1);

2458  

2459    /* rotate area light in (T1, T2, R) basis */

2460    Minv = Minv * transpose(mat3(T1, T2, N));

2461  

2462    /* Apply LTC inverse matrix. */

2463    corners[0] = normalize(Minv * corners[0]);

2464    corners[1] = normalize(Minv * corners[1]);

2465    corners[2] = normalize(Minv * corners[2]);

2466    corners[3] = normalize(Minv * corners[3]);

2467  }

2468  

2469  /* If corners have already pass through ltc_transform_quad(), then N **MUST** be vec3(0.0, 0.0, 1.0),

2470   * corresponding to the Up axis of the shading basis. */

2471  float ltc_evaluate_quad(vec3 corners[4], vec3 N)

2472  {

2473    /* Approximation using a sphere of the same solid angle than the quad.

2474     * Finding the clipped sphere diffuse integral is easier than clipping the quad. */

2475    vec3 avg_dir;

2476    avg_dir = edge_integral_vec(corners[0], corners[1]);

2477    avg_dir += edge_integral_vec(corners[1], corners[2]);

2478    avg_dir += edge_integral_vec(corners[2], corners[3]);

2479    avg_dir += edge_integral_vec(corners[3], corners[0]);

2480  

2481    float form_factor = length(avg_dir);

2482    float avg_dir_z = dot(N, avg_dir / form_factor);

2483    return form_factor * diffuse_sphere_integral(avg_dir_z, form_factor);

2484  }

2485  

2486  /* If disk does not need to be transformed and is already front facing. */

2487  float ltc_evaluate_disk_simple(float disk_radius, float NL)

2488  {

2489    float r_sqr = disk_radius * disk_radius;

2490    float one_r_sqr = 1.0 + r_sqr;

2491    float form_factor = r_sqr * inversesqrt(one_r_sqr * one_r_sqr);

2492    return form_factor * diffuse_sphere_integral(NL, form_factor);

2493  }

2494  

2495  /* disk_points are WS vectors from the shading point to the disk "bounding domain" */

2496  float ltc_evaluate_disk(vec3 N, vec3 V, mat3 Minv, vec3 disk_points[3])

2497  {

2498    /* Avoid dot(N, V) == 1 in ortho mode, leading T1 normalize to fail. */

2499    V = normalize(V + 1e-8);

2500  

2501    /* construct orthonormal basis around N */

2502    vec3 T1, T2;

2503    T1 = normalize(V - N * dot(V, N));

2504    T2 = cross(N, T1);

2505  

2506    /* rotate area light in (T1, T2, R) basis */

2507    mat3 R = transpose(mat3(T1, T2, N));

2508  

2509    /* Intermediate step: init ellipse. */

2510    vec3 L_[3];

2511    L_[0] = mul(R, disk_points[0]);

2512    L_[1] = mul(R, disk_points[1]);

2513    L_[2] = mul(R, disk_points[2]);

2514  

2515    vec3 C = 0.5 * (L_[0] + L_[2]);

2516    vec3 V1 = 0.5 * (L_[1] - L_[2]);

2517    vec3 V2 = 0.5 * (L_[1] - L_[0]);

2518  

2519    /* Transform ellipse by Minv. */

2520    C = Minv * C;

2521    V1 = Minv * V1;

2522    V2 = Minv * V2;

2523  

2524    /* Compute eigenvectors of new ellipse. */

2525  

2526    float d11 = dot(V1, V1);

2527    float d22 = dot(V2, V2);

2528    float d12 = dot(V1, V2);

2529    float a, b;                     /* Eigenvalues */

2530    const float threshold = 0.0007; /* Can be adjusted. Fix artifacts. */

2531    if (abs(d12) / sqrt(d11 * d22) > threshold) {

2532      float tr = d11 + d22;

2533      float det = -d12 * d12 + d11 * d22;

2534  

2535      /* use sqrt matrix to solve for eigenvalues */

2536      det = sqrt(det);

2537      float u = 0.5 * sqrt(tr - 2.0 * det);

2538      float v = 0.5 * sqrt(tr + 2.0 * det);

2539      float e_max = (u + v);

2540      float e_min = (u - v);

2541      e_max *= e_max;

2542      e_min *= e_min;

2543  

2544      vec3 V1_, V2_;

2545      if (d11 > d22) {

2546        V1_ = d12 * V1 + (e_max - d11) * V2;

2547        V2_ = d12 * V1 + (e_min - d11) * V2;

2548      }

2549      else {

2550        V1_ = d12 * V2 + (e_max - d22) * V1;

2551        V2_ = d12 * V2 + (e_min - d22) * V1;

2552      }

2553  

2554      a = 1.0 / e_max;

2555      b = 1.0 / e_min;

2556      V1 = normalize(V1_);

2557      V2 = normalize(V2_);

2558    }

2559    else {

2560      a = 1.0 / d11;

2561      b = 1.0 / d22;

2562      V1 *= sqrt(a);

2563      V2 *= sqrt(b);

2564    }

2565  

2566    /* Now find front facing ellipse with same solid angle. */

2567  

2568    vec3 V3 = normalize(cross(V1, V2));

2569    if (dot(C, V3) < 0.0) {

2570      V3 *= -1.0;

2571    }

2572  

2573    float L = dot(V3, C);

2574    float x0 = dot(V1, C) / L;

2575    float y0 = dot(V2, C) / L;

2576  

2577    a *= L * L;

2578    b *= L * L;

2579  

2580    float c0 = a * b;

2581    float c1 = a * b * (1.0 + x0 * x0 + y0 * y0) - a - b;

2582    float c2 = 1.0 - a * (1.0 + x0 * x0) - b * (1.0 + y0 * y0);

2583    float c3 = 1.0;

2584  

2585    vec3 roots = solve_cubic(vec4(c0, c1, c2, c3));

2586    float e1 = roots.x;

2587    float e2 = roots.y;

2588    float e3 = roots.z;

2589  

2590    vec3 avg_dir = vec3(a * x0 / (a - e2), b * y0 / (b - e2), 1.0);

2591  

2592    mat3 rotate = mat3(V1, V2, V3);

2593  

2594    avg_dir = rotate * avg_dir;

2595    avg_dir = normalize(avg_dir);

2596  

2597    /* L1, L2 are the extends of the front facing ellipse. */

2598    float L1 = sqrt(-e2 / e3);

2599    float L2 = sqrt(-e2 / e1);

2600  

2601    /* Find the sphere and compute lighting. */

2602    float form_factor = max(0.0, L1 * L2 * inversesqrt((1.0 + L1 * L1) * (1.0 + L2 * L2)));

2603    return form_factor * diffuse_sphere_integral(avg_dir.z, form_factor);

2604  }

2605  

2606  uniform sampler2DArray shadowCubeTexture;

2607  uniform sampler2DArray shadowCascadeTexture;

2608  

2609  #define LAMPS_LIB

2610  

2611  layout(std140) uniform shadow_block

2612  {

2613    ShadowData shadows_data[MAX_SHADOW];

2614    ShadowCubeData shadows_cube_data[MAX_SHADOW_CUBE];

2615    ShadowCascadeData shadows_cascade_data[MAX_SHADOW_CASCADE];

2616  };

2617  

2618  layout(std140) uniform light_block

2619  {

2620    LightData lights_data[MAX_LIGHT];

2621  };

2622  

2623  /* type */

2624  #define POINT 0.0

2625  #define SUN 1.0

2626  #define SPOT 2.0

2627  #define AREA_RECT 4.0

2628  /* Used to define the area light shape, doesn't directly correspond to a Blender light type. */

2629  #define AREA_ELLIPSE 100.0

2630  

2631  #if defined(SHADOW_VSM)

2632  #  define ShadowSample vec2

2633  #  define sample_cube(vec, id) texture_octahedron(shadowCubeTexture, vec4(vec, id)).rg

2634  #  define sample_cascade(vec, id) texture(shadowCascadeTexture, vec3(vec, id)).rg

2635  #elif defined(SHADOW_ESM)

2636  #  define ShadowSample float

2637  #  define sample_cube(vec, id) texture_octahedron(shadowCubeTexture, vec4(vec, id)).r

2638  #  define sample_cascade(vec, id) texture(shadowCascadeTexture, vec3(vec, id)).r

2639  #else

2640  #  define ShadowSample float

2641  #  define sample_cube(vec, id) texture_octahedron(shadowCubeTexture, vec4(vec, id)).r

2642  #  define sample_cascade(vec, id) texture(shadowCascadeTexture, vec3(vec, id)).r

2643  #endif

2644  

2645  #if defined(SHADOW_VSM)

2646  #  define get_depth_delta(dist, s) (dist - s.x)

2647  #else

2648  #  define get_depth_delta(dist, s) (dist - s)

2649  #endif

2650  

2651    /* ----------------------------------------------------------- */

2652    /* ----------------------- Shadow tests ---------------------- */

2653    /* ----------------------------------------------------------- */

2654  

2655  #if defined(SHADOW_VSM)

2656  

2657  float shadow_test(ShadowSample moments, float dist, ShadowData sd)

2658  {

2659    float p = 0.0;

2660  

2661    if (dist <= moments.x) {

2662      p = 1.0;

2663    }

2664  

2665    float variance = moments.y - (moments.x * moments.x);

2666    variance = max(variance, sd.sh_bias / 10.0);

2667  

2668    float d = moments.x - dist;

2669    float p_max = variance / (variance + d * d);

2670  

2671    /* Now reduce light-bleeding by removing the [0, x] tail and linearly rescaling (x, 1] */

2672    p_max = clamp((p_max - sd.sh_bleed) / (1.0 - sd.sh_bleed), 0.0, 1.0);

2673  

2674    return max(p, p_max);

2675  }

2676  

2677  #elif defined(SHADOW_ESM)

2678  

2679  float shadow_test(ShadowSample z, float dist, ShadowData sd)

2680  {

2681    return saturate(exp(sd.sh_exp * (z - dist + sd.sh_bias)));

2682  }

2683  

2684  #else

2685  

2686  float shadow_test(ShadowSample z, float dist, ShadowData sd)

2687  {

2688    return step(0, z - dist + sd.sh_bias);

2689  }

2690  

2691  #endif

2692  

2693  /* ----------------------------------------------------------- */

2694  /* ----------------------- Shadow types ---------------------- */

2695  /* ----------------------------------------------------------- */

2696  

2697  float shadow_cubemap(ShadowData sd, ShadowCubeData scd, float texid, vec3 W)

2698  {

2699    vec3 cubevec = W - scd.position.xyz;

2700    float dist = length(cubevec);

2701  

2702    cubevec /= dist;

2703  

2704    ShadowSample s = sample_cube(cubevec, texid);

2705    return shadow_test(s, dist, sd);

2706  }

2707  

2708  float evaluate_cascade(ShadowData sd, mat4 shadowmat, vec3 W, float range, float texid)

2709  {

2710    vec4 shpos = shadowmat * vec4(W, 1.0);

2711    float dist = shpos.z * range;

2712  

2713    ShadowSample s = sample_cascade(shpos.xy, texid);

2714    float vis = shadow_test(s, dist, sd);

2715  

2716    /* If fragment is out of shadowmap range, do not occlude */

2717    if (shpos.z < 1.0 && shpos.z > 0.0) {

2718      return vis;

2719    }

2720    else {

2721      return 1.0;

2722    }

2723  }

2724  

2725  float shadow_cascade(ShadowData sd, int scd_id, float texid, vec3 W)

2726  {

2727    vec4 view_z = vec4(dot(W - cameraPos, cameraForward));

2728    vec4 weights = smoothstep(shadows_cascade_data[scd_id].split_end_distances,

2729                              shadows_cascade_data[scd_id].split_start_distances.yzwx,

2730                              view_z);

2731  

2732    weights.yzw -= weights.xyz;

2733  

2734    vec4 vis = vec4(1.0);

2735    float range = abs(sd.sh_far - sd.sh_near); /* Same factor as in get_cascade_world_distance(). */

2736  

2737    /* Branching using (weights > 0.0) is reaally slooow on intel so avoid it for now. */

2738    /* TODO OPTI: Only do 2 samples and blend. */

2739    vis.x = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[0], W, range, texid + 0);

2740    vis.y = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[1], W, range, texid + 1);

2741    vis.z = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[2], W, range, texid + 2);

2742    vis.w = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[3], W, range, texid + 3);

2743  

2744    float weight_sum = dot(vec4(1.0), weights);

2745    if (weight_sum > 0.9999) {

2746      float vis_sum = dot(vec4(1.0), vis * weights);

2747      return vis_sum / weight_sum;

2748    }

2749    else {

2750      float vis_sum = dot(vec4(1.0), vis * step(0.001, weights));

2751      return mix(1.0, vis_sum, weight_sum);

2752    }

2753  }

2754  

2755  /* ----------------------------------------------------------- */

2756  /* --------------------- Light Functions --------------------- */

2757  /* ----------------------------------------------------------- */

2758  

2759  /* From Frostbite PBR Course

2760   * Distance based attenuation

2761   * http://www.frostbite.com/wp-content/uploads/2014/11/course_notes_moving_frostbite_to_pbr.pdf */

2762  float distance_attenuation(float dist_sqr, float inv_sqr_influence)

2763  {

2764    float factor = dist_sqr * inv_sqr_influence;

2765    float fac = saturate(1.0 - factor * factor);

2766    return fac * fac;

2767  }

2768  

2769  float spot_attenuation(LightData ld, vec3 l_vector)

2770  {

2771    float z = dot(ld.l_forward, l_vector.xyz);

2772    vec3 lL = l_vector.xyz / z;

2773    float x = dot(ld.l_right, lL) / ld.l_sizex;

2774    float y = dot(ld.l_up, lL) / ld.l_sizey;

2775    float ellipse = inversesqrt(1.0 + x * x + y * y);

2776    float spotmask = smoothstep(0.0, 1.0, (ellipse - ld.l_spot_size) / ld.l_spot_blend);

2777    return spotmask;

2778  }

2779  

2780  float light_visibility(LightData ld,

2781                         vec3 W,

2782  #ifndef VOLUMETRICS

2783                         vec3 viewPosition,

2784                         vec3 viewNormal,

2785  #endif

2786                         vec4 l_vector)

2787  {

2788    float vis = 1.0;

2789  

2790    if (ld.l_type == SPOT) {

2791      vis *= spot_attenuation(ld, l_vector.xyz);

2792    }

2793    if (ld.l_type >= SPOT) {

2794      vis *= step(0.0, -dot(l_vector.xyz, ld.l_forward));

2795    }

2796    if (ld.l_type != SUN) {

2797      vis *= distance_attenuation(l_vector.w * l_vector.w, ld.l_influence);

2798    }

2799  

2800  #if !defined(VOLUMETRICS) || defined(VOLUME_SHADOW)

2801    /* shadowing */

2802    if (ld.l_shadowid >= 0.0 && vis > 0.001) {

2803      ShadowData data = shadows_data[int(ld.l_shadowid)];

2804  

2805      if (ld.l_type == SUN) {

2806        vis *= shadow_cascade(data, int(data.sh_data_start), data.sh_tex_start, W);

2807      }

2808      else {

2809        vis *= shadow_cubemap(

2810            data, shadows_cube_data[int(data.sh_data_start)], data.sh_tex_start, W);

2811      }

2812  

2813  #  ifndef VOLUMETRICS

2814      /* Only compute if not already in shadow. */

2815      if (data.sh_contact_dist > 0.0) {

2816        vec4 L = (ld.l_type != SUN) ? l_vector : vec4(-ld.l_forward, 1.0);

2817        float trace_distance = (ld.l_type != SUN) ? min(data.sh_contact_dist, l_vector.w) :

2818                                                    data.sh_contact_dist;

2819  

2820        vec3 T, B;

2821        make_orthonormal_basis(L.xyz / L.w, T, B);

2822  

2823        vec4 rand = texelfetch_noise_tex(gl_FragCoord.xy);

2824        rand.zw *= fast_sqrt(rand.y) * data.sh_contact_spread;

2825  

2826        /* We use the full l_vector.xyz so that the spread is minimize

2827         * if the shading point is further away from the light source */

2828        vec3 ray_dir = L.xyz + T * rand.z + B * rand.w;

2829        ray_dir = transform_direction(ViewMatrix, ray_dir);

2830        ray_dir = normalize(ray_dir);

2831  

2832        vec3 ray_ori = viewPosition;

2833  

2834        if (dot(viewNormal, ray_dir) <= 0.0) {

2835          return vis;

2836        }

2837  

2838        float bias = 0.5;                            /* Constant Bias */

2839        bias += 1.0 - abs(dot(viewNormal, ray_dir)); /* Angle dependent bias */

2840        bias *= gl_FrontFacing ? data.sh_contact_offset : -data.sh_contact_offset;

2841  

2842        vec3 nor_bias = viewNormal * bias;

2843        ray_ori += nor_bias;

2844  

2845        ray_dir *= trace_distance;

2846        ray_dir -= nor_bias;

2847  

2848        vec3 hit_pos = raycast(

2849            -1, ray_ori, ray_dir, data.sh_contact_thickness, rand.x, 0.1, 0.001, false);

2850  

2851        if (hit_pos.z > 0.0) {

2852          hit_pos = get_view_space_from_depth(hit_pos.xy, hit_pos.z);

2853          float hit_dist = distance(viewPosition, hit_pos);

2854          float dist_ratio = hit_dist / trace_distance;

2855          return vis * saturate(dist_ratio * dist_ratio * dist_ratio);

2856        }

2857      }

2858  #  endif

2859    }

2860  #endif

2861  

2862    return vis;

2863  }

2864  

2865  #ifdef USE_LTC

2866  float light_diffuse(LightData ld, vec3 N, vec3 V, vec4 l_vector)

2867  {

2868    if (ld.l_type == AREA_RECT) {

2869      vec3 corners[4];

2870      corners[0] = normalize((l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * ld.l_sizey);

2871      corners[1] = normalize((l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * -ld.l_sizey);

2872      corners[2] = normalize((l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * -ld.l_sizey);

2873      corners[3] = normalize((l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * ld.l_sizey);

2874  

2875      return ltc_evaluate_quad(corners, N);

2876    }

2877    else if (ld.l_type == AREA_ELLIPSE) {

2878      vec3 points[3];

2879      points[0] = (l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * -ld.l_sizey;

2880      points[1] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * -ld.l_sizey;

2881      points[2] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * ld.l_sizey;

2882  

2883      return ltc_evaluate_disk(N, V, mat3(1.0), points);

2884    }

2885    else {

2886      float radius = ld.l_radius;

2887      radius /= (ld.l_type == SUN) ? 1.0 : l_vector.w;

2888      vec3 L = (ld.l_type == SUN) ? -ld.l_forward : (l_vector.xyz / l_vector.w);

2889  

2890      return ltc_evaluate_disk_simple(radius, dot(N, L));

2891    }

2892  }

2893  

2894  float light_specular(LightData ld, vec4 ltc_mat, vec3 N, vec3 V, vec4 l_vector)

2895  {

2896    if (ld.l_type == AREA_RECT) {

2897      vec3 corners[4];

2898      corners[0] = (l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * ld.l_sizey;

2899      corners[1] = (l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * -ld.l_sizey;

2900      corners[2] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * -ld.l_sizey;

2901      corners[3] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * ld.l_sizey;

2902  

2903      ltc_transform_quad(N, V, ltc_matrix(ltc_mat), corners);

2904  

2905      return ltc_evaluate_quad(corners, vec3(0.0, 0.0, 1.0));

2906    }

2907    else {

2908      bool is_ellipse = (ld.l_type == AREA_ELLIPSE);

2909      float radius_x = is_ellipse ? ld.l_sizex : ld.l_radius;

2910      float radius_y = is_ellipse ? ld.l_sizey : ld.l_radius;

2911  

2912      vec3 L = (ld.l_type == SUN) ? -ld.l_forward : l_vector.xyz;

2913      vec3 Px = ld.l_right;

2914      vec3 Py = ld.l_up;

2915  

2916      if (ld.l_type == SPOT || ld.l_type == POINT) {

2917        make_orthonormal_basis(l_vector.xyz / l_vector.w, Px, Py);

2918      }

2919  

2920      vec3 points[3];

2921      points[0] = (L + Px * -radius_x) + Py * -radius_y;

2922      points[1] = (L + Px * radius_x) + Py * -radius_y;

2923      points[2] = (L + Px * radius_x) + Py * radius_y;

2924  

2925      return ltc_evaluate_disk(N, V, ltc_matrix(ltc_mat), points);

2926    }

2927  }

2928  #endif

2929  

2930  #define MAX_SSS_SAMPLES 65

2931  #define SSS_LUT_SIZE 64.0

2932  #define SSS_LUT_SCALE ((SSS_LUT_SIZE - 1.0) / float(SSS_LUT_SIZE))

2933  #define SSS_LUT_BIAS (0.5 / float(SSS_LUT_SIZE))

2934  

2935  #ifdef USE_TRANSLUCENCY

2936  layout(std140) uniform sssProfile

2937  {

2938    vec4 kernel[MAX_SSS_SAMPLES];

2939    vec4 radii_max_radius;

2940    int sss_samples;

2941  };

2942  

2943  uniform sampler1D sssTexProfile;

2944  

2945  vec3 sss_profile(float s)

2946  {

2947    s /= radii_max_radius.w;

2948    return texture(sssTexProfile, saturate(s) * SSS_LUT_SCALE + SSS_LUT_BIAS).rgb;

2949  }

2950  #endif

2951  

2952  vec3 light_translucent(LightData ld, vec3 W, vec3 N, vec4 l_vector, float scale)

2953  {

2954  #if !defined(USE_TRANSLUCENCY) || defined(VOLUMETRICS)

2955    return vec3(0.0);

2956  #else

2957    vec3 vis = vec3(1.0);

2958  

2959    if (ld.l_type == SPOT) {

2960      vis *= spot_attenuation(ld, l_vector.xyz);

2961    }

2962    if (ld.l_type >= SPOT) {

2963      vis *= step(0.0, -dot(l_vector.xyz, ld.l_forward));

2964    }

2965    if (ld.l_type != SUN) {

2966      vis *= distance_attenuation(l_vector.w * l_vector.w, ld.l_influence);

2967    }

2968  

2969    /* Only shadowed light can produce translucency */

2970    if (ld.l_shadowid >= 0.0 && vis.x > 0.001) {

2971      ShadowData data = shadows_data[int(ld.l_shadowid)];

2972      float delta;

2973  

2974      vec4 L = (ld.l_type != SUN) ? l_vector : vec4(-ld.l_forward, 1.0);

2975  

2976      vec3 T, B;

2977      make_orthonormal_basis(L.xyz / L.w, T, B);

2978  

2979      vec4 rand = texelfetch_noise_tex(gl_FragCoord.xy);

2980      rand.zw *= fast_sqrt(rand.y) * data.sh_blur;

2981  

2982      /* We use the full l_vector.xyz so that the spread is minimize

2983       * if the shading point is further away from the light source */

2984      W = W + T * rand.z + B * rand.w;

2985  

2986      if (ld.l_type == SUN) {

2987        int scd_id = int(data.sh_data_start);

2988        vec4 view_z = vec4(dot(W - cameraPos, cameraForward));

2989  

2990        vec4 weights = step(shadows_cascade_data[scd_id].split_end_distances, view_z);

2991        float id = abs(4.0 - dot(weights, weights));

2992  

2993        if (id > 3.0) {

2994          return vec3(0.0);

2995        }

2996  

2997        float range = abs(data.sh_far -

2998                          data.sh_near); /* Same factor as in get_cascade_world_distance(). */

2999  

3000        vec4 shpos = shadows_cascade_data[scd_id].shadowmat[int(id)] * vec4(W, 1.0);

3001        float dist = shpos.z * range;

3002  

3003        if (shpos.z > 1.0 || shpos.z < 0.0) {

3004          return vec3(0.0);

3005        }

3006  

3007        ShadowSample s = sample_cascade(shpos.xy, data.sh_tex_start + id);

3008        delta = get_depth_delta(dist, s);

3009      }

3010      else {

3011        vec3 cubevec = W - shadows_cube_data[int(data.sh_data_start)].position.xyz;

3012        float dist = length(cubevec);

3013        cubevec /= dist;

3014  

3015        ShadowSample s = sample_cube(cubevec, data.sh_tex_start);

3016        delta = get_depth_delta(dist, s);

3017      }

3018  

3019      /* XXX : Removing Area Power. */

3020      /* TODO : put this out of the shader. */

3021      float falloff;

3022      if (ld.l_type == AREA_RECT || ld.l_type == AREA_ELLIPSE) {

3023        vis *= (ld.l_sizex * ld.l_sizey * 4.0 * M_PI) * (1.0 / 80.0);

3024        if (ld.l_type == AREA_ELLIPSE) {

3025          vis *= M_PI * 0.25;

3026        }

3027        vis *= 0.3 * 20.0 *

3028               max(0.0, dot(-ld.l_forward, l_vector.xyz / l_vector.w)); /* XXX ad hoc, empirical */

3029        vis /= (l_vector.w * l_vector.w);

3030        falloff = dot(N, l_vector.xyz / l_vector.w);

3031      }

3032      else if (ld.l_type == SUN) {

3033        vis /= 1.0f + (ld.l_radius * ld.l_radius * 0.5f);

3034        vis *= ld.l_radius * ld.l_radius * M_PI; /* Removing area light power*/

3035        vis *= M_2PI * 0.78;                     /* Matching cycles with point light. */

3036        vis *= 0.082;                            /* XXX ad hoc, empirical */

3037        falloff = dot(N, -ld.l_forward);

3038      }

3039      else {

3040        vis *= (4.0 * ld.l_radius * ld.l_radius) * (1.0 / 10.0);

3041        vis *= 1.5; /* XXX ad hoc, empirical */

3042        vis /= (l_vector.w * l_vector.w);

3043        falloff = dot(N, l_vector.xyz / l_vector.w);

3044      }

3045      // vis *= M_1_PI; /* Normalize */

3046  

3047      /* Applying profile */

3048      vis *= sss_profile(abs(delta) / scale);

3049  

3050      /* No transmittance at grazing angle (hide artifacts) */

3051      vis *= saturate(falloff * 2.0);

3052    }

3053    else {

3054      vis = vec3(0.0);

3055    }

3056  

3057    return vis;

3058  #endif

3059  }

3060  

3061  #ifndef LIT_SURFACE_UNIFORM

3062  #define LIT_SURFACE_UNIFORM

3063  

3064  uniform float refractionDepth;

3065  

3066  #ifndef UTIL_TEX

3067  #  define UTIL_TEX

3068  uniform sampler2DArray utilTex;

3069  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

3070  #endif /* UTIL_TEX */

3071  

3072  in vec3 worldPosition;

3073  in vec3 viewPosition;

3074  

3075  #ifdef USE_FLAT_NORMAL

3076  flat in vec3 worldNormal;

3077  flat in vec3 viewNormal;

3078  #else

3079  in vec3 worldNormal;

3080  in vec3 viewNormal;

3081  #endif

3082  

3083  #ifdef HAIR_SHADER

3084  in vec3 hairTangent; /* world space */

3085  in float hairThickTime;

3086  in float hairThickness;

3087  in float hairTime;

3088  flat in int hairStrandID;

3089  

3090  uniform int hairThicknessRes = 1;

3091  #endif

3092  

3093  #endif /* LIT_SURFACE_UNIFORM */

3094  

3095  /** AUTO CONFIG

3096   * We include the file multiple times each time with a different configuration.

3097   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

3098   */

3099  #if !defined(SURFACE_DEFAULT)

3100  #define SURFACE_DEFAULT

3101  #define CLOSURE_NAME eevee_closure_default

3102  #define CLOSURE_DIFFUSE

3103  #define CLOSURE_GLOSSY

3104  #endif /* SURFACE_DEFAULT */

3105  

3106  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

3107  #define SURFACE_PRINCIPLED

3108  #define CLOSURE_NAME eevee_closure_principled

3109  #define CLOSURE_DIFFUSE

3110  #define CLOSURE_GLOSSY

3111  #define CLOSURE_CLEARCOAT

3112  #define CLOSURE_REFRACTION

3113  #define CLOSURE_SUBSURFACE

3114  #endif /* SURFACE_PRINCIPLED */

3115  

3116  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

3117  #define SURFACE_CLEARCOAT

3118  #define CLOSURE_NAME eevee_closure_clearcoat

3119  #define CLOSURE_GLOSSY

3120  #define CLOSURE_CLEARCOAT

3121  #endif /* SURFACE_CLEARCOAT */

3122  

3123  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

3124  #define SURFACE_DIFFUSE

3125  #define CLOSURE_NAME eevee_closure_diffuse

3126  #define CLOSURE_DIFFUSE

3127  #endif /* SURFACE_DIFFUSE */

3128  

3129  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

3130  #define SURFACE_SUBSURFACE

3131  #define CLOSURE_NAME eevee_closure_subsurface

3132  #define CLOSURE_DIFFUSE

3133  #define CLOSURE_SUBSURFACE

3134  #endif /* SURFACE_SUBSURFACE */

3135  

3136  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

3137  #define SURFACE_SKIN

3138  #define CLOSURE_NAME eevee_closure_skin

3139  #define CLOSURE_DIFFUSE

3140  #define CLOSURE_SUBSURFACE

3141  #define CLOSURE_GLOSSY

3142  #endif /* SURFACE_SKIN */

3143  

3144  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

3145  #define SURFACE_GLOSSY

3146  #define CLOSURE_NAME eevee_closure_glossy

3147  #define CLOSURE_GLOSSY

3148  #endif /* SURFACE_GLOSSY */

3149  

3150  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

3151  #define SURFACE_REFRACT

3152  #define CLOSURE_NAME eevee_closure_refraction

3153  #define CLOSURE_REFRACTION

3154  #endif /* SURFACE_REFRACT */

3155  

3156  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

3157  #define SURFACE_GLASS

3158  #define CLOSURE_NAME eevee_closure_glass

3159  #define CLOSURE_GLOSSY

3160  #define CLOSURE_REFRACTION

3161  #endif /* SURFACE_GLASS */

3162  

3163  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

3164  #ifdef CLOSURE_CLEARCOAT

3165  #ifndef CLOSURE_GLOSSY

3166  #  define CLOSURE_GLOSSY

3167  #endif

3168  #endif /* CLOSURE_CLEARCOAT */

3169  

3170  void CLOSURE_NAME(vec3 N

3171  #ifdef CLOSURE_DIFFUSE

3172                    ,

3173                    vec3 albedo

3174  #endif

3175  #ifdef CLOSURE_GLOSSY

3176                    ,

3177                    vec3 f0,

3178                    int ssr_id

3179  #endif

3180  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3181                    ,

3182                    float roughness

3183  #endif

3184  #ifdef CLOSURE_CLEARCOAT

3185                    ,

3186                    vec3 C_N,

3187                    float C_intensity,

3188                    float C_roughness

3189  #endif

3190  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

3191                    ,

3192                    float ao

3193  #endif

3194  #ifdef CLOSURE_SUBSURFACE

3195                    ,

3196                    float sss_scale

3197  #endif

3198  #ifdef CLOSURE_REFRACTION

3199                    ,

3200                    float ior

3201  #endif

3202  #ifdef CLOSURE_DIFFUSE

3203                    ,

3204                    out vec3 out_diff

3205  #endif

3206  #ifdef CLOSURE_SUBSURFACE

3207                    ,

3208                    out vec3 out_trans

3209  #endif

3210  #ifdef CLOSURE_GLOSSY

3211                    ,

3212                    out vec3 out_spec

3213  #endif

3214  #ifdef CLOSURE_REFRACTION

3215                    ,

3216                    out vec3 out_refr

3217  #endif

3218  #ifdef CLOSURE_GLOSSY

3219                    ,

3220                    out vec3 ssr_spec

3221  #endif

3222  )

3223  {

3224  #ifdef CLOSURE_DIFFUSE

3225    out_diff = vec3(0.0);

3226  #endif

3227  

3228  #ifdef CLOSURE_SUBSURFACE

3229    out_trans = vec3(0.0);

3230  #endif

3231  

3232  #ifdef CLOSURE_GLOSSY

3233    out_spec = vec3(0.0);

3234  #endif

3235  

3236  #ifdef CLOSURE_REFRACTION

3237    out_refr = vec3(0.0);

3238  #endif

3239  

3240  #ifdef SHADOW_SHADER

3241    return;

3242  #endif

3243  

3244    /* Zero length vectors cause issues, see: T51979. */

3245    float len = length(N);

3246    if (isnan(len)) {

3247      return;

3248    }

3249    N /= len;

3250  

3251  #ifdef CLOSURE_CLEARCOAT

3252    len = length(C_N);

3253    if (isnan(len)) {

3254      return;

3255    }

3256    C_N /= len;

3257  #endif

3258  

3259  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3260    roughness = clamp(roughness, 1e-8, 0.9999);

3261    float roughnessSquared = roughness * roughness;

3262  #endif

3263  

3264  #ifdef CLOSURE_CLEARCOAT

3265    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

3266    float C_roughnessSquared = C_roughness * C_roughness;

3267  #endif

3268  

3269    vec3 V = cameraVec;

3270  

3271    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

3272  

3273    /* ---------------------------------------------------------------- */

3274    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

3275    /* ---------------------------------------------------------------- */

3276  

3277  #ifdef CLOSURE_GLOSSY

3278    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

3279    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

3280  #endif

3281  

3282  #ifdef CLOSURE_CLEARCOAT

3283    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

3284    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

3285    vec3 out_spec_clear = vec3(0.0);

3286  #endif

3287  

3288    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

3289      LightData ld = lights_data[i];

3290  

3291      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

3292      l_vector.xyz = ld.l_position - worldPosition;

3293      l_vector.w = length(l_vector.xyz);

3294  

3295      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

3296  

3297      if (l_vis < 1e-8) {

3298        continue;

3299      }

3300  

3301      vec3 l_color_vis = ld.l_color * l_vis;

3302  

3303  #ifdef CLOSURE_DIFFUSE

3304      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

3305  #endif

3306  

3307  #ifdef CLOSURE_SUBSURFACE

3308      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

3309  #endif

3310  

3311  #ifdef CLOSURE_GLOSSY

3312      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

3313  #endif

3314  

3315  #ifdef CLOSURE_CLEARCOAT

3316      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

3317                        ld.l_spec;

3318  #endif

3319    }

3320  

3321  #ifdef CLOSURE_GLOSSY

3322    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

3323    out_spec *= F_area(f0, brdf_lut_lights.xy);

3324  #endif

3325  

3326  #ifdef CLOSURE_CLEARCOAT

3327    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

3328    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

3329    out_spec += out_spec_clear * C_intensity;

3330  #endif

3331  

3332    /* ---------------------------------------------------------------- */

3333    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

3334    /* ---------------------------------------------------------------- */

3335  

3336    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

3337  #ifdef CLOSURE_GLOSSY

3338    vec4 spec_accum = vec4(0.0);

3339  #endif

3340  

3341  #ifdef CLOSURE_CLEARCOAT

3342    vec4 C_spec_accum = vec4(0.0);

3343  #endif

3344  

3345  #ifdef CLOSURE_REFRACTION

3346    vec4 refr_accum = vec4(0.0);

3347  #endif

3348  

3349  #ifdef CLOSURE_GLOSSY

3350    /* ---------------------------- */

3351    /*      Planar Reflections      */

3352    /* ---------------------------- */

3353  

3354    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

3355      PlanarData pd = planars_data[i];

3356  

3357      /* Fade on geometric normal. */

3358      float fade = probe_attenuation_planar(

3359          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

3360  

3361      if (fade > 0.0) {

3362        if (!(ssrToggle && ssr_id == outputSsrId)) {

3363          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

3364          accumulate_light(spec, fade, spec_accum);

3365        }

3366  

3367  #ifdef CLOSURE_CLEARCOAT

3368        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

3369        accumulate_light(C_spec, fade, C_spec_accum);

3370  #endif

3371      }

3372    }

3373  #endif

3374  

3375  #ifdef CLOSURE_GLOSSY

3376    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

3377  #endif

3378  

3379  #ifdef CLOSURE_CLEARCOAT

3380    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

3381  #endif

3382  

3383  #ifdef CLOSURE_REFRACTION

3384    /* Refract the view vector using the depth heuristic.

3385     * Then later Refract a second time the already refracted

3386     * ray using the inverse ior. */

3387    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

3388    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

3389    vec3 refr_pos = (refractionDepth > 0.0) ?

3390                        line_plane_intersect(

3391                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

3392                        worldPosition;

3393    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

3394  #endif

3395  

3396  #ifdef CLOSURE_REFRACTION

3397  /* ---------------------------- */

3398  /*   Screen Space Refraction    */

3399  /* ---------------------------- */

3400  #ifdef USE_REFRACTION

3401    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

3402      /* Find approximated position of the 2nd refraction event. */

3403      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

3404                                                 viewPosition;

3405      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

3406      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

3407      accumulate_light(trans.rgb, trans.a, refr_accum);

3408    }

3409  #endif

3410  

3411  #endif

3412  

3413    /* ---------------------------- */

3414    /*       Specular probes        */

3415    /* ---------------------------- */

3416  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3417  

3418  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

3419  #  define GLASS_ACCUM 1

3420  #  define ACCUM min(refr_accum.a, spec_accum.a)

3421  #elif defined(CLOSURE_REFRACTION)

3422  #  define GLASS_ACCUM 0

3423  #  define ACCUM refr_accum.a

3424  #else

3425  #  define GLASS_ACCUM 0

3426  #  define ACCUM spec_accum.a

3427  #endif

3428  

3429    /* Starts at 1 because 0 is world probe */

3430    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

3431      float fade = probe_attenuation_cube(i, worldPosition);

3432  

3433      if (fade > 0.0) {

3434  

3435  #if GLASS_ACCUM

3436        if (spec_accum.a < 0.999) {

3437  #endif

3438  #ifdef CLOSURE_GLOSSY

3439          if (!(ssrToggle && ssr_id == outputSsrId)) {

3440            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

3441            accumulate_light(spec, fade, spec_accum);

3442          }

3443  #endif

3444  

3445  #ifdef CLOSURE_CLEARCOAT

3446          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

3447          accumulate_light(C_spec, fade, C_spec_accum);

3448  #endif

3449  #if GLASS_ACCUM

3450        }

3451  #endif

3452  

3453  #if GLASS_ACCUM

3454        if (refr_accum.a < 0.999) {

3455  #endif

3456  #ifdef CLOSURE_REFRACTION

3457          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

3458          accumulate_light(trans, fade, refr_accum);

3459  #endif

3460  #if GLASS_ACCUM

3461        }

3462  #endif

3463      }

3464    }

3465  

3466  #undef GLASS_ACCUM

3467  #undef ACCUM

3468  

3469  /* ---------------------------- */

3470  /*          World Probe         */

3471  /* ---------------------------- */

3472  #ifdef CLOSURE_GLOSSY

3473    if (spec_accum.a < 0.999) {

3474      if (!(ssrToggle && ssr_id == outputSsrId)) {

3475        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

3476        accumulate_light(spec, 1.0, spec_accum);

3477      }

3478  

3479  #  ifdef CLOSURE_CLEARCOAT

3480      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

3481      accumulate_light(C_spec, 1.0, C_spec_accum);

3482  #  endif

3483    }

3484  #endif

3485  

3486  #ifdef CLOSURE_REFRACTION

3487    if (refr_accum.a < 0.999) {

3488      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

3489      accumulate_light(trans, 1.0, refr_accum);

3490    }

3491  #endif

3492  #endif /* Specular probes */

3493  

3494    /* ---------------------------- */

3495    /*       Ambient Occlusion      */

3496    /* ---------------------------- */

3497  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

3498    vec3 bent_normal;

3499    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

3500  #endif

3501  

3502    /* ---------------------------- */

3503    /*        Specular Output       */

3504    /* ---------------------------- */

3505    float NV = dot(N, V);

3506  #ifdef CLOSURE_GLOSSY

3507    vec2 uv = lut_coords(NV, roughness);

3508    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

3509  

3510    /* This factor is outputted to be used by SSR in order

3511     * to match the intensity of the regular reflections. */

3512    ssr_spec = F_ibl(f0, brdf_lut);

3513    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

3514  

3515    /* The SSR pass recompute the occlusion to not apply it to the SSR */

3516    if (ssrToggle && ssr_id == outputSsrId) {

3517      spec_occlu = 1.0;

3518    }

3519  

3520    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

3521  #endif

3522  

3523  #ifdef CLOSURE_REFRACTION

3524    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

3525  

3526    out_refr += refr_accum.rgb * btdf;

3527  #endif

3528  

3529  #ifdef CLOSURE_CLEARCOAT

3530    NV = dot(C_N, V);

3531    vec2 C_uv = lut_coords(NV, C_roughness);

3532    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

3533    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

3534  

3535    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

3536  #endif

3537  

3538  #ifdef CLOSURE_GLOSSY

3539    /* Global toggle for lightprobe baking. */

3540    out_spec *= float(specToggle);

3541  #endif

3542  

3543    /* ---------------------------------------------------------------- */

3544    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

3545    /* ---------------------------------------------------------------- */

3546  

3547    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

3548  #ifdef CLOSURE_DIFFUSE

3549    vec4 diff_accum = vec4(0.0);

3550  

3551    /* ---------------------------- */

3552    /*       Irradiance Grids       */

3553    /* ---------------------------- */

3554    /* Start at 1 because 0 is world irradiance */

3555    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

3556      GridData gd = grids_data[i];

3557  

3558      vec3 localpos;

3559      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

3560  

3561      if (fade > 0.0) {

3562        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

3563        accumulate_light(diff, fade, diff_accum);

3564      }

3565    }

3566  

3567    /* ---------------------------- */

3568    /*        World Diffuse         */

3569    /* ---------------------------- */

3570    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

3571      vec3 diff = probe_evaluate_world_diff(bent_normal);

3572      accumulate_light(diff, 1.0, diff_accum);

3573    }

3574  

3575    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

3576  #endif

3577  }

3578  

3579  /* Cleanup for next configuration */

3580  #undef CLOSURE_NAME

3581  

3582  #ifdef CLOSURE_DIFFUSE

3583  #undef CLOSURE_DIFFUSE

3584  #endif

3585  

3586  #ifdef CLOSURE_GLOSSY

3587  #undef CLOSURE_GLOSSY

3588  #endif

3589  

3590  #ifdef CLOSURE_CLEARCOAT

3591  #undef CLOSURE_CLEARCOAT

3592  #endif

3593  

3594  #ifdef CLOSURE_REFRACTION

3595  #undef CLOSURE_REFRACTION

3596  #endif

3597  

3598  #ifdef CLOSURE_SUBSURFACE

3599  #undef CLOSURE_SUBSURFACE

3600  #endif

3601  

3602  #ifndef LIT_SURFACE_UNIFORM

3603  #define LIT_SURFACE_UNIFORM

3604  

3605  uniform float refractionDepth;

3606  

3607  #ifndef UTIL_TEX

3608  #  define UTIL_TEX

3609  uniform sampler2DArray utilTex;

3610  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

3611  #endif /* UTIL_TEX */

3612  

3613  in vec3 worldPosition;

3614  in vec3 viewPosition;

3615  

3616  #ifdef USE_FLAT_NORMAL

3617  flat in vec3 worldNormal;

3618  flat in vec3 viewNormal;

3619  #else

3620  in vec3 worldNormal;

3621  in vec3 viewNormal;

3622  #endif

3623  

3624  #ifdef HAIR_SHADER

3625  in vec3 hairTangent; /* world space */

3626  in float hairThickTime;

3627  in float hairThickness;

3628  in float hairTime;

3629  flat in int hairStrandID;

3630  

3631  uniform int hairThicknessRes = 1;

3632  #endif

3633  

3634  #endif /* LIT_SURFACE_UNIFORM */

3635  

3636  /** AUTO CONFIG

3637   * We include the file multiple times each time with a different configuration.

3638   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

3639   */

3640  #if !defined(SURFACE_DEFAULT)

3641  #define SURFACE_DEFAULT

3642  #define CLOSURE_NAME eevee_closure_default

3643  #define CLOSURE_DIFFUSE

3644  #define CLOSURE_GLOSSY

3645  #endif /* SURFACE_DEFAULT */

3646  

3647  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

3648  #define SURFACE_PRINCIPLED

3649  #define CLOSURE_NAME eevee_closure_principled

3650  #define CLOSURE_DIFFUSE

3651  #define CLOSURE_GLOSSY

3652  #define CLOSURE_CLEARCOAT

3653  #define CLOSURE_REFRACTION

3654  #define CLOSURE_SUBSURFACE

3655  #endif /* SURFACE_PRINCIPLED */

3656  

3657  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

3658  #define SURFACE_CLEARCOAT

3659  #define CLOSURE_NAME eevee_closure_clearcoat

3660  #define CLOSURE_GLOSSY

3661  #define CLOSURE_CLEARCOAT

3662  #endif /* SURFACE_CLEARCOAT */

3663  

3664  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

3665  #define SURFACE_DIFFUSE

3666  #define CLOSURE_NAME eevee_closure_diffuse

3667  #define CLOSURE_DIFFUSE

3668  #endif /* SURFACE_DIFFUSE */

3669  

3670  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

3671  #define SURFACE_SUBSURFACE

3672  #define CLOSURE_NAME eevee_closure_subsurface

3673  #define CLOSURE_DIFFUSE

3674  #define CLOSURE_SUBSURFACE

3675  #endif /* SURFACE_SUBSURFACE */

3676  

3677  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

3678  #define SURFACE_SKIN

3679  #define CLOSURE_NAME eevee_closure_skin

3680  #define CLOSURE_DIFFUSE

3681  #define CLOSURE_SUBSURFACE

3682  #define CLOSURE_GLOSSY

3683  #endif /* SURFACE_SKIN */

3684  

3685  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

3686  #define SURFACE_GLOSSY

3687  #define CLOSURE_NAME eevee_closure_glossy

3688  #define CLOSURE_GLOSSY

3689  #endif /* SURFACE_GLOSSY */

3690  

3691  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

3692  #define SURFACE_REFRACT

3693  #define CLOSURE_NAME eevee_closure_refraction

3694  #define CLOSURE_REFRACTION

3695  #endif /* SURFACE_REFRACT */

3696  

3697  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

3698  #define SURFACE_GLASS

3699  #define CLOSURE_NAME eevee_closure_glass

3700  #define CLOSURE_GLOSSY

3701  #define CLOSURE_REFRACTION

3702  #endif /* SURFACE_GLASS */

3703  

3704  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

3705  #ifdef CLOSURE_CLEARCOAT

3706  #ifndef CLOSURE_GLOSSY

3707  #  define CLOSURE_GLOSSY

3708  #endif

3709  #endif /* CLOSURE_CLEARCOAT */

3710  

3711  void CLOSURE_NAME(vec3 N

3712  #ifdef CLOSURE_DIFFUSE

3713                    ,

3714                    vec3 albedo

3715  #endif

3716  #ifdef CLOSURE_GLOSSY

3717                    ,

3718                    vec3 f0,

3719                    int ssr_id

3720  #endif

3721  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3722                    ,

3723                    float roughness

3724  #endif

3725  #ifdef CLOSURE_CLEARCOAT

3726                    ,

3727                    vec3 C_N,

3728                    float C_intensity,

3729                    float C_roughness

3730  #endif

3731  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

3732                    ,

3733                    float ao

3734  #endif

3735  #ifdef CLOSURE_SUBSURFACE

3736                    ,

3737                    float sss_scale

3738  #endif

3739  #ifdef CLOSURE_REFRACTION

3740                    ,

3741                    float ior

3742  #endif

3743  #ifdef CLOSURE_DIFFUSE

3744                    ,

3745                    out vec3 out_diff

3746  #endif

3747  #ifdef CLOSURE_SUBSURFACE

3748                    ,

3749                    out vec3 out_trans

3750  #endif

3751  #ifdef CLOSURE_GLOSSY

3752                    ,

3753                    out vec3 out_spec

3754  #endif

3755  #ifdef CLOSURE_REFRACTION

3756                    ,

3757                    out vec3 out_refr

3758  #endif

3759  #ifdef CLOSURE_GLOSSY

3760                    ,

3761                    out vec3 ssr_spec

3762  #endif

3763  )

3764  {

3765  #ifdef CLOSURE_DIFFUSE

3766    out_diff = vec3(0.0);

3767  #endif

3768  

3769  #ifdef CLOSURE_SUBSURFACE

3770    out_trans = vec3(0.0);

3771  #endif

3772  

3773  #ifdef CLOSURE_GLOSSY

3774    out_spec = vec3(0.0);

3775  #endif

3776  

3777  #ifdef CLOSURE_REFRACTION

3778    out_refr = vec3(0.0);

3779  #endif

3780  

3781  #ifdef SHADOW_SHADER

3782    return;

3783  #endif

3784  

3785    /* Zero length vectors cause issues, see: T51979. */

3786    float len = length(N);

3787    if (isnan(len)) {

3788      return;

3789    }

3790    N /= len;

3791  

3792  #ifdef CLOSURE_CLEARCOAT

3793    len = length(C_N);

3794    if (isnan(len)) {

3795      return;

3796    }

3797    C_N /= len;

3798  #endif

3799  

3800  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3801    roughness = clamp(roughness, 1e-8, 0.9999);

3802    float roughnessSquared = roughness * roughness;

3803  #endif

3804  

3805  #ifdef CLOSURE_CLEARCOAT

3806    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

3807    float C_roughnessSquared = C_roughness * C_roughness;

3808  #endif

3809  

3810    vec3 V = cameraVec;

3811  

3812    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

3813  

3814    /* ---------------------------------------------------------------- */

3815    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

3816    /* ---------------------------------------------------------------- */

3817  

3818  #ifdef CLOSURE_GLOSSY

3819    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

3820    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

3821  #endif

3822  

3823  #ifdef CLOSURE_CLEARCOAT

3824    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

3825    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

3826    vec3 out_spec_clear = vec3(0.0);

3827  #endif

3828  

3829    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

3830      LightData ld = lights_data[i];

3831  

3832      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

3833      l_vector.xyz = ld.l_position - worldPosition;

3834      l_vector.w = length(l_vector.xyz);

3835  

3836      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

3837  

3838      if (l_vis < 1e-8) {

3839        continue;

3840      }

3841  

3842      vec3 l_color_vis = ld.l_color * l_vis;

3843  

3844  #ifdef CLOSURE_DIFFUSE

3845      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

3846  #endif

3847  

3848  #ifdef CLOSURE_SUBSURFACE

3849      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

3850  #endif

3851  

3852  #ifdef CLOSURE_GLOSSY

3853      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

3854  #endif

3855  

3856  #ifdef CLOSURE_CLEARCOAT

3857      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

3858                        ld.l_spec;

3859  #endif

3860    }

3861  

3862  #ifdef CLOSURE_GLOSSY

3863    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

3864    out_spec *= F_area(f0, brdf_lut_lights.xy);

3865  #endif

3866  

3867  #ifdef CLOSURE_CLEARCOAT

3868    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

3869    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

3870    out_spec += out_spec_clear * C_intensity;

3871  #endif

3872  

3873    /* ---------------------------------------------------------------- */

3874    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

3875    /* ---------------------------------------------------------------- */

3876  

3877    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

3878  #ifdef CLOSURE_GLOSSY

3879    vec4 spec_accum = vec4(0.0);

3880  #endif

3881  

3882  #ifdef CLOSURE_CLEARCOAT

3883    vec4 C_spec_accum = vec4(0.0);

3884  #endif

3885  

3886  #ifdef CLOSURE_REFRACTION

3887    vec4 refr_accum = vec4(0.0);

3888  #endif

3889  

3890  #ifdef CLOSURE_GLOSSY

3891    /* ---------------------------- */

3892    /*      Planar Reflections      */

3893    /* ---------------------------- */

3894  

3895    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

3896      PlanarData pd = planars_data[i];

3897  

3898      /* Fade on geometric normal. */

3899      float fade = probe_attenuation_planar(

3900          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

3901  

3902      if (fade > 0.0) {

3903        if (!(ssrToggle && ssr_id == outputSsrId)) {

3904          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

3905          accumulate_light(spec, fade, spec_accum);

3906        }

3907  

3908  #ifdef CLOSURE_CLEARCOAT

3909        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

3910        accumulate_light(C_spec, fade, C_spec_accum);

3911  #endif

3912      }

3913    }

3914  #endif

3915  

3916  #ifdef CLOSURE_GLOSSY

3917    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

3918  #endif

3919  

3920  #ifdef CLOSURE_CLEARCOAT

3921    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

3922  #endif

3923  

3924  #ifdef CLOSURE_REFRACTION

3925    /* Refract the view vector using the depth heuristic.

3926     * Then later Refract a second time the already refracted

3927     * ray using the inverse ior. */

3928    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

3929    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

3930    vec3 refr_pos = (refractionDepth > 0.0) ?

3931                        line_plane_intersect(

3932                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

3933                        worldPosition;

3934    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

3935  #endif

3936  

3937  #ifdef CLOSURE_REFRACTION

3938  /* ---------------------------- */

3939  /*   Screen Space Refraction    */

3940  /* ---------------------------- */

3941  #ifdef USE_REFRACTION

3942    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

3943      /* Find approximated position of the 2nd refraction event. */

3944      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

3945                                                 viewPosition;

3946      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

3947      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

3948      accumulate_light(trans.rgb, trans.a, refr_accum);

3949    }

3950  #endif

3951  

3952  #endif

3953  

3954    /* ---------------------------- */

3955    /*       Specular probes        */

3956    /* ---------------------------- */

3957  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3958  

3959  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

3960  #  define GLASS_ACCUM 1

3961  #  define ACCUM min(refr_accum.a, spec_accum.a)

3962  #elif defined(CLOSURE_REFRACTION)

3963  #  define GLASS_ACCUM 0

3964  #  define ACCUM refr_accum.a

3965  #else

3966  #  define GLASS_ACCUM 0

3967  #  define ACCUM spec_accum.a

3968  #endif

3969  

3970    /* Starts at 1 because 0 is world probe */

3971    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

3972      float fade = probe_attenuation_cube(i, worldPosition);

3973  

3974      if (fade > 0.0) {

3975  

3976  #if GLASS_ACCUM

3977        if (spec_accum.a < 0.999) {

3978  #endif

3979  #ifdef CLOSURE_GLOSSY

3980          if (!(ssrToggle && ssr_id == outputSsrId)) {

3981            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

3982            accumulate_light(spec, fade, spec_accum);

3983          }

3984  #endif

3985  

3986  #ifdef CLOSURE_CLEARCOAT

3987          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

3988          accumulate_light(C_spec, fade, C_spec_accum);

3989  #endif

3990  #if GLASS_ACCUM

3991        }

3992  #endif

3993  

3994  #if GLASS_ACCUM

3995        if (refr_accum.a < 0.999) {

3996  #endif

3997  #ifdef CLOSURE_REFRACTION

3998          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

3999          accumulate_light(trans, fade, refr_accum);

4000  #endif

4001  #if GLASS_ACCUM

4002        }

4003  #endif

4004      }

4005    }

4006  

4007  #undef GLASS_ACCUM

4008  #undef ACCUM

4009  

4010  /* ---------------------------- */

4011  /*          World Probe         */

4012  /* ---------------------------- */

4013  #ifdef CLOSURE_GLOSSY

4014    if (spec_accum.a < 0.999) {

4015      if (!(ssrToggle && ssr_id == outputSsrId)) {

4016        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

4017        accumulate_light(spec, 1.0, spec_accum);

4018      }

4019  

4020  #  ifdef CLOSURE_CLEARCOAT

4021      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

4022      accumulate_light(C_spec, 1.0, C_spec_accum);

4023  #  endif

4024    }

4025  #endif

4026  

4027  #ifdef CLOSURE_REFRACTION

4028    if (refr_accum.a < 0.999) {

4029      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

4030      accumulate_light(trans, 1.0, refr_accum);

4031    }

4032  #endif

4033  #endif /* Specular probes */

4034  

4035    /* ---------------------------- */

4036    /*       Ambient Occlusion      */

4037    /* ---------------------------- */

4038  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4039    vec3 bent_normal;

4040    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

4041  #endif

4042  

4043    /* ---------------------------- */

4044    /*        Specular Output       */

4045    /* ---------------------------- */

4046    float NV = dot(N, V);

4047  #ifdef CLOSURE_GLOSSY

4048    vec2 uv = lut_coords(NV, roughness);

4049    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

4050  

4051    /* This factor is outputted to be used by SSR in order

4052     * to match the intensity of the regular reflections. */

4053    ssr_spec = F_ibl(f0, brdf_lut);

4054    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

4055  

4056    /* The SSR pass recompute the occlusion to not apply it to the SSR */

4057    if (ssrToggle && ssr_id == outputSsrId) {

4058      spec_occlu = 1.0;

4059    }

4060  

4061    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

4062  #endif

4063  

4064  #ifdef CLOSURE_REFRACTION

4065    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

4066  

4067    out_refr += refr_accum.rgb * btdf;

4068  #endif

4069  

4070  #ifdef CLOSURE_CLEARCOAT

4071    NV = dot(C_N, V);

4072    vec2 C_uv = lut_coords(NV, C_roughness);

4073    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

4074    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

4075  

4076    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

4077  #endif

4078  

4079  #ifdef CLOSURE_GLOSSY

4080    /* Global toggle for lightprobe baking. */

4081    out_spec *= float(specToggle);

4082  #endif

4083  

4084    /* ---------------------------------------------------------------- */

4085    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

4086    /* ---------------------------------------------------------------- */

4087  

4088    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4089  #ifdef CLOSURE_DIFFUSE

4090    vec4 diff_accum = vec4(0.0);

4091  

4092    /* ---------------------------- */

4093    /*       Irradiance Grids       */

4094    /* ---------------------------- */

4095    /* Start at 1 because 0 is world irradiance */

4096    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

4097      GridData gd = grids_data[i];

4098  

4099      vec3 localpos;

4100      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

4101  

4102      if (fade > 0.0) {

4103        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

4104        accumulate_light(diff, fade, diff_accum);

4105      }

4106    }

4107  

4108    /* ---------------------------- */

4109    /*        World Diffuse         */

4110    /* ---------------------------- */

4111    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

4112      vec3 diff = probe_evaluate_world_diff(bent_normal);

4113      accumulate_light(diff, 1.0, diff_accum);

4114    }

4115  

4116    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

4117  #endif

4118  }

4119  

4120  /* Cleanup for next configuration */

4121  #undef CLOSURE_NAME

4122  

4123  #ifdef CLOSURE_DIFFUSE

4124  #undef CLOSURE_DIFFUSE

4125  #endif

4126  

4127  #ifdef CLOSURE_GLOSSY

4128  #undef CLOSURE_GLOSSY

4129  #endif

4130  

4131  #ifdef CLOSURE_CLEARCOAT

4132  #undef CLOSURE_CLEARCOAT

4133  #endif

4134  

4135  #ifdef CLOSURE_REFRACTION

4136  #undef CLOSURE_REFRACTION

4137  #endif

4138  

4139  #ifdef CLOSURE_SUBSURFACE

4140  #undef CLOSURE_SUBSURFACE

4141  #endif

4142  

4143  #ifndef LIT_SURFACE_UNIFORM

4144  #define LIT_SURFACE_UNIFORM

4145  

4146  uniform float refractionDepth;

4147  

4148  #ifndef UTIL_TEX

4149  #  define UTIL_TEX

4150  uniform sampler2DArray utilTex;

4151  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

4152  #endif /* UTIL_TEX */

4153  

4154  in vec3 worldPosition;

4155  in vec3 viewPosition;

4156  

4157  #ifdef USE_FLAT_NORMAL

4158  flat in vec3 worldNormal;

4159  flat in vec3 viewNormal;

4160  #else

4161  in vec3 worldNormal;

4162  in vec3 viewNormal;

4163  #endif

4164  

4165  #ifdef HAIR_SHADER

4166  in vec3 hairTangent; /* world space */

4167  in float hairThickTime;

4168  in float hairThickness;

4169  in float hairTime;

4170  flat in int hairStrandID;

4171  

4172  uniform int hairThicknessRes = 1;

4173  #endif

4174  

4175  #endif /* LIT_SURFACE_UNIFORM */

4176  

4177  /** AUTO CONFIG

4178   * We include the file multiple times each time with a different configuration.

4179   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

4180   */

4181  #if !defined(SURFACE_DEFAULT)

4182  #define SURFACE_DEFAULT

4183  #define CLOSURE_NAME eevee_closure_default

4184  #define CLOSURE_DIFFUSE

4185  #define CLOSURE_GLOSSY

4186  #endif /* SURFACE_DEFAULT */

4187  

4188  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

4189  #define SURFACE_PRINCIPLED

4190  #define CLOSURE_NAME eevee_closure_principled

4191  #define CLOSURE_DIFFUSE

4192  #define CLOSURE_GLOSSY

4193  #define CLOSURE_CLEARCOAT

4194  #define CLOSURE_REFRACTION

4195  #define CLOSURE_SUBSURFACE

4196  #endif /* SURFACE_PRINCIPLED */

4197  

4198  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

4199  #define SURFACE_CLEARCOAT

4200  #define CLOSURE_NAME eevee_closure_clearcoat

4201  #define CLOSURE_GLOSSY

4202  #define CLOSURE_CLEARCOAT

4203  #endif /* SURFACE_CLEARCOAT */

4204  

4205  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

4206  #define SURFACE_DIFFUSE

4207  #define CLOSURE_NAME eevee_closure_diffuse

4208  #define CLOSURE_DIFFUSE

4209  #endif /* SURFACE_DIFFUSE */

4210  

4211  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

4212  #define SURFACE_SUBSURFACE

4213  #define CLOSURE_NAME eevee_closure_subsurface

4214  #define CLOSURE_DIFFUSE

4215  #define CLOSURE_SUBSURFACE

4216  #endif /* SURFACE_SUBSURFACE */

4217  

4218  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

4219  #define SURFACE_SKIN

4220  #define CLOSURE_NAME eevee_closure_skin

4221  #define CLOSURE_DIFFUSE

4222  #define CLOSURE_SUBSURFACE

4223  #define CLOSURE_GLOSSY

4224  #endif /* SURFACE_SKIN */

4225  

4226  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

4227  #define SURFACE_GLOSSY

4228  #define CLOSURE_NAME eevee_closure_glossy

4229  #define CLOSURE_GLOSSY

4230  #endif /* SURFACE_GLOSSY */

4231  

4232  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

4233  #define SURFACE_REFRACT

4234  #define CLOSURE_NAME eevee_closure_refraction

4235  #define CLOSURE_REFRACTION

4236  #endif /* SURFACE_REFRACT */

4237  

4238  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

4239  #define SURFACE_GLASS

4240  #define CLOSURE_NAME eevee_closure_glass

4241  #define CLOSURE_GLOSSY

4242  #define CLOSURE_REFRACTION

4243  #endif /* SURFACE_GLASS */

4244  

4245  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

4246  #ifdef CLOSURE_CLEARCOAT

4247  #ifndef CLOSURE_GLOSSY

4248  #  define CLOSURE_GLOSSY

4249  #endif

4250  #endif /* CLOSURE_CLEARCOAT */

4251  

4252  void CLOSURE_NAME(vec3 N

4253  #ifdef CLOSURE_DIFFUSE

4254                    ,

4255                    vec3 albedo

4256  #endif

4257  #ifdef CLOSURE_GLOSSY

4258                    ,

4259                    vec3 f0,

4260                    int ssr_id

4261  #endif

4262  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4263                    ,

4264                    float roughness

4265  #endif

4266  #ifdef CLOSURE_CLEARCOAT

4267                    ,

4268                    vec3 C_N,

4269                    float C_intensity,

4270                    float C_roughness

4271  #endif

4272  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4273                    ,

4274                    float ao

4275  #endif

4276  #ifdef CLOSURE_SUBSURFACE

4277                    ,

4278                    float sss_scale

4279  #endif

4280  #ifdef CLOSURE_REFRACTION

4281                    ,

4282                    float ior

4283  #endif

4284  #ifdef CLOSURE_DIFFUSE

4285                    ,

4286                    out vec3 out_diff

4287  #endif

4288  #ifdef CLOSURE_SUBSURFACE

4289                    ,

4290                    out vec3 out_trans

4291  #endif

4292  #ifdef CLOSURE_GLOSSY

4293                    ,

4294                    out vec3 out_spec

4295  #endif

4296  #ifdef CLOSURE_REFRACTION

4297                    ,

4298                    out vec3 out_refr

4299  #endif

4300  #ifdef CLOSURE_GLOSSY

4301                    ,

4302                    out vec3 ssr_spec

4303  #endif

4304  )

4305  {

4306  #ifdef CLOSURE_DIFFUSE

4307    out_diff = vec3(0.0);

4308  #endif

4309  

4310  #ifdef CLOSURE_SUBSURFACE

4311    out_trans = vec3(0.0);

4312  #endif

4313  

4314  #ifdef CLOSURE_GLOSSY

4315    out_spec = vec3(0.0);

4316  #endif

4317  

4318  #ifdef CLOSURE_REFRACTION

4319    out_refr = vec3(0.0);

4320  #endif

4321  

4322  #ifdef SHADOW_SHADER

4323    return;

4324  #endif

4325  

4326    /* Zero length vectors cause issues, see: T51979. */

4327    float len = length(N);

4328    if (isnan(len)) {

4329      return;

4330    }

4331    N /= len;

4332  

4333  #ifdef CLOSURE_CLEARCOAT

4334    len = length(C_N);

4335    if (isnan(len)) {

4336      return;

4337    }

4338    C_N /= len;

4339  #endif

4340  

4341  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4342    roughness = clamp(roughness, 1e-8, 0.9999);

4343    float roughnessSquared = roughness * roughness;

4344  #endif

4345  

4346  #ifdef CLOSURE_CLEARCOAT

4347    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

4348    float C_roughnessSquared = C_roughness * C_roughness;

4349  #endif

4350  

4351    vec3 V = cameraVec;

4352  

4353    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

4354  

4355    /* ---------------------------------------------------------------- */

4356    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

4357    /* ---------------------------------------------------------------- */

4358  

4359  #ifdef CLOSURE_GLOSSY

4360    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

4361    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

4362  #endif

4363  

4364  #ifdef CLOSURE_CLEARCOAT

4365    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

4366    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

4367    vec3 out_spec_clear = vec3(0.0);

4368  #endif

4369  

4370    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

4371      LightData ld = lights_data[i];

4372  

4373      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

4374      l_vector.xyz = ld.l_position - worldPosition;

4375      l_vector.w = length(l_vector.xyz);

4376  

4377      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

4378  

4379      if (l_vis < 1e-8) {

4380        continue;

4381      }

4382  

4383      vec3 l_color_vis = ld.l_color * l_vis;

4384  

4385  #ifdef CLOSURE_DIFFUSE

4386      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

4387  #endif

4388  

4389  #ifdef CLOSURE_SUBSURFACE

4390      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

4391  #endif

4392  

4393  #ifdef CLOSURE_GLOSSY

4394      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

4395  #endif

4396  

4397  #ifdef CLOSURE_CLEARCOAT

4398      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

4399                        ld.l_spec;

4400  #endif

4401    }

4402  

4403  #ifdef CLOSURE_GLOSSY

4404    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

4405    out_spec *= F_area(f0, brdf_lut_lights.xy);

4406  #endif

4407  

4408  #ifdef CLOSURE_CLEARCOAT

4409    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

4410    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

4411    out_spec += out_spec_clear * C_intensity;

4412  #endif

4413  

4414    /* ---------------------------------------------------------------- */

4415    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

4416    /* ---------------------------------------------------------------- */

4417  

4418    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4419  #ifdef CLOSURE_GLOSSY

4420    vec4 spec_accum = vec4(0.0);

4421  #endif

4422  

4423  #ifdef CLOSURE_CLEARCOAT

4424    vec4 C_spec_accum = vec4(0.0);

4425  #endif

4426  

4427  #ifdef CLOSURE_REFRACTION

4428    vec4 refr_accum = vec4(0.0);

4429  #endif

4430  

4431  #ifdef CLOSURE_GLOSSY

4432    /* ---------------------------- */

4433    /*      Planar Reflections      */

4434    /* ---------------------------- */

4435  

4436    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

4437      PlanarData pd = planars_data[i];

4438  

4439      /* Fade on geometric normal. */

4440      float fade = probe_attenuation_planar(

4441          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

4442  

4443      if (fade > 0.0) {

4444        if (!(ssrToggle && ssr_id == outputSsrId)) {

4445          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

4446          accumulate_light(spec, fade, spec_accum);

4447        }

4448  

4449  #ifdef CLOSURE_CLEARCOAT

4450        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

4451        accumulate_light(C_spec, fade, C_spec_accum);

4452  #endif

4453      }

4454    }

4455  #endif

4456  

4457  #ifdef CLOSURE_GLOSSY

4458    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

4459  #endif

4460  

4461  #ifdef CLOSURE_CLEARCOAT

4462    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

4463  #endif

4464  

4465  #ifdef CLOSURE_REFRACTION

4466    /* Refract the view vector using the depth heuristic.

4467     * Then later Refract a second time the already refracted

4468     * ray using the inverse ior. */

4469    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

4470    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

4471    vec3 refr_pos = (refractionDepth > 0.0) ?

4472                        line_plane_intersect(

4473                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

4474                        worldPosition;

4475    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

4476  #endif

4477  

4478  #ifdef CLOSURE_REFRACTION

4479  /* ---------------------------- */

4480  /*   Screen Space Refraction    */

4481  /* ---------------------------- */

4482  #ifdef USE_REFRACTION

4483    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

4484      /* Find approximated position of the 2nd refraction event. */

4485      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

4486                                                 viewPosition;

4487      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

4488      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

4489      accumulate_light(trans.rgb, trans.a, refr_accum);

4490    }

4491  #endif

4492  

4493  #endif

4494  

4495    /* ---------------------------- */

4496    /*       Specular probes        */

4497    /* ---------------------------- */

4498  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4499  

4500  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

4501  #  define GLASS_ACCUM 1

4502  #  define ACCUM min(refr_accum.a, spec_accum.a)

4503  #elif defined(CLOSURE_REFRACTION)

4504  #  define GLASS_ACCUM 0

4505  #  define ACCUM refr_accum.a

4506  #else

4507  #  define GLASS_ACCUM 0

4508  #  define ACCUM spec_accum.a

4509  #endif

4510  

4511    /* Starts at 1 because 0 is world probe */

4512    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

4513      float fade = probe_attenuation_cube(i, worldPosition);

4514  

4515      if (fade > 0.0) {

4516  

4517  #if GLASS_ACCUM

4518        if (spec_accum.a < 0.999) {

4519  #endif

4520  #ifdef CLOSURE_GLOSSY

4521          if (!(ssrToggle && ssr_id == outputSsrId)) {

4522            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

4523            accumulate_light(spec, fade, spec_accum);

4524          }

4525  #endif

4526  

4527  #ifdef CLOSURE_CLEARCOAT

4528          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

4529          accumulate_light(C_spec, fade, C_spec_accum);

4530  #endif

4531  #if GLASS_ACCUM

4532        }

4533  #endif

4534  

4535  #if GLASS_ACCUM

4536        if (refr_accum.a < 0.999) {

4537  #endif

4538  #ifdef CLOSURE_REFRACTION

4539          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

4540          accumulate_light(trans, fade, refr_accum);

4541  #endif

4542  #if GLASS_ACCUM

4543        }

4544  #endif

4545      }

4546    }

4547  

4548  #undef GLASS_ACCUM

4549  #undef ACCUM

4550  

4551  /* ---------------------------- */

4552  /*          World Probe         */

4553  /* ---------------------------- */

4554  #ifdef CLOSURE_GLOSSY

4555    if (spec_accum.a < 0.999) {

4556      if (!(ssrToggle && ssr_id == outputSsrId)) {

4557        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

4558        accumulate_light(spec, 1.0, spec_accum);

4559      }

4560  

4561  #  ifdef CLOSURE_CLEARCOAT

4562      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

4563      accumulate_light(C_spec, 1.0, C_spec_accum);

4564  #  endif

4565    }

4566  #endif

4567  

4568  #ifdef CLOSURE_REFRACTION

4569    if (refr_accum.a < 0.999) {

4570      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

4571      accumulate_light(trans, 1.0, refr_accum);

4572    }

4573  #endif

4574  #endif /* Specular probes */

4575  

4576    /* ---------------------------- */

4577    /*       Ambient Occlusion      */

4578    /* ---------------------------- */

4579  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4580    vec3 bent_normal;

4581    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

4582  #endif

4583  

4584    /* ---------------------------- */

4585    /*        Specular Output       */

4586    /* ---------------------------- */

4587    float NV = dot(N, V);

4588  #ifdef CLOSURE_GLOSSY

4589    vec2 uv = lut_coords(NV, roughness);

4590    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

4591  

4592    /* This factor is outputted to be used by SSR in order

4593     * to match the intensity of the regular reflections. */

4594    ssr_spec = F_ibl(f0, brdf_lut);

4595    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

4596  

4597    /* The SSR pass recompute the occlusion to not apply it to the SSR */

4598    if (ssrToggle && ssr_id == outputSsrId) {

4599      spec_occlu = 1.0;

4600    }

4601  

4602    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

4603  #endif

4604  

4605  #ifdef CLOSURE_REFRACTION

4606    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

4607  

4608    out_refr += refr_accum.rgb * btdf;

4609  #endif

4610  

4611  #ifdef CLOSURE_CLEARCOAT

4612    NV = dot(C_N, V);

4613    vec2 C_uv = lut_coords(NV, C_roughness);

4614    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

4615    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

4616  

4617    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

4618  #endif

4619  

4620  #ifdef CLOSURE_GLOSSY

4621    /* Global toggle for lightprobe baking. */

4622    out_spec *= float(specToggle);

4623  #endif

4624  

4625    /* ---------------------------------------------------------------- */

4626    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

4627    /* ---------------------------------------------------------------- */

4628  

4629    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4630  #ifdef CLOSURE_DIFFUSE

4631    vec4 diff_accum = vec4(0.0);

4632  

4633    /* ---------------------------- */

4634    /*       Irradiance Grids       */

4635    /* ---------------------------- */

4636    /* Start at 1 because 0 is world irradiance */

4637    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

4638      GridData gd = grids_data[i];

4639  

4640      vec3 localpos;

4641      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

4642  

4643      if (fade > 0.0) {

4644        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

4645        accumulate_light(diff, fade, diff_accum);

4646      }

4647    }

4648  

4649    /* ---------------------------- */

4650    /*        World Diffuse         */

4651    /* ---------------------------- */

4652    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

4653      vec3 diff = probe_evaluate_world_diff(bent_normal);

4654      accumulate_light(diff, 1.0, diff_accum);

4655    }

4656  

4657    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

4658  #endif

4659  }

4660  

4661  /* Cleanup for next configuration */

4662  #undef CLOSURE_NAME

4663  

4664  #ifdef CLOSURE_DIFFUSE

4665  #undef CLOSURE_DIFFUSE

4666  #endif

4667  

4668  #ifdef CLOSURE_GLOSSY

4669  #undef CLOSURE_GLOSSY

4670  #endif

4671  

4672  #ifdef CLOSURE_CLEARCOAT

4673  #undef CLOSURE_CLEARCOAT

4674  #endif

4675  

4676  #ifdef CLOSURE_REFRACTION

4677  #undef CLOSURE_REFRACTION

4678  #endif

4679  

4680  #ifdef CLOSURE_SUBSURFACE

4681  #undef CLOSURE_SUBSURFACE

4682  #endif

4683  

4684  #ifndef LIT_SURFACE_UNIFORM

4685  #define LIT_SURFACE_UNIFORM

4686  

4687  uniform float refractionDepth;

4688  

4689  #ifndef UTIL_TEX

4690  #  define UTIL_TEX

4691  uniform sampler2DArray utilTex;

4692  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

4693  #endif /* UTIL_TEX */

4694  

4695  in vec3 worldPosition;

4696  in vec3 viewPosition;

4697  

4698  #ifdef USE_FLAT_NORMAL

4699  flat in vec3 worldNormal;

4700  flat in vec3 viewNormal;

4701  #else

4702  in vec3 worldNormal;

4703  in vec3 viewNormal;

4704  #endif

4705  

4706  #ifdef HAIR_SHADER

4707  in vec3 hairTangent; /* world space */

4708  in float hairThickTime;

4709  in float hairThickness;

4710  in float hairTime;

4711  flat in int hairStrandID;

4712  

4713  uniform int hairThicknessRes = 1;

4714  #endif

4715  

4716  #endif /* LIT_SURFACE_UNIFORM */

4717  

4718  /** AUTO CONFIG

4719   * We include the file multiple times each time with a different configuration.

4720   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

4721   */

4722  #if !defined(SURFACE_DEFAULT)

4723  #define SURFACE_DEFAULT

4724  #define CLOSURE_NAME eevee_closure_default

4725  #define CLOSURE_DIFFUSE

4726  #define CLOSURE_GLOSSY

4727  #endif /* SURFACE_DEFAULT */

4728  

4729  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

4730  #define SURFACE_PRINCIPLED

4731  #define CLOSURE_NAME eevee_closure_principled

4732  #define CLOSURE_DIFFUSE

4733  #define CLOSURE_GLOSSY

4734  #define CLOSURE_CLEARCOAT

4735  #define CLOSURE_REFRACTION

4736  #define CLOSURE_SUBSURFACE

4737  #endif /* SURFACE_PRINCIPLED */

4738  

4739  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

4740  #define SURFACE_CLEARCOAT

4741  #define CLOSURE_NAME eevee_closure_clearcoat

4742  #define CLOSURE_GLOSSY

4743  #define CLOSURE_CLEARCOAT

4744  #endif /* SURFACE_CLEARCOAT */

4745  

4746  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

4747  #define SURFACE_DIFFUSE

4748  #define CLOSURE_NAME eevee_closure_diffuse

4749  #define CLOSURE_DIFFUSE

4750  #endif /* SURFACE_DIFFUSE */

4751  

4752  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

4753  #define SURFACE_SUBSURFACE

4754  #define CLOSURE_NAME eevee_closure_subsurface

4755  #define CLOSURE_DIFFUSE

4756  #define CLOSURE_SUBSURFACE

4757  #endif /* SURFACE_SUBSURFACE */

4758  

4759  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

4760  #define SURFACE_SKIN

4761  #define CLOSURE_NAME eevee_closure_skin

4762  #define CLOSURE_DIFFUSE

4763  #define CLOSURE_SUBSURFACE

4764  #define CLOSURE_GLOSSY

4765  #endif /* SURFACE_SKIN */

4766  

4767  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

4768  #define SURFACE_GLOSSY

4769  #define CLOSURE_NAME eevee_closure_glossy

4770  #define CLOSURE_GLOSSY

4771  #endif /* SURFACE_GLOSSY */

4772  

4773  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

4774  #define SURFACE_REFRACT

4775  #define CLOSURE_NAME eevee_closure_refraction

4776  #define CLOSURE_REFRACTION

4777  #endif /* SURFACE_REFRACT */

4778  

4779  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

4780  #define SURFACE_GLASS

4781  #define CLOSURE_NAME eevee_closure_glass

4782  #define CLOSURE_GLOSSY

4783  #define CLOSURE_REFRACTION

4784  #endif /* SURFACE_GLASS */

4785  

4786  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

4787  #ifdef CLOSURE_CLEARCOAT

4788  #ifndef CLOSURE_GLOSSY

4789  #  define CLOSURE_GLOSSY

4790  #endif

4791  #endif /* CLOSURE_CLEARCOAT */

4792  

4793  void CLOSURE_NAME(vec3 N

4794  #ifdef CLOSURE_DIFFUSE

4795                    ,

4796                    vec3 albedo

4797  #endif

4798  #ifdef CLOSURE_GLOSSY

4799                    ,

4800                    vec3 f0,

4801                    int ssr_id

4802  #endif

4803  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4804                    ,

4805                    float roughness

4806  #endif

4807  #ifdef CLOSURE_CLEARCOAT

4808                    ,

4809                    vec3 C_N,

4810                    float C_intensity,

4811                    float C_roughness

4812  #endif

4813  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4814                    ,

4815                    float ao

4816  #endif

4817  #ifdef CLOSURE_SUBSURFACE

4818                    ,

4819                    float sss_scale

4820  #endif

4821  #ifdef CLOSURE_REFRACTION

4822                    ,

4823                    float ior

4824  #endif

4825  #ifdef CLOSURE_DIFFUSE

4826                    ,

4827                    out vec3 out_diff

4828  #endif

4829  #ifdef CLOSURE_SUBSURFACE

4830                    ,

4831                    out vec3 out_trans

4832  #endif

4833  #ifdef CLOSURE_GLOSSY

4834                    ,

4835                    out vec3 out_spec

4836  #endif

4837  #ifdef CLOSURE_REFRACTION

4838                    ,

4839                    out vec3 out_refr

4840  #endif

4841  #ifdef CLOSURE_GLOSSY

4842                    ,

4843                    out vec3 ssr_spec

4844  #endif

4845  )

4846  {

4847  #ifdef CLOSURE_DIFFUSE

4848    out_diff = vec3(0.0);

4849  #endif

4850  

4851  #ifdef CLOSURE_SUBSURFACE

4852    out_trans = vec3(0.0);

4853  #endif

4854  

4855  #ifdef CLOSURE_GLOSSY

4856    out_spec = vec3(0.0);

4857  #endif

4858  

4859  #ifdef CLOSURE_REFRACTION

4860    out_refr = vec3(0.0);

4861  #endif

4862  

4863  #ifdef SHADOW_SHADER

4864    return;

4865  #endif

4866  

4867    /* Zero length vectors cause issues, see: T51979. */

4868    float len = length(N);

4869    if (isnan(len)) {

4870      return;

4871    }

4872    N /= len;

4873  

4874  #ifdef CLOSURE_CLEARCOAT

4875    len = length(C_N);

4876    if (isnan(len)) {

4877      return;

4878    }

4879    C_N /= len;

4880  #endif

4881  

4882  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4883    roughness = clamp(roughness, 1e-8, 0.9999);

4884    float roughnessSquared = roughness * roughness;

4885  #endif

4886  

4887  #ifdef CLOSURE_CLEARCOAT

4888    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

4889    float C_roughnessSquared = C_roughness * C_roughness;

4890  #endif

4891  

4892    vec3 V = cameraVec;

4893  

4894    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

4895  

4896    /* ---------------------------------------------------------------- */

4897    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

4898    /* ---------------------------------------------------------------- */

4899  

4900  #ifdef CLOSURE_GLOSSY

4901    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

4902    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

4903  #endif

4904  

4905  #ifdef CLOSURE_CLEARCOAT

4906    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

4907    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

4908    vec3 out_spec_clear = vec3(0.0);

4909  #endif

4910  

4911    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

4912      LightData ld = lights_data[i];

4913  

4914      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

4915      l_vector.xyz = ld.l_position - worldPosition;

4916      l_vector.w = length(l_vector.xyz);

4917  

4918      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

4919  

4920      if (l_vis < 1e-8) {

4921        continue;

4922      }

4923  

4924      vec3 l_color_vis = ld.l_color * l_vis;

4925  

4926  #ifdef CLOSURE_DIFFUSE

4927      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

4928  #endif

4929  

4930  #ifdef CLOSURE_SUBSURFACE

4931      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

4932  #endif

4933  

4934  #ifdef CLOSURE_GLOSSY

4935      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

4936  #endif

4937  

4938  #ifdef CLOSURE_CLEARCOAT

4939      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

4940                        ld.l_spec;

4941  #endif

4942    }

4943  

4944  #ifdef CLOSURE_GLOSSY

4945    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

4946    out_spec *= F_area(f0, brdf_lut_lights.xy);

4947  #endif

4948  

4949  #ifdef CLOSURE_CLEARCOAT

4950    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

4951    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

4952    out_spec += out_spec_clear * C_intensity;

4953  #endif

4954  

4955    /* ---------------------------------------------------------------- */

4956    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

4957    /* ---------------------------------------------------------------- */

4958  

4959    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4960  #ifdef CLOSURE_GLOSSY

4961    vec4 spec_accum = vec4(0.0);

4962  #endif

4963  

4964  #ifdef CLOSURE_CLEARCOAT

4965    vec4 C_spec_accum = vec4(0.0);

4966  #endif

4967  

4968  #ifdef CLOSURE_REFRACTION

4969    vec4 refr_accum = vec4(0.0);

4970  #endif

4971  

4972  #ifdef CLOSURE_GLOSSY

4973    /* ---------------------------- */

4974    /*      Planar Reflections      */

4975    /* ---------------------------- */

4976  

4977    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

4978      PlanarData pd = planars_data[i];

4979  

4980      /* Fade on geometric normal. */

4981      float fade = probe_attenuation_planar(

4982          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

4983  

4984      if (fade > 0.0) {

4985        if (!(ssrToggle && ssr_id == outputSsrId)) {

4986          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

4987          accumulate_light(spec, fade, spec_accum);

4988        }

4989  

4990  #ifdef CLOSURE_CLEARCOAT

4991        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

4992        accumulate_light(C_spec, fade, C_spec_accum);

4993  #endif

4994      }

4995    }

4996  #endif

4997  

4998  #ifdef CLOSURE_GLOSSY

4999    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

5000  #endif

5001  

5002  #ifdef CLOSURE_CLEARCOAT

5003    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

5004  #endif

5005  

5006  #ifdef CLOSURE_REFRACTION

5007    /* Refract the view vector using the depth heuristic.

5008     * Then later Refract a second time the already refracted

5009     * ray using the inverse ior. */

5010    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

5011    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

5012    vec3 refr_pos = (refractionDepth > 0.0) ?

5013                        line_plane_intersect(

5014                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

5015                        worldPosition;

5016    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

5017  #endif

5018  

5019  #ifdef CLOSURE_REFRACTION

5020  /* ---------------------------- */

5021  /*   Screen Space Refraction    */

5022  /* ---------------------------- */

5023  #ifdef USE_REFRACTION

5024    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

5025      /* Find approximated position of the 2nd refraction event. */

5026      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

5027                                                 viewPosition;

5028      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

5029      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

5030      accumulate_light(trans.rgb, trans.a, refr_accum);

5031    }

5032  #endif

5033  

5034  #endif

5035  

5036    /* ---------------------------- */

5037    /*       Specular probes        */

5038    /* ---------------------------- */

5039  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5040  

5041  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

5042  #  define GLASS_ACCUM 1

5043  #  define ACCUM min(refr_accum.a, spec_accum.a)

5044  #elif defined(CLOSURE_REFRACTION)

5045  #  define GLASS_ACCUM 0

5046  #  define ACCUM refr_accum.a

5047  #else

5048  #  define GLASS_ACCUM 0

5049  #  define ACCUM spec_accum.a

5050  #endif

5051  

5052    /* Starts at 1 because 0 is world probe */

5053    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

5054      float fade = probe_attenuation_cube(i, worldPosition);

5055  

5056      if (fade > 0.0) {

5057  

5058  #if GLASS_ACCUM

5059        if (spec_accum.a < 0.999) {

5060  #endif

5061  #ifdef CLOSURE_GLOSSY

5062          if (!(ssrToggle && ssr_id == outputSsrId)) {

5063            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

5064            accumulate_light(spec, fade, spec_accum);

5065          }

5066  #endif

5067  

5068  #ifdef CLOSURE_CLEARCOAT

5069          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

5070          accumulate_light(C_spec, fade, C_spec_accum);

5071  #endif

5072  #if GLASS_ACCUM

5073        }

5074  #endif

5075  

5076  #if GLASS_ACCUM

5077        if (refr_accum.a < 0.999) {

5078  #endif

5079  #ifdef CLOSURE_REFRACTION

5080          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

5081          accumulate_light(trans, fade, refr_accum);

5082  #endif

5083  #if GLASS_ACCUM

5084        }

5085  #endif

5086      }

5087    }

5088  

5089  #undef GLASS_ACCUM

5090  #undef ACCUM

5091  

5092  /* ---------------------------- */

5093  /*          World Probe         */

5094  /* ---------------------------- */

5095  #ifdef CLOSURE_GLOSSY

5096    if (spec_accum.a < 0.999) {

5097      if (!(ssrToggle && ssr_id == outputSsrId)) {

5098        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

5099        accumulate_light(spec, 1.0, spec_accum);

5100      }

5101  

5102  #  ifdef CLOSURE_CLEARCOAT

5103      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

5104      accumulate_light(C_spec, 1.0, C_spec_accum);

5105  #  endif

5106    }

5107  #endif

5108  

5109  #ifdef CLOSURE_REFRACTION

5110    if (refr_accum.a < 0.999) {

5111      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

5112      accumulate_light(trans, 1.0, refr_accum);

5113    }

5114  #endif

5115  #endif /* Specular probes */

5116  

5117    /* ---------------------------- */

5118    /*       Ambient Occlusion      */

5119    /* ---------------------------- */

5120  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5121    vec3 bent_normal;

5122    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

5123  #endif

5124  

5125    /* ---------------------------- */

5126    /*        Specular Output       */

5127    /* ---------------------------- */

5128    float NV = dot(N, V);

5129  #ifdef CLOSURE_GLOSSY

5130    vec2 uv = lut_coords(NV, roughness);

5131    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

5132  

5133    /* This factor is outputted to be used by SSR in order

5134     * to match the intensity of the regular reflections. */

5135    ssr_spec = F_ibl(f0, brdf_lut);

5136    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

5137  

5138    /* The SSR pass recompute the occlusion to not apply it to the SSR */

5139    if (ssrToggle && ssr_id == outputSsrId) {

5140      spec_occlu = 1.0;

5141    }

5142  

5143    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

5144  #endif

5145  

5146  #ifdef CLOSURE_REFRACTION

5147    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

5148  

5149    out_refr += refr_accum.rgb * btdf;

5150  #endif

5151  

5152  #ifdef CLOSURE_CLEARCOAT

5153    NV = dot(C_N, V);

5154    vec2 C_uv = lut_coords(NV, C_roughness);

5155    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

5156    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

5157  

5158    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

5159  #endif

5160  

5161  #ifdef CLOSURE_GLOSSY

5162    /* Global toggle for lightprobe baking. */

5163    out_spec *= float(specToggle);

5164  #endif

5165  

5166    /* ---------------------------------------------------------------- */

5167    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

5168    /* ---------------------------------------------------------------- */

5169  

5170    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

5171  #ifdef CLOSURE_DIFFUSE

5172    vec4 diff_accum = vec4(0.0);

5173  

5174    /* ---------------------------- */

5175    /*       Irradiance Grids       */

5176    /* ---------------------------- */

5177    /* Start at 1 because 0 is world irradiance */

5178    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

5179      GridData gd = grids_data[i];

5180  

5181      vec3 localpos;

5182      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

5183  

5184      if (fade > 0.0) {

5185        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

5186        accumulate_light(diff, fade, diff_accum);

5187      }

5188    }

5189  

5190    /* ---------------------------- */

5191    /*        World Diffuse         */

5192    /* ---------------------------- */

5193    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

5194      vec3 diff = probe_evaluate_world_diff(bent_normal);

5195      accumulate_light(diff, 1.0, diff_accum);

5196    }

5197  

5198    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

5199  #endif

5200  }

5201  

5202  /* Cleanup for next configuration */

5203  #undef CLOSURE_NAME

5204  

5205  #ifdef CLOSURE_DIFFUSE

5206  #undef CLOSURE_DIFFUSE

5207  #endif

5208  

5209  #ifdef CLOSURE_GLOSSY

5210  #undef CLOSURE_GLOSSY

5211  #endif

5212  

5213  #ifdef CLOSURE_CLEARCOAT

5214  #undef CLOSURE_CLEARCOAT

5215  #endif

5216  

5217  #ifdef CLOSURE_REFRACTION

5218  #undef CLOSURE_REFRACTION

5219  #endif

5220  

5221  #ifdef CLOSURE_SUBSURFACE

5222  #undef CLOSURE_SUBSURFACE

5223  #endif

5224  

5225  #ifndef LIT_SURFACE_UNIFORM

5226  #define LIT_SURFACE_UNIFORM

5227  

5228  uniform float refractionDepth;

5229  

5230  #ifndef UTIL_TEX

5231  #  define UTIL_TEX

5232  uniform sampler2DArray utilTex;

5233  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

5234  #endif /* UTIL_TEX */

5235  

5236  in vec3 worldPosition;

5237  in vec3 viewPosition;

5238  

5239  #ifdef USE_FLAT_NORMAL

5240  flat in vec3 worldNormal;

5241  flat in vec3 viewNormal;

5242  #else

5243  in vec3 worldNormal;

5244  in vec3 viewNormal;

5245  #endif

5246  

5247  #ifdef HAIR_SHADER

5248  in vec3 hairTangent; /* world space */

5249  in float hairThickTime;

5250  in float hairThickness;

5251  in float hairTime;

5252  flat in int hairStrandID;

5253  

5254  uniform int hairThicknessRes = 1;

5255  #endif

5256  

5257  #endif /* LIT_SURFACE_UNIFORM */

5258  

5259  /** AUTO CONFIG

5260   * We include the file multiple times each time with a different configuration.

5261   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

5262   */

5263  #if !defined(SURFACE_DEFAULT)

5264  #define SURFACE_DEFAULT

5265  #define CLOSURE_NAME eevee_closure_default

5266  #define CLOSURE_DIFFUSE

5267  #define CLOSURE_GLOSSY

5268  #endif /* SURFACE_DEFAULT */

5269  

5270  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

5271  #define SURFACE_PRINCIPLED

5272  #define CLOSURE_NAME eevee_closure_principled

5273  #define CLOSURE_DIFFUSE

5274  #define CLOSURE_GLOSSY

5275  #define CLOSURE_CLEARCOAT

5276  #define CLOSURE_REFRACTION

5277  #define CLOSURE_SUBSURFACE

5278  #endif /* SURFACE_PRINCIPLED */

5279  

5280  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

5281  #define SURFACE_CLEARCOAT

5282  #define CLOSURE_NAME eevee_closure_clearcoat

5283  #define CLOSURE_GLOSSY

5284  #define CLOSURE_CLEARCOAT

5285  #endif /* SURFACE_CLEARCOAT */

5286  

5287  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

5288  #define SURFACE_DIFFUSE

5289  #define CLOSURE_NAME eevee_closure_diffuse

5290  #define CLOSURE_DIFFUSE

5291  #endif /* SURFACE_DIFFUSE */

5292  

5293  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

5294  #define SURFACE_SUBSURFACE

5295  #define CLOSURE_NAME eevee_closure_subsurface

5296  #define CLOSURE_DIFFUSE

5297  #define CLOSURE_SUBSURFACE

5298  #endif /* SURFACE_SUBSURFACE */

5299  

5300  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

5301  #define SURFACE_SKIN

5302  #define CLOSURE_NAME eevee_closure_skin

5303  #define CLOSURE_DIFFUSE

5304  #define CLOSURE_SUBSURFACE

5305  #define CLOSURE_GLOSSY

5306  #endif /* SURFACE_SKIN */

5307  

5308  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

5309  #define SURFACE_GLOSSY

5310  #define CLOSURE_NAME eevee_closure_glossy

5311  #define CLOSURE_GLOSSY

5312  #endif /* SURFACE_GLOSSY */

5313  

5314  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

5315  #define SURFACE_REFRACT

5316  #define CLOSURE_NAME eevee_closure_refraction

5317  #define CLOSURE_REFRACTION

5318  #endif /* SURFACE_REFRACT */

5319  

5320  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

5321  #define SURFACE_GLASS

5322  #define CLOSURE_NAME eevee_closure_glass

5323  #define CLOSURE_GLOSSY

5324  #define CLOSURE_REFRACTION

5325  #endif /* SURFACE_GLASS */

5326  

5327  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

5328  #ifdef CLOSURE_CLEARCOAT

5329  #ifndef CLOSURE_GLOSSY

5330  #  define CLOSURE_GLOSSY

5331  #endif

5332  #endif /* CLOSURE_CLEARCOAT */

5333  

5334  void CLOSURE_NAME(vec3 N

5335  #ifdef CLOSURE_DIFFUSE

5336                    ,

5337                    vec3 albedo

5338  #endif

5339  #ifdef CLOSURE_GLOSSY

5340                    ,

5341                    vec3 f0,

5342                    int ssr_id

5343  #endif

5344  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5345                    ,

5346                    float roughness

5347  #endif

5348  #ifdef CLOSURE_CLEARCOAT

5349                    ,

5350                    vec3 C_N,

5351                    float C_intensity,

5352                    float C_roughness

5353  #endif

5354  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5355                    ,

5356                    float ao

5357  #endif

5358  #ifdef CLOSURE_SUBSURFACE

5359                    ,

5360                    float sss_scale

5361  #endif

5362  #ifdef CLOSURE_REFRACTION

5363                    ,

5364                    float ior

5365  #endif

5366  #ifdef CLOSURE_DIFFUSE

5367                    ,

5368                    out vec3 out_diff

5369  #endif

5370  #ifdef CLOSURE_SUBSURFACE

5371                    ,

5372                    out vec3 out_trans

5373  #endif

5374  #ifdef CLOSURE_GLOSSY

5375                    ,

5376                    out vec3 out_spec

5377  #endif

5378  #ifdef CLOSURE_REFRACTION

5379                    ,

5380                    out vec3 out_refr

5381  #endif

5382  #ifdef CLOSURE_GLOSSY

5383                    ,

5384                    out vec3 ssr_spec

5385  #endif

5386  )

5387  {

5388  #ifdef CLOSURE_DIFFUSE

5389    out_diff = vec3(0.0);

5390  #endif

5391  

5392  #ifdef CLOSURE_SUBSURFACE

5393    out_trans = vec3(0.0);

5394  #endif

5395  

5396  #ifdef CLOSURE_GLOSSY

5397    out_spec = vec3(0.0);

5398  #endif

5399  

5400  #ifdef CLOSURE_REFRACTION

5401    out_refr = vec3(0.0);

5402  #endif

5403  

5404  #ifdef SHADOW_SHADER

5405    return;

5406  #endif

5407  

5408    /* Zero length vectors cause issues, see: T51979. */

5409    float len = length(N);

5410    if (isnan(len)) {

5411      return;

5412    }

5413    N /= len;

5414  

5415  #ifdef CLOSURE_CLEARCOAT

5416    len = length(C_N);

5417    if (isnan(len)) {

5418      return;

5419    }

5420    C_N /= len;

5421  #endif

5422  

5423  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5424    roughness = clamp(roughness, 1e-8, 0.9999);

5425    float roughnessSquared = roughness * roughness;

5426  #endif

5427  

5428  #ifdef CLOSURE_CLEARCOAT

5429    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

5430    float C_roughnessSquared = C_roughness * C_roughness;

5431  #endif

5432  

5433    vec3 V = cameraVec;

5434  

5435    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

5436  

5437    /* ---------------------------------------------------------------- */

5438    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

5439    /* ---------------------------------------------------------------- */

5440  

5441  #ifdef CLOSURE_GLOSSY

5442    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

5443    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

5444  #endif

5445  

5446  #ifdef CLOSURE_CLEARCOAT

5447    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

5448    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

5449    vec3 out_spec_clear = vec3(0.0);

5450  #endif

5451  

5452    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

5453      LightData ld = lights_data[i];

5454  

5455      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

5456      l_vector.xyz = ld.l_position - worldPosition;

5457      l_vector.w = length(l_vector.xyz);

5458  

5459      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

5460  

5461      if (l_vis < 1e-8) {

5462        continue;

5463      }

5464  

5465      vec3 l_color_vis = ld.l_color * l_vis;

5466  

5467  #ifdef CLOSURE_DIFFUSE

5468      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

5469  #endif

5470  

5471  #ifdef CLOSURE_SUBSURFACE

5472      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

5473  #endif

5474  

5475  #ifdef CLOSURE_GLOSSY

5476      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

5477  #endif

5478  

5479  #ifdef CLOSURE_CLEARCOAT

5480      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

5481                        ld.l_spec;

5482  #endif

5483    }

5484  

5485  #ifdef CLOSURE_GLOSSY

5486    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

5487    out_spec *= F_area(f0, brdf_lut_lights.xy);

5488  #endif

5489  

5490  #ifdef CLOSURE_CLEARCOAT

5491    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

5492    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

5493    out_spec += out_spec_clear * C_intensity;

5494  #endif

5495  

5496    /* ---------------------------------------------------------------- */

5497    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

5498    /* ---------------------------------------------------------------- */

5499  

5500    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

5501  #ifdef CLOSURE_GLOSSY

5502    vec4 spec_accum = vec4(0.0);

5503  #endif

5504  

5505  #ifdef CLOSURE_CLEARCOAT

5506    vec4 C_spec_accum = vec4(0.0);

5507  #endif

5508  

5509  #ifdef CLOSURE_REFRACTION

5510    vec4 refr_accum = vec4(0.0);

5511  #endif

5512  

5513  #ifdef CLOSURE_GLOSSY

5514    /* ---------------------------- */

5515    /*      Planar Reflections      */

5516    /* ---------------------------- */

5517  

5518    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

5519      PlanarData pd = planars_data[i];

5520  

5521      /* Fade on geometric normal. */

5522      float fade = probe_attenuation_planar(

5523          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

5524  

5525      if (fade > 0.0) {

5526        if (!(ssrToggle && ssr_id == outputSsrId)) {

5527          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

5528          accumulate_light(spec, fade, spec_accum);

5529        }

5530  

5531  #ifdef CLOSURE_CLEARCOAT

5532        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

5533        accumulate_light(C_spec, fade, C_spec_accum);

5534  #endif

5535      }

5536    }

5537  #endif

5538  

5539  #ifdef CLOSURE_GLOSSY

5540    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

5541  #endif

5542  

5543  #ifdef CLOSURE_CLEARCOAT

5544    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

5545  #endif

5546  

5547  #ifdef CLOSURE_REFRACTION

5548    /* Refract the view vector using the depth heuristic.

5549     * Then later Refract a second time the already refracted

5550     * ray using the inverse ior. */

5551    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

5552    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

5553    vec3 refr_pos = (refractionDepth > 0.0) ?

5554                        line_plane_intersect(

5555                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

5556                        worldPosition;

5557    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

5558  #endif

5559  

5560  #ifdef CLOSURE_REFRACTION

5561  /* ---------------------------- */

5562  /*   Screen Space Refraction    */

5563  /* ---------------------------- */

5564  #ifdef USE_REFRACTION

5565    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

5566      /* Find approximated position of the 2nd refraction event. */

5567      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

5568                                                 viewPosition;

5569      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

5570      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

5571      accumulate_light(trans.rgb, trans.a, refr_accum);

5572    }

5573  #endif

5574  

5575  #endif

5576  

5577    /* ---------------------------- */

5578    /*       Specular probes        */

5579    /* ---------------------------- */

5580  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5581  

5582  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

5583  #  define GLASS_ACCUM 1

5584  #  define ACCUM min(refr_accum.a, spec_accum.a)

5585  #elif defined(CLOSURE_REFRACTION)

5586  #  define GLASS_ACCUM 0

5587  #  define ACCUM refr_accum.a

5588  #else

5589  #  define GLASS_ACCUM 0

5590  #  define ACCUM spec_accum.a

5591  #endif

5592  

5593    /* Starts at 1 because 0 is world probe */

5594    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

5595      float fade = probe_attenuation_cube(i, worldPosition);

5596  

5597      if (fade > 0.0) {

5598  

5599  #if GLASS_ACCUM

5600        if (spec_accum.a < 0.999) {

5601  #endif

5602  #ifdef CLOSURE_GLOSSY

5603          if (!(ssrToggle && ssr_id == outputSsrId)) {

5604            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

5605            accumulate_light(spec, fade, spec_accum);

5606          }

5607  #endif

5608  

5609  #ifdef CLOSURE_CLEARCOAT

5610          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

5611          accumulate_light(C_spec, fade, C_spec_accum);

5612  #endif

5613  #if GLASS_ACCUM

5614        }

5615  #endif

5616  

5617  #if GLASS_ACCUM

5618        if (refr_accum.a < 0.999) {

5619  #endif

5620  #ifdef CLOSURE_REFRACTION

5621          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

5622          accumulate_light(trans, fade, refr_accum);

5623  #endif

5624  #if GLASS_ACCUM

5625        }

5626  #endif

5627      }

5628    }

5629  

5630  #undef GLASS_ACCUM

5631  #undef ACCUM

5632  

5633  /* ---------------------------- */

5634  /*          World Probe         */

5635  /* ---------------------------- */

5636  #ifdef CLOSURE_GLOSSY

5637    if (spec_accum.a < 0.999) {

5638      if (!(ssrToggle && ssr_id == outputSsrId)) {

5639        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

5640        accumulate_light(spec, 1.0, spec_accum);

5641      }

5642  

5643  #  ifdef CLOSURE_CLEARCOAT

5644      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

5645      accumulate_light(C_spec, 1.0, C_spec_accum);

5646  #  endif

5647    }

5648  #endif

5649  

5650  #ifdef CLOSURE_REFRACTION

5651    if (refr_accum.a < 0.999) {

5652      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

5653      accumulate_light(trans, 1.0, refr_accum);

5654    }

5655  #endif

5656  #endif /* Specular probes */

5657  

5658    /* ---------------------------- */

5659    /*       Ambient Occlusion      */

5660    /* ---------------------------- */

5661  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5662    vec3 bent_normal;

5663    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

5664  #endif

5665  

5666    /* ---------------------------- */

5667    /*        Specular Output       */

5668    /* ---------------------------- */

5669    float NV = dot(N, V);

5670  #ifdef CLOSURE_GLOSSY

5671    vec2 uv = lut_coords(NV, roughness);

5672    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

5673  

5674    /* This factor is outputted to be used by SSR in order

5675     * to match the intensity of the regular reflections. */

5676    ssr_spec = F_ibl(f0, brdf_lut);

5677    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

5678  

5679    /* The SSR pass recompute the occlusion to not apply it to the SSR */

5680    if (ssrToggle && ssr_id == outputSsrId) {

5681      spec_occlu = 1.0;

5682    }

5683  

5684    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

5685  #endif

5686  

5687  #ifdef CLOSURE_REFRACTION

5688    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

5689  

5690    out_refr += refr_accum.rgb * btdf;

5691  #endif

5692  

5693  #ifdef CLOSURE_CLEARCOAT

5694    NV = dot(C_N, V);

5695    vec2 C_uv = lut_coords(NV, C_roughness);

5696    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

5697    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

5698  

5699    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

5700  #endif

5701  

5702  #ifdef CLOSURE_GLOSSY

5703    /* Global toggle for lightprobe baking. */

5704    out_spec *= float(specToggle);

5705  #endif

5706  

5707    /* ---------------------------------------------------------------- */

5708    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

5709    /* ---------------------------------------------------------------- */

5710  

5711    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

5712  #ifdef CLOSURE_DIFFUSE

5713    vec4 diff_accum = vec4(0.0);

5714  

5715    /* ---------------------------- */

5716    /*       Irradiance Grids       */

5717    /* ---------------------------- */

5718    /* Start at 1 because 0 is world irradiance */

5719    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

5720      GridData gd = grids_data[i];

5721  

5722      vec3 localpos;

5723      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

5724  

5725      if (fade > 0.0) {

5726        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

5727        accumulate_light(diff, fade, diff_accum);

5728      }

5729    }

5730  

5731    /* ---------------------------- */

5732    /*        World Diffuse         */

5733    /* ---------------------------- */

5734    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

5735      vec3 diff = probe_evaluate_world_diff(bent_normal);

5736      accumulate_light(diff, 1.0, diff_accum);

5737    }

5738  

5739    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

5740  #endif

5741  }

5742  

5743  /* Cleanup for next configuration */

5744  #undef CLOSURE_NAME

5745  

5746  #ifdef CLOSURE_DIFFUSE

5747  #undef CLOSURE_DIFFUSE

5748  #endif

5749  

5750  #ifdef CLOSURE_GLOSSY

5751  #undef CLOSURE_GLOSSY

5752  #endif

5753  

5754  #ifdef CLOSURE_CLEARCOAT

5755  #undef CLOSURE_CLEARCOAT

5756  #endif

5757  

5758  #ifdef CLOSURE_REFRACTION

5759  #undef CLOSURE_REFRACTION

5760  #endif

5761  

5762  #ifdef CLOSURE_SUBSURFACE

5763  #undef CLOSURE_SUBSURFACE

5764  #endif

5765  

5766  #ifndef LIT_SURFACE_UNIFORM

5767  #define LIT_SURFACE_UNIFORM

5768  

5769  uniform float refractionDepth;

5770  

5771  #ifndef UTIL_TEX

5772  #  define UTIL_TEX

5773  uniform sampler2DArray utilTex;

5774  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

5775  #endif /* UTIL_TEX */

5776  

5777  in vec3 worldPosition;

5778  in vec3 viewPosition;

5779  

5780  #ifdef USE_FLAT_NORMAL

5781  flat in vec3 worldNormal;

5782  flat in vec3 viewNormal;

5783  #else

5784  in vec3 worldNormal;

5785  in vec3 viewNormal;

5786  #endif

5787  

5788  #ifdef HAIR_SHADER

5789  in vec3 hairTangent; /* world space */

5790  in float hairThickTime;

5791  in float hairThickness;

5792  in float hairTime;

5793  flat in int hairStrandID;

5794  

5795  uniform int hairThicknessRes = 1;

5796  #endif

5797  

5798  #endif /* LIT_SURFACE_UNIFORM */

5799  

5800  /** AUTO CONFIG

5801   * We include the file multiple times each time with a different configuration.

5802   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

5803   */

5804  #if !defined(SURFACE_DEFAULT)

5805  #define SURFACE_DEFAULT

5806  #define CLOSURE_NAME eevee_closure_default

5807  #define CLOSURE_DIFFUSE

5808  #define CLOSURE_GLOSSY

5809  #endif /* SURFACE_DEFAULT */

5810  

5811  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

5812  #define SURFACE_PRINCIPLED

5813  #define CLOSURE_NAME eevee_closure_principled

5814  #define CLOSURE_DIFFUSE

5815  #define CLOSURE_GLOSSY

5816  #define CLOSURE_CLEARCOAT

5817  #define CLOSURE_REFRACTION

5818  #define CLOSURE_SUBSURFACE

5819  #endif /* SURFACE_PRINCIPLED */

5820  

5821  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

5822  #define SURFACE_CLEARCOAT

5823  #define CLOSURE_NAME eevee_closure_clearcoat

5824  #define CLOSURE_GLOSSY

5825  #define CLOSURE_CLEARCOAT

5826  #endif /* SURFACE_CLEARCOAT */

5827  

5828  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

5829  #define SURFACE_DIFFUSE

5830  #define CLOSURE_NAME eevee_closure_diffuse

5831  #define CLOSURE_DIFFUSE

5832  #endif /* SURFACE_DIFFUSE */

5833  

5834  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

5835  #define SURFACE_SUBSURFACE

5836  #define CLOSURE_NAME eevee_closure_subsurface

5837  #define CLOSURE_DIFFUSE

5838  #define CLOSURE_SUBSURFACE

5839  #endif /* SURFACE_SUBSURFACE */

5840  

5841  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

5842  #define SURFACE_SKIN

5843  #define CLOSURE_NAME eevee_closure_skin

5844  #define CLOSURE_DIFFUSE

5845  #define CLOSURE_SUBSURFACE

5846  #define CLOSURE_GLOSSY

5847  #endif /* SURFACE_SKIN */

5848  

5849  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

5850  #define SURFACE_GLOSSY

5851  #define CLOSURE_NAME eevee_closure_glossy

5852  #define CLOSURE_GLOSSY

5853  #endif /* SURFACE_GLOSSY */

5854  

5855  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

5856  #define SURFACE_REFRACT

5857  #define CLOSURE_NAME eevee_closure_refraction

5858  #define CLOSURE_REFRACTION

5859  #endif /* SURFACE_REFRACT */

5860  

5861  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

5862  #define SURFACE_GLASS

5863  #define CLOSURE_NAME eevee_closure_glass

5864  #define CLOSURE_GLOSSY

5865  #define CLOSURE_REFRACTION

5866  #endif /* SURFACE_GLASS */

5867  

5868  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

5869  #ifdef CLOSURE_CLEARCOAT

5870  #ifndef CLOSURE_GLOSSY

5871  #  define CLOSURE_GLOSSY

5872  #endif

5873  #endif /* CLOSURE_CLEARCOAT */

5874  

5875  void CLOSURE_NAME(vec3 N

5876  #ifdef CLOSURE_DIFFUSE

5877                    ,

5878                    vec3 albedo

5879  #endif

5880  #ifdef CLOSURE_GLOSSY

5881                    ,

5882                    vec3 f0,

5883                    int ssr_id

5884  #endif

5885  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5886                    ,

5887                    float roughness

5888  #endif

5889  #ifdef CLOSURE_CLEARCOAT

5890                    ,

5891                    vec3 C_N,

5892                    float C_intensity,

5893                    float C_roughness

5894  #endif

5895  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5896                    ,

5897                    float ao

5898  #endif

5899  #ifdef CLOSURE_SUBSURFACE

5900                    ,

5901                    float sss_scale

5902  #endif

5903  #ifdef CLOSURE_REFRACTION

5904                    ,

5905                    float ior

5906  #endif

5907  #ifdef CLOSURE_DIFFUSE

5908                    ,

5909                    out vec3 out_diff

5910  #endif

5911  #ifdef CLOSURE_SUBSURFACE

5912                    ,

5913                    out vec3 out_trans

5914  #endif

5915  #ifdef CLOSURE_GLOSSY

5916                    ,

5917                    out vec3 out_spec

5918  #endif

5919  #ifdef CLOSURE_REFRACTION

5920                    ,

5921                    out vec3 out_refr

5922  #endif

5923  #ifdef CLOSURE_GLOSSY

5924                    ,

5925                    out vec3 ssr_spec

5926  #endif

5927  )

5928  {

5929  #ifdef CLOSURE_DIFFUSE

5930    out_diff = vec3(0.0);

5931  #endif

5932  

5933  #ifdef CLOSURE_SUBSURFACE

5934    out_trans = vec3(0.0);

5935  #endif

5936  

5937  #ifdef CLOSURE_GLOSSY

5938    out_spec = vec3(0.0);

5939  #endif

5940  

5941  #ifdef CLOSURE_REFRACTION

5942    out_refr = vec3(0.0);

5943  #endif

5944  

5945  #ifdef SHADOW_SHADER

5946    return;

5947  #endif

5948  

5949    /* Zero length vectors cause issues, see: T51979. */

5950    float len = length(N);

5951    if (isnan(len)) {

5952      return;

5953    }

5954    N /= len;

5955  

5956  #ifdef CLOSURE_CLEARCOAT

5957    len = length(C_N);

5958    if (isnan(len)) {

5959      return;

5960    }

5961    C_N /= len;

5962  #endif

5963  

5964  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5965    roughness = clamp(roughness, 1e-8, 0.9999);

5966    float roughnessSquared = roughness * roughness;

5967  #endif

5968  

5969  #ifdef CLOSURE_CLEARCOAT

5970    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

5971    float C_roughnessSquared = C_roughness * C_roughness;

5972  #endif

5973  

5974    vec3 V = cameraVec;

5975  

5976    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

5977  

5978    /* ---------------------------------------------------------------- */

5979    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

5980    /* ---------------------------------------------------------------- */

5981  

5982  #ifdef CLOSURE_GLOSSY

5983    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

5984    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

5985  #endif

5986  

5987  #ifdef CLOSURE_CLEARCOAT

5988    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

5989    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

5990    vec3 out_spec_clear = vec3(0.0);

5991  #endif

5992  

5993    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

5994      LightData ld = lights_data[i];

5995  

5996      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

5997      l_vector.xyz = ld.l_position - worldPosition;

5998      l_vector.w = length(l_vector.xyz);

5999  

6000      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

6001  

6002      if (l_vis < 1e-8) {

6003        continue;

6004      }

6005  

6006      vec3 l_color_vis = ld.l_color * l_vis;

6007  

6008  #ifdef CLOSURE_DIFFUSE

6009      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

6010  #endif

6011  

6012  #ifdef CLOSURE_SUBSURFACE

6013      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

6014  #endif

6015  

6016  #ifdef CLOSURE_GLOSSY

6017      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

6018  #endif

6019  

6020  #ifdef CLOSURE_CLEARCOAT

6021      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

6022                        ld.l_spec;

6023  #endif

6024    }

6025  

6026  #ifdef CLOSURE_GLOSSY

6027    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

6028    out_spec *= F_area(f0, brdf_lut_lights.xy);

6029  #endif

6030  

6031  #ifdef CLOSURE_CLEARCOAT

6032    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

6033    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

6034    out_spec += out_spec_clear * C_intensity;

6035  #endif

6036  

6037    /* ---------------------------------------------------------------- */

6038    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

6039    /* ---------------------------------------------------------------- */

6040  

6041    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6042  #ifdef CLOSURE_GLOSSY

6043    vec4 spec_accum = vec4(0.0);

6044  #endif

6045  

6046  #ifdef CLOSURE_CLEARCOAT

6047    vec4 C_spec_accum = vec4(0.0);

6048  #endif

6049  

6050  #ifdef CLOSURE_REFRACTION

6051    vec4 refr_accum = vec4(0.0);

6052  #endif

6053  

6054  #ifdef CLOSURE_GLOSSY

6055    /* ---------------------------- */

6056    /*      Planar Reflections      */

6057    /* ---------------------------- */

6058  

6059    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

6060      PlanarData pd = planars_data[i];

6061  

6062      /* Fade on geometric normal. */

6063      float fade = probe_attenuation_planar(

6064          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

6065  

6066      if (fade > 0.0) {

6067        if (!(ssrToggle && ssr_id == outputSsrId)) {

6068          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

6069          accumulate_light(spec, fade, spec_accum);

6070        }

6071  

6072  #ifdef CLOSURE_CLEARCOAT

6073        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

6074        accumulate_light(C_spec, fade, C_spec_accum);

6075  #endif

6076      }

6077    }

6078  #endif

6079  

6080  #ifdef CLOSURE_GLOSSY

6081    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

6082  #endif

6083  

6084  #ifdef CLOSURE_CLEARCOAT

6085    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

6086  #endif

6087  

6088  #ifdef CLOSURE_REFRACTION

6089    /* Refract the view vector using the depth heuristic.

6090     * Then later Refract a second time the already refracted

6091     * ray using the inverse ior. */

6092    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

6093    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

6094    vec3 refr_pos = (refractionDepth > 0.0) ?

6095                        line_plane_intersect(

6096                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

6097                        worldPosition;

6098    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

6099  #endif

6100  

6101  #ifdef CLOSURE_REFRACTION

6102  /* ---------------------------- */

6103  /*   Screen Space Refraction    */

6104  /* ---------------------------- */

6105  #ifdef USE_REFRACTION

6106    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

6107      /* Find approximated position of the 2nd refraction event. */

6108      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

6109                                                 viewPosition;

6110      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

6111      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

6112      accumulate_light(trans.rgb, trans.a, refr_accum);

6113    }

6114  #endif

6115  

6116  #endif

6117  

6118    /* ---------------------------- */

6119    /*       Specular probes        */

6120    /* ---------------------------- */

6121  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6122  

6123  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

6124  #  define GLASS_ACCUM 1

6125  #  define ACCUM min(refr_accum.a, spec_accum.a)

6126  #elif defined(CLOSURE_REFRACTION)

6127  #  define GLASS_ACCUM 0

6128  #  define ACCUM refr_accum.a

6129  #else

6130  #  define GLASS_ACCUM 0

6131  #  define ACCUM spec_accum.a

6132  #endif

6133  

6134    /* Starts at 1 because 0 is world probe */

6135    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

6136      float fade = probe_attenuation_cube(i, worldPosition);

6137  

6138      if (fade > 0.0) {

6139  

6140  #if GLASS_ACCUM

6141        if (spec_accum.a < 0.999) {

6142  #endif

6143  #ifdef CLOSURE_GLOSSY

6144          if (!(ssrToggle && ssr_id == outputSsrId)) {

6145            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

6146            accumulate_light(spec, fade, spec_accum);

6147          }

6148  #endif

6149  

6150  #ifdef CLOSURE_CLEARCOAT

6151          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

6152          accumulate_light(C_spec, fade, C_spec_accum);

6153  #endif

6154  #if GLASS_ACCUM

6155        }

6156  #endif

6157  

6158  #if GLASS_ACCUM

6159        if (refr_accum.a < 0.999) {

6160  #endif

6161  #ifdef CLOSURE_REFRACTION

6162          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

6163          accumulate_light(trans, fade, refr_accum);

6164  #endif

6165  #if GLASS_ACCUM

6166        }

6167  #endif

6168      }

6169    }

6170  

6171  #undef GLASS_ACCUM

6172  #undef ACCUM

6173  

6174  /* ---------------------------- */

6175  /*          World Probe         */

6176  /* ---------------------------- */

6177  #ifdef CLOSURE_GLOSSY

6178    if (spec_accum.a < 0.999) {

6179      if (!(ssrToggle && ssr_id == outputSsrId)) {

6180        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

6181        accumulate_light(spec, 1.0, spec_accum);

6182      }

6183  

6184  #  ifdef CLOSURE_CLEARCOAT

6185      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

6186      accumulate_light(C_spec, 1.0, C_spec_accum);

6187  #  endif

6188    }

6189  #endif

6190  

6191  #ifdef CLOSURE_REFRACTION

6192    if (refr_accum.a < 0.999) {

6193      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

6194      accumulate_light(trans, 1.0, refr_accum);

6195    }

6196  #endif

6197  #endif /* Specular probes */

6198  

6199    /* ---------------------------- */

6200    /*       Ambient Occlusion      */

6201    /* ---------------------------- */

6202  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6203    vec3 bent_normal;

6204    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

6205  #endif

6206  

6207    /* ---------------------------- */

6208    /*        Specular Output       */

6209    /* ---------------------------- */

6210    float NV = dot(N, V);

6211  #ifdef CLOSURE_GLOSSY

6212    vec2 uv = lut_coords(NV, roughness);

6213    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

6214  

6215    /* This factor is outputted to be used by SSR in order

6216     * to match the intensity of the regular reflections. */

6217    ssr_spec = F_ibl(f0, brdf_lut);

6218    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

6219  

6220    /* The SSR pass recompute the occlusion to not apply it to the SSR */

6221    if (ssrToggle && ssr_id == outputSsrId) {

6222      spec_occlu = 1.0;

6223    }

6224  

6225    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

6226  #endif

6227  

6228  #ifdef CLOSURE_REFRACTION

6229    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

6230  

6231    out_refr += refr_accum.rgb * btdf;

6232  #endif

6233  

6234  #ifdef CLOSURE_CLEARCOAT

6235    NV = dot(C_N, V);

6236    vec2 C_uv = lut_coords(NV, C_roughness);

6237    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

6238    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

6239  

6240    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

6241  #endif

6242  

6243  #ifdef CLOSURE_GLOSSY

6244    /* Global toggle for lightprobe baking. */

6245    out_spec *= float(specToggle);

6246  #endif

6247  

6248    /* ---------------------------------------------------------------- */

6249    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

6250    /* ---------------------------------------------------------------- */

6251  

6252    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6253  #ifdef CLOSURE_DIFFUSE

6254    vec4 diff_accum = vec4(0.0);

6255  

6256    /* ---------------------------- */

6257    /*       Irradiance Grids       */

6258    /* ---------------------------- */

6259    /* Start at 1 because 0 is world irradiance */

6260    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

6261      GridData gd = grids_data[i];

6262  

6263      vec3 localpos;

6264      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

6265  

6266      if (fade > 0.0) {

6267        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

6268        accumulate_light(diff, fade, diff_accum);

6269      }

6270    }

6271  

6272    /* ---------------------------- */

6273    /*        World Diffuse         */

6274    /* ---------------------------- */

6275    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

6276      vec3 diff = probe_evaluate_world_diff(bent_normal);

6277      accumulate_light(diff, 1.0, diff_accum);

6278    }

6279  

6280    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

6281  #endif

6282  }

6283  

6284  /* Cleanup for next configuration */

6285  #undef CLOSURE_NAME

6286  

6287  #ifdef CLOSURE_DIFFUSE

6288  #undef CLOSURE_DIFFUSE

6289  #endif

6290  

6291  #ifdef CLOSURE_GLOSSY

6292  #undef CLOSURE_GLOSSY

6293  #endif

6294  

6295  #ifdef CLOSURE_CLEARCOAT

6296  #undef CLOSURE_CLEARCOAT

6297  #endif

6298  

6299  #ifdef CLOSURE_REFRACTION

6300  #undef CLOSURE_REFRACTION

6301  #endif

6302  

6303  #ifdef CLOSURE_SUBSURFACE

6304  #undef CLOSURE_SUBSURFACE

6305  #endif

6306  

6307  #ifndef LIT_SURFACE_UNIFORM

6308  #define LIT_SURFACE_UNIFORM

6309  

6310  uniform float refractionDepth;

6311  

6312  #ifndef UTIL_TEX

6313  #  define UTIL_TEX

6314  uniform sampler2DArray utilTex;

6315  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

6316  #endif /* UTIL_TEX */

6317  

6318  in vec3 worldPosition;

6319  in vec3 viewPosition;

6320  

6321  #ifdef USE_FLAT_NORMAL

6322  flat in vec3 worldNormal;

6323  flat in vec3 viewNormal;

6324  #else

6325  in vec3 worldNormal;

6326  in vec3 viewNormal;

6327  #endif

6328  

6329  #ifdef HAIR_SHADER

6330  in vec3 hairTangent; /* world space */

6331  in float hairThickTime;

6332  in float hairThickness;

6333  in float hairTime;

6334  flat in int hairStrandID;

6335  

6336  uniform int hairThicknessRes = 1;

6337  #endif

6338  

6339  #endif /* LIT_SURFACE_UNIFORM */

6340  

6341  /** AUTO CONFIG

6342   * We include the file multiple times each time with a different configuration.

6343   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

6344   */

6345  #if !defined(SURFACE_DEFAULT)

6346  #define SURFACE_DEFAULT

6347  #define CLOSURE_NAME eevee_closure_default

6348  #define CLOSURE_DIFFUSE

6349  #define CLOSURE_GLOSSY

6350  #endif /* SURFACE_DEFAULT */

6351  

6352  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

6353  #define SURFACE_PRINCIPLED

6354  #define CLOSURE_NAME eevee_closure_principled

6355  #define CLOSURE_DIFFUSE

6356  #define CLOSURE_GLOSSY

6357  #define CLOSURE_CLEARCOAT

6358  #define CLOSURE_REFRACTION

6359  #define CLOSURE_SUBSURFACE

6360  #endif /* SURFACE_PRINCIPLED */

6361  

6362  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

6363  #define SURFACE_CLEARCOAT

6364  #define CLOSURE_NAME eevee_closure_clearcoat

6365  #define CLOSURE_GLOSSY

6366  #define CLOSURE_CLEARCOAT

6367  #endif /* SURFACE_CLEARCOAT */

6368  

6369  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

6370  #define SURFACE_DIFFUSE

6371  #define CLOSURE_NAME eevee_closure_diffuse

6372  #define CLOSURE_DIFFUSE

6373  #endif /* SURFACE_DIFFUSE */

6374  

6375  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

6376  #define SURFACE_SUBSURFACE

6377  #define CLOSURE_NAME eevee_closure_subsurface

6378  #define CLOSURE_DIFFUSE

6379  #define CLOSURE_SUBSURFACE

6380  #endif /* SURFACE_SUBSURFACE */

6381  

6382  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

6383  #define SURFACE_SKIN

6384  #define CLOSURE_NAME eevee_closure_skin

6385  #define CLOSURE_DIFFUSE

6386  #define CLOSURE_SUBSURFACE

6387  #define CLOSURE_GLOSSY

6388  #endif /* SURFACE_SKIN */

6389  

6390  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

6391  #define SURFACE_GLOSSY

6392  #define CLOSURE_NAME eevee_closure_glossy

6393  #define CLOSURE_GLOSSY

6394  #endif /* SURFACE_GLOSSY */

6395  

6396  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

6397  #define SURFACE_REFRACT

6398  #define CLOSURE_NAME eevee_closure_refraction

6399  #define CLOSURE_REFRACTION

6400  #endif /* SURFACE_REFRACT */

6401  

6402  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

6403  #define SURFACE_GLASS

6404  #define CLOSURE_NAME eevee_closure_glass

6405  #define CLOSURE_GLOSSY

6406  #define CLOSURE_REFRACTION

6407  #endif /* SURFACE_GLASS */

6408  

6409  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

6410  #ifdef CLOSURE_CLEARCOAT

6411  #ifndef CLOSURE_GLOSSY

6412  #  define CLOSURE_GLOSSY

6413  #endif

6414  #endif /* CLOSURE_CLEARCOAT */

6415  

6416  void CLOSURE_NAME(vec3 N

6417  #ifdef CLOSURE_DIFFUSE

6418                    ,

6419                    vec3 albedo

6420  #endif

6421  #ifdef CLOSURE_GLOSSY

6422                    ,

6423                    vec3 f0,

6424                    int ssr_id

6425  #endif

6426  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6427                    ,

6428                    float roughness

6429  #endif

6430  #ifdef CLOSURE_CLEARCOAT

6431                    ,

6432                    vec3 C_N,

6433                    float C_intensity,

6434                    float C_roughness

6435  #endif

6436  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6437                    ,

6438                    float ao

6439  #endif

6440  #ifdef CLOSURE_SUBSURFACE

6441                    ,

6442                    float sss_scale

6443  #endif

6444  #ifdef CLOSURE_REFRACTION

6445                    ,

6446                    float ior

6447  #endif

6448  #ifdef CLOSURE_DIFFUSE

6449                    ,

6450                    out vec3 out_diff

6451  #endif

6452  #ifdef CLOSURE_SUBSURFACE

6453                    ,

6454                    out vec3 out_trans

6455  #endif

6456  #ifdef CLOSURE_GLOSSY

6457                    ,

6458                    out vec3 out_spec

6459  #endif

6460  #ifdef CLOSURE_REFRACTION

6461                    ,

6462                    out vec3 out_refr

6463  #endif

6464  #ifdef CLOSURE_GLOSSY

6465                    ,

6466                    out vec3 ssr_spec

6467  #endif

6468  )

6469  {

6470  #ifdef CLOSURE_DIFFUSE

6471    out_diff = vec3(0.0);

6472  #endif

6473  

6474  #ifdef CLOSURE_SUBSURFACE

6475    out_trans = vec3(0.0);

6476  #endif

6477  

6478  #ifdef CLOSURE_GLOSSY

6479    out_spec = vec3(0.0);

6480  #endif

6481  

6482  #ifdef CLOSURE_REFRACTION

6483    out_refr = vec3(0.0);

6484  #endif

6485  

6486  #ifdef SHADOW_SHADER

6487    return;

6488  #endif

6489  

6490    /* Zero length vectors cause issues, see: T51979. */

6491    float len = length(N);

6492    if (isnan(len)) {

6493      return;

6494    }

6495    N /= len;

6496  

6497  #ifdef CLOSURE_CLEARCOAT

6498    len = length(C_N);

6499    if (isnan(len)) {

6500      return;

6501    }

6502    C_N /= len;

6503  #endif

6504  

6505  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6506    roughness = clamp(roughness, 1e-8, 0.9999);

6507    float roughnessSquared = roughness * roughness;

6508  #endif

6509  

6510  #ifdef CLOSURE_CLEARCOAT

6511    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

6512    float C_roughnessSquared = C_roughness * C_roughness;

6513  #endif

6514  

6515    vec3 V = cameraVec;

6516  

6517    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

6518  

6519    /* ---------------------------------------------------------------- */

6520    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

6521    /* ---------------------------------------------------------------- */

6522  

6523  #ifdef CLOSURE_GLOSSY

6524    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

6525    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

6526  #endif

6527  

6528  #ifdef CLOSURE_CLEARCOAT

6529    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

6530    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

6531    vec3 out_spec_clear = vec3(0.0);

6532  #endif

6533  

6534    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

6535      LightData ld = lights_data[i];

6536  

6537      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

6538      l_vector.xyz = ld.l_position - worldPosition;

6539      l_vector.w = length(l_vector.xyz);

6540  

6541      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

6542  

6543      if (l_vis < 1e-8) {

6544        continue;

6545      }

6546  

6547      vec3 l_color_vis = ld.l_color * l_vis;

6548  

6549  #ifdef CLOSURE_DIFFUSE

6550      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

6551  #endif

6552  

6553  #ifdef CLOSURE_SUBSURFACE

6554      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

6555  #endif

6556  

6557  #ifdef CLOSURE_GLOSSY

6558      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

6559  #endif

6560  

6561  #ifdef CLOSURE_CLEARCOAT

6562      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

6563                        ld.l_spec;

6564  #endif

6565    }

6566  

6567  #ifdef CLOSURE_GLOSSY

6568    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

6569    out_spec *= F_area(f0, brdf_lut_lights.xy);

6570  #endif

6571  

6572  #ifdef CLOSURE_CLEARCOAT

6573    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

6574    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

6575    out_spec += out_spec_clear * C_intensity;

6576  #endif

6577  

6578    /* ---------------------------------------------------------------- */

6579    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

6580    /* ---------------------------------------------------------------- */

6581  

6582    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6583  #ifdef CLOSURE_GLOSSY

6584    vec4 spec_accum = vec4(0.0);

6585  #endif

6586  

6587  #ifdef CLOSURE_CLEARCOAT

6588    vec4 C_spec_accum = vec4(0.0);

6589  #endif

6590  

6591  #ifdef CLOSURE_REFRACTION

6592    vec4 refr_accum = vec4(0.0);

6593  #endif

6594  

6595  #ifdef CLOSURE_GLOSSY

6596    /* ---------------------------- */

6597    /*      Planar Reflections      */

6598    /* ---------------------------- */

6599  

6600    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

6601      PlanarData pd = planars_data[i];

6602  

6603      /* Fade on geometric normal. */

6604      float fade = probe_attenuation_planar(

6605          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

6606  

6607      if (fade > 0.0) {

6608        if (!(ssrToggle && ssr_id == outputSsrId)) {

6609          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

6610          accumulate_light(spec, fade, spec_accum);

6611        }

6612  

6613  #ifdef CLOSURE_CLEARCOAT

6614        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

6615        accumulate_light(C_spec, fade, C_spec_accum);

6616  #endif

6617      }

6618    }

6619  #endif

6620  

6621  #ifdef CLOSURE_GLOSSY

6622    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

6623  #endif

6624  

6625  #ifdef CLOSURE_CLEARCOAT

6626    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

6627  #endif

6628  

6629  #ifdef CLOSURE_REFRACTION

6630    /* Refract the view vector using the depth heuristic.

6631     * Then later Refract a second time the already refracted

6632     * ray using the inverse ior. */

6633    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

6634    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

6635    vec3 refr_pos = (refractionDepth > 0.0) ?

6636                        line_plane_intersect(

6637                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

6638                        worldPosition;

6639    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

6640  #endif

6641  

6642  #ifdef CLOSURE_REFRACTION

6643  /* ---------------------------- */

6644  /*   Screen Space Refraction    */

6645  /* ---------------------------- */

6646  #ifdef USE_REFRACTION

6647    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

6648      /* Find approximated position of the 2nd refraction event. */

6649      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

6650                                                 viewPosition;

6651      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

6652      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

6653      accumulate_light(trans.rgb, trans.a, refr_accum);

6654    }

6655  #endif

6656  

6657  #endif

6658  

6659    /* ---------------------------- */

6660    /*       Specular probes        */

6661    /* ---------------------------- */

6662  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6663  

6664  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

6665  #  define GLASS_ACCUM 1

6666  #  define ACCUM min(refr_accum.a, spec_accum.a)

6667  #elif defined(CLOSURE_REFRACTION)

6668  #  define GLASS_ACCUM 0

6669  #  define ACCUM refr_accum.a

6670  #else

6671  #  define GLASS_ACCUM 0

6672  #  define ACCUM spec_accum.a

6673  #endif

6674  

6675    /* Starts at 1 because 0 is world probe */

6676    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

6677      float fade = probe_attenuation_cube(i, worldPosition);

6678  

6679      if (fade > 0.0) {

6680  

6681  #if GLASS_ACCUM

6682        if (spec_accum.a < 0.999) {

6683  #endif

6684  #ifdef CLOSURE_GLOSSY

6685          if (!(ssrToggle && ssr_id == outputSsrId)) {

6686            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

6687            accumulate_light(spec, fade, spec_accum);

6688          }

6689  #endif

6690  

6691  #ifdef CLOSURE_CLEARCOAT

6692          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

6693          accumulate_light(C_spec, fade, C_spec_accum);

6694  #endif

6695  #if GLASS_ACCUM

6696        }

6697  #endif

6698  

6699  #if GLASS_ACCUM

6700        if (refr_accum.a < 0.999) {

6701  #endif

6702  #ifdef CLOSURE_REFRACTION

6703          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

6704          accumulate_light(trans, fade, refr_accum);

6705  #endif

6706  #if GLASS_ACCUM

6707        }

6708  #endif

6709      }

6710    }

6711  

6712  #undef GLASS_ACCUM

6713  #undef ACCUM

6714  

6715  /* ---------------------------- */

6716  /*          World Probe         */

6717  /* ---------------------------- */

6718  #ifdef CLOSURE_GLOSSY

6719    if (spec_accum.a < 0.999) {

6720      if (!(ssrToggle && ssr_id == outputSsrId)) {

6721        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

6722        accumulate_light(spec, 1.0, spec_accum);

6723      }

6724  

6725  #  ifdef CLOSURE_CLEARCOAT

6726      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

6727      accumulate_light(C_spec, 1.0, C_spec_accum);

6728  #  endif

6729    }

6730  #endif

6731  

6732  #ifdef CLOSURE_REFRACTION

6733    if (refr_accum.a < 0.999) {

6734      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

6735      accumulate_light(trans, 1.0, refr_accum);

6736    }

6737  #endif

6738  #endif /* Specular probes */

6739  

6740    /* ---------------------------- */

6741    /*       Ambient Occlusion      */

6742    /* ---------------------------- */

6743  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6744    vec3 bent_normal;

6745    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

6746  #endif

6747  

6748    /* ---------------------------- */

6749    /*        Specular Output       */

6750    /* ---------------------------- */

6751    float NV = dot(N, V);

6752  #ifdef CLOSURE_GLOSSY

6753    vec2 uv = lut_coords(NV, roughness);

6754    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

6755  

6756    /* This factor is outputted to be used by SSR in order

6757     * to match the intensity of the regular reflections. */

6758    ssr_spec = F_ibl(f0, brdf_lut);

6759    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

6760  

6761    /* The SSR pass recompute the occlusion to not apply it to the SSR */

6762    if (ssrToggle && ssr_id == outputSsrId) {

6763      spec_occlu = 1.0;

6764    }

6765  

6766    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

6767  #endif

6768  

6769  #ifdef CLOSURE_REFRACTION

6770    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

6771  

6772    out_refr += refr_accum.rgb * btdf;

6773  #endif

6774  

6775  #ifdef CLOSURE_CLEARCOAT

6776    NV = dot(C_N, V);

6777    vec2 C_uv = lut_coords(NV, C_roughness);

6778    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

6779    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

6780  

6781    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

6782  #endif

6783  

6784  #ifdef CLOSURE_GLOSSY

6785    /* Global toggle for lightprobe baking. */

6786    out_spec *= float(specToggle);

6787  #endif

6788  

6789    /* ---------------------------------------------------------------- */

6790    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

6791    /* ---------------------------------------------------------------- */

6792  

6793    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6794  #ifdef CLOSURE_DIFFUSE

6795    vec4 diff_accum = vec4(0.0);

6796  

6797    /* ---------------------------- */

6798    /*       Irradiance Grids       */

6799    /* ---------------------------- */

6800    /* Start at 1 because 0 is world irradiance */

6801    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

6802      GridData gd = grids_data[i];

6803  

6804      vec3 localpos;

6805      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

6806  

6807      if (fade > 0.0) {

6808        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

6809        accumulate_light(diff, fade, diff_accum);

6810      }

6811    }

6812  

6813    /* ---------------------------- */

6814    /*        World Diffuse         */

6815    /* ---------------------------- */

6816    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

6817      vec3 diff = probe_evaluate_world_diff(bent_normal);

6818      accumulate_light(diff, 1.0, diff_accum);

6819    }

6820  

6821    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

6822  #endif

6823  }

6824  

6825  /* Cleanup for next configuration */

6826  #undef CLOSURE_NAME

6827  

6828  #ifdef CLOSURE_DIFFUSE

6829  #undef CLOSURE_DIFFUSE

6830  #endif

6831  

6832  #ifdef CLOSURE_GLOSSY

6833  #undef CLOSURE_GLOSSY

6834  #endif

6835  

6836  #ifdef CLOSURE_CLEARCOAT

6837  #undef CLOSURE_CLEARCOAT

6838  #endif

6839  

6840  #ifdef CLOSURE_REFRACTION

6841  #undef CLOSURE_REFRACTION

6842  #endif

6843  

6844  #ifdef CLOSURE_SUBSURFACE

6845  #undef CLOSURE_SUBSURFACE

6846  #endif

6847  

6848  #ifndef LIT_SURFACE_UNIFORM

6849  #define LIT_SURFACE_UNIFORM

6850  

6851  uniform float refractionDepth;

6852  

6853  #ifndef UTIL_TEX

6854  #  define UTIL_TEX

6855  uniform sampler2DArray utilTex;

6856  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

6857  #endif /* UTIL_TEX */

6858  

6859  in vec3 worldPosition;

6860  in vec3 viewPosition;

6861  

6862  #ifdef USE_FLAT_NORMAL

6863  flat in vec3 worldNormal;

6864  flat in vec3 viewNormal;

6865  #else

6866  in vec3 worldNormal;

6867  in vec3 viewNormal;

6868  #endif

6869  

6870  #ifdef HAIR_SHADER

6871  in vec3 hairTangent; /* world space */

6872  in float hairThickTime;

6873  in float hairThickness;

6874  in float hairTime;

6875  flat in int hairStrandID;

6876  

6877  uniform int hairThicknessRes = 1;

6878  #endif

6879  

6880  #endif /* LIT_SURFACE_UNIFORM */

6881  

6882  /** AUTO CONFIG

6883   * We include the file multiple times each time with a different configuration.

6884   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

6885   */

6886  #if !defined(SURFACE_DEFAULT)

6887  #define SURFACE_DEFAULT

6888  #define CLOSURE_NAME eevee_closure_default

6889  #define CLOSURE_DIFFUSE

6890  #define CLOSURE_GLOSSY

6891  #endif /* SURFACE_DEFAULT */

6892  

6893  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

6894  #define SURFACE_PRINCIPLED

6895  #define CLOSURE_NAME eevee_closure_principled

6896  #define CLOSURE_DIFFUSE

6897  #define CLOSURE_GLOSSY

6898  #define CLOSURE_CLEARCOAT

6899  #define CLOSURE_REFRACTION

6900  #define CLOSURE_SUBSURFACE

6901  #endif /* SURFACE_PRINCIPLED */

6902  

6903  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

6904  #define SURFACE_CLEARCOAT

6905  #define CLOSURE_NAME eevee_closure_clearcoat

6906  #define CLOSURE_GLOSSY

6907  #define CLOSURE_CLEARCOAT

6908  #endif /* SURFACE_CLEARCOAT */

6909  

6910  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

6911  #define SURFACE_DIFFUSE

6912  #define CLOSURE_NAME eevee_closure_diffuse

6913  #define CLOSURE_DIFFUSE

6914  #endif /* SURFACE_DIFFUSE */

6915  

6916  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

6917  #define SURFACE_SUBSURFACE

6918  #define CLOSURE_NAME eevee_closure_subsurface

6919  #define CLOSURE_DIFFUSE

6920  #define CLOSURE_SUBSURFACE

6921  #endif /* SURFACE_SUBSURFACE */

6922  

6923  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

6924  #define SURFACE_SKIN

6925  #define CLOSURE_NAME eevee_closure_skin

6926  #define CLOSURE_DIFFUSE

6927  #define CLOSURE_SUBSURFACE

6928  #define CLOSURE_GLOSSY

6929  #endif /* SURFACE_SKIN */

6930  

6931  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

6932  #define SURFACE_GLOSSY

6933  #define CLOSURE_NAME eevee_closure_glossy

6934  #define CLOSURE_GLOSSY

6935  #endif /* SURFACE_GLOSSY */

6936  

6937  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

6938  #define SURFACE_REFRACT

6939  #define CLOSURE_NAME eevee_closure_refraction

6940  #define CLOSURE_REFRACTION

6941  #endif /* SURFACE_REFRACT */

6942  

6943  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

6944  #define SURFACE_GLASS

6945  #define CLOSURE_NAME eevee_closure_glass

6946  #define CLOSURE_GLOSSY

6947  #define CLOSURE_REFRACTION

6948  #endif /* SURFACE_GLASS */

6949  

6950  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

6951  #ifdef CLOSURE_CLEARCOAT

6952  #ifndef CLOSURE_GLOSSY

6953  #  define CLOSURE_GLOSSY

6954  #endif

6955  #endif /* CLOSURE_CLEARCOAT */

6956  

6957  void CLOSURE_NAME(vec3 N

6958  #ifdef CLOSURE_DIFFUSE

6959                    ,

6960                    vec3 albedo

6961  #endif

6962  #ifdef CLOSURE_GLOSSY

6963                    ,

6964                    vec3 f0,

6965                    int ssr_id

6966  #endif

6967  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6968                    ,

6969                    float roughness

6970  #endif

6971  #ifdef CLOSURE_CLEARCOAT

6972                    ,

6973                    vec3 C_N,

6974                    float C_intensity,

6975                    float C_roughness

6976  #endif

6977  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6978                    ,

6979                    float ao

6980  #endif

6981  #ifdef CLOSURE_SUBSURFACE

6982                    ,

6983                    float sss_scale

6984  #endif

6985  #ifdef CLOSURE_REFRACTION

6986                    ,

6987                    float ior

6988  #endif

6989  #ifdef CLOSURE_DIFFUSE

6990                    ,

6991                    out vec3 out_diff

6992  #endif

6993  #ifdef CLOSURE_SUBSURFACE

6994                    ,

6995                    out vec3 out_trans

6996  #endif

6997  #ifdef CLOSURE_GLOSSY

6998                    ,

6999                    out vec3 out_spec

7000  #endif

7001  #ifdef CLOSURE_REFRACTION

7002                    ,

7003                    out vec3 out_refr

7004  #endif

7005  #ifdef CLOSURE_GLOSSY

7006                    ,

7007                    out vec3 ssr_spec

7008  #endif

7009  )

7010  {

7011  #ifdef CLOSURE_DIFFUSE

7012    out_diff = vec3(0.0);

7013  #endif

7014  

7015  #ifdef CLOSURE_SUBSURFACE

7016    out_trans = vec3(0.0);

7017  #endif

7018  

7019  #ifdef CLOSURE_GLOSSY

7020    out_spec = vec3(0.0);

7021  #endif

7022  

7023  #ifdef CLOSURE_REFRACTION

7024    out_refr = vec3(0.0);

7025  #endif

7026  

7027  #ifdef SHADOW_SHADER

7028    return;

7029  #endif

7030  

7031    /* Zero length vectors cause issues, see: T51979. */

7032    float len = length(N);

7033    if (isnan(len)) {

7034      return;

7035    }

7036    N /= len;

7037  

7038  #ifdef CLOSURE_CLEARCOAT

7039    len = length(C_N);

7040    if (isnan(len)) {

7041      return;

7042    }

7043    C_N /= len;

7044  #endif

7045  

7046  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7047    roughness = clamp(roughness, 1e-8, 0.9999);

7048    float roughnessSquared = roughness * roughness;

7049  #endif

7050  

7051  #ifdef CLOSURE_CLEARCOAT

7052    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

7053    float C_roughnessSquared = C_roughness * C_roughness;

7054  #endif

7055  

7056    vec3 V = cameraVec;

7057  

7058    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

7059  

7060    /* ---------------------------------------------------------------- */

7061    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

7062    /* ---------------------------------------------------------------- */

7063  

7064  #ifdef CLOSURE_GLOSSY

7065    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

7066    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

7067  #endif

7068  

7069  #ifdef CLOSURE_CLEARCOAT

7070    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

7071    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

7072    vec3 out_spec_clear = vec3(0.0);

7073  #endif

7074  

7075    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

7076      LightData ld = lights_data[i];

7077  

7078      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

7079      l_vector.xyz = ld.l_position - worldPosition;

7080      l_vector.w = length(l_vector.xyz);

7081  

7082      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

7083  

7084      if (l_vis < 1e-8) {

7085        continue;

7086      }

7087  

7088      vec3 l_color_vis = ld.l_color * l_vis;

7089  

7090  #ifdef CLOSURE_DIFFUSE

7091      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

7092  #endif

7093  

7094  #ifdef CLOSURE_SUBSURFACE

7095      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

7096  #endif

7097  

7098  #ifdef CLOSURE_GLOSSY

7099      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

7100  #endif

7101  

7102  #ifdef CLOSURE_CLEARCOAT

7103      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

7104                        ld.l_spec;

7105  #endif

7106    }

7107  

7108  #ifdef CLOSURE_GLOSSY

7109    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

7110    out_spec *= F_area(f0, brdf_lut_lights.xy);

7111  #endif

7112  

7113  #ifdef CLOSURE_CLEARCOAT

7114    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

7115    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

7116    out_spec += out_spec_clear * C_intensity;

7117  #endif

7118  

7119    /* ---------------------------------------------------------------- */

7120    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

7121    /* ---------------------------------------------------------------- */

7122  

7123    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7124  #ifdef CLOSURE_GLOSSY

7125    vec4 spec_accum = vec4(0.0);

7126  #endif

7127  

7128  #ifdef CLOSURE_CLEARCOAT

7129    vec4 C_spec_accum = vec4(0.0);

7130  #endif

7131  

7132  #ifdef CLOSURE_REFRACTION

7133    vec4 refr_accum = vec4(0.0);

7134  #endif

7135  

7136  #ifdef CLOSURE_GLOSSY

7137    /* ---------------------------- */

7138    /*      Planar Reflections      */

7139    /* ---------------------------- */

7140  

7141    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

7142      PlanarData pd = planars_data[i];

7143  

7144      /* Fade on geometric normal. */

7145      float fade = probe_attenuation_planar(

7146          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

7147  

7148      if (fade > 0.0) {

7149        if (!(ssrToggle && ssr_id == outputSsrId)) {

7150          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

7151          accumulate_light(spec, fade, spec_accum);

7152        }

7153  

7154  #ifdef CLOSURE_CLEARCOAT

7155        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

7156        accumulate_light(C_spec, fade, C_spec_accum);

7157  #endif

7158      }

7159    }

7160  #endif

7161  

7162  #ifdef CLOSURE_GLOSSY

7163    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

7164  #endif

7165  

7166  #ifdef CLOSURE_CLEARCOAT

7167    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

7168  #endif

7169  

7170  #ifdef CLOSURE_REFRACTION

7171    /* Refract the view vector using the depth heuristic.

7172     * Then later Refract a second time the already refracted

7173     * ray using the inverse ior. */

7174    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

7175    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

7176    vec3 refr_pos = (refractionDepth > 0.0) ?

7177                        line_plane_intersect(

7178                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

7179                        worldPosition;

7180    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

7181  #endif

7182  

7183  #ifdef CLOSURE_REFRACTION

7184  /* ---------------------------- */

7185  /*   Screen Space Refraction    */

7186  /* ---------------------------- */

7187  #ifdef USE_REFRACTION

7188    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

7189      /* Find approximated position of the 2nd refraction event. */

7190      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

7191                                                 viewPosition;

7192      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

7193      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

7194      accumulate_light(trans.rgb, trans.a, refr_accum);

7195    }

7196  #endif

7197  

7198  #endif

7199  

7200    /* ---------------------------- */

7201    /*       Specular probes        */

7202    /* ---------------------------- */

7203  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7204  

7205  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

7206  #  define GLASS_ACCUM 1

7207  #  define ACCUM min(refr_accum.a, spec_accum.a)

7208  #elif defined(CLOSURE_REFRACTION)

7209  #  define GLASS_ACCUM 0

7210  #  define ACCUM refr_accum.a

7211  #else

7212  #  define GLASS_ACCUM 0

7213  #  define ACCUM spec_accum.a

7214  #endif

7215  

7216    /* Starts at 1 because 0 is world probe */

7217    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

7218      float fade = probe_attenuation_cube(i, worldPosition);

7219  

7220      if (fade > 0.0) {

7221  

7222  #if GLASS_ACCUM

7223        if (spec_accum.a < 0.999) {

7224  #endif

7225  #ifdef CLOSURE_GLOSSY

7226          if (!(ssrToggle && ssr_id == outputSsrId)) {

7227            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

7228            accumulate_light(spec, fade, spec_accum);

7229          }

7230  #endif

7231  

7232  #ifdef CLOSURE_CLEARCOAT

7233          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

7234          accumulate_light(C_spec, fade, C_spec_accum);

7235  #endif

7236  #if GLASS_ACCUM

7237        }

7238  #endif

7239  

7240  #if GLASS_ACCUM

7241        if (refr_accum.a < 0.999) {

7242  #endif

7243  #ifdef CLOSURE_REFRACTION

7244          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

7245          accumulate_light(trans, fade, refr_accum);

7246  #endif

7247  #if GLASS_ACCUM

7248        }

7249  #endif

7250      }

7251    }

7252  

7253  #undef GLASS_ACCUM

7254  #undef ACCUM

7255  

7256  /* ---------------------------- */

7257  /*          World Probe         */

7258  /* ---------------------------- */

7259  #ifdef CLOSURE_GLOSSY

7260    if (spec_accum.a < 0.999) {

7261      if (!(ssrToggle && ssr_id == outputSsrId)) {

7262        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

7263        accumulate_light(spec, 1.0, spec_accum);

7264      }

7265  

7266  #  ifdef CLOSURE_CLEARCOAT

7267      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

7268      accumulate_light(C_spec, 1.0, C_spec_accum);

7269  #  endif

7270    }

7271  #endif

7272  

7273  #ifdef CLOSURE_REFRACTION

7274    if (refr_accum.a < 0.999) {

7275      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

7276      accumulate_light(trans, 1.0, refr_accum);

7277    }

7278  #endif

7279  #endif /* Specular probes */

7280  

7281    /* ---------------------------- */

7282    /*       Ambient Occlusion      */

7283    /* ---------------------------- */

7284  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

7285    vec3 bent_normal;

7286    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

7287  #endif

7288  

7289    /* ---------------------------- */

7290    /*        Specular Output       */

7291    /* ---------------------------- */

7292    float NV = dot(N, V);

7293  #ifdef CLOSURE_GLOSSY

7294    vec2 uv = lut_coords(NV, roughness);

7295    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

7296  

7297    /* This factor is outputted to be used by SSR in order

7298     * to match the intensity of the regular reflections. */

7299    ssr_spec = F_ibl(f0, brdf_lut);

7300    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

7301  

7302    /* The SSR pass recompute the occlusion to not apply it to the SSR */

7303    if (ssrToggle && ssr_id == outputSsrId) {

7304      spec_occlu = 1.0;

7305    }

7306  

7307    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

7308  #endif

7309  

7310  #ifdef CLOSURE_REFRACTION

7311    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

7312  

7313    out_refr += refr_accum.rgb * btdf;

7314  #endif

7315  

7316  #ifdef CLOSURE_CLEARCOAT

7317    NV = dot(C_N, V);

7318    vec2 C_uv = lut_coords(NV, C_roughness);

7319    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

7320    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

7321  

7322    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

7323  #endif

7324  

7325  #ifdef CLOSURE_GLOSSY

7326    /* Global toggle for lightprobe baking. */

7327    out_spec *= float(specToggle);

7328  #endif

7329  

7330    /* ---------------------------------------------------------------- */

7331    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

7332    /* ---------------------------------------------------------------- */

7333  

7334    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7335  #ifdef CLOSURE_DIFFUSE

7336    vec4 diff_accum = vec4(0.0);

7337  

7338    /* ---------------------------- */

7339    /*       Irradiance Grids       */

7340    /* ---------------------------- */

7341    /* Start at 1 because 0 is world irradiance */

7342    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

7343      GridData gd = grids_data[i];

7344  

7345      vec3 localpos;

7346      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

7347  

7348      if (fade > 0.0) {

7349        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

7350        accumulate_light(diff, fade, diff_accum);

7351      }

7352    }

7353  

7354    /* ---------------------------- */

7355    /*        World Diffuse         */

7356    /* ---------------------------- */

7357    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

7358      vec3 diff = probe_evaluate_world_diff(bent_normal);

7359      accumulate_light(diff, 1.0, diff_accum);

7360    }

7361  

7362    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

7363  #endif

7364  }

7365  

7366  /* Cleanup for next configuration */

7367  #undef CLOSURE_NAME

7368  

7369  #ifdef CLOSURE_DIFFUSE

7370  #undef CLOSURE_DIFFUSE

7371  #endif

7372  

7373  #ifdef CLOSURE_GLOSSY

7374  #undef CLOSURE_GLOSSY

7375  #endif

7376  

7377  #ifdef CLOSURE_CLEARCOAT

7378  #undef CLOSURE_CLEARCOAT

7379  #endif

7380  

7381  #ifdef CLOSURE_REFRACTION

7382  #undef CLOSURE_REFRACTION

7383  #endif

7384  

7385  #ifdef CLOSURE_SUBSURFACE

7386  #undef CLOSURE_SUBSURFACE

7387  #endif

7388  

7389  #ifndef LIT_SURFACE_UNIFORM

7390  #define LIT_SURFACE_UNIFORM

7391  

7392  uniform float refractionDepth;

7393  

7394  #ifndef UTIL_TEX

7395  #  define UTIL_TEX

7396  uniform sampler2DArray utilTex;

7397  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

7398  #endif /* UTIL_TEX */

7399  

7400  in vec3 worldPosition;

7401  in vec3 viewPosition;

7402  

7403  #ifdef USE_FLAT_NORMAL

7404  flat in vec3 worldNormal;

7405  flat in vec3 viewNormal;

7406  #else

7407  in vec3 worldNormal;

7408  in vec3 viewNormal;

7409  #endif

7410  

7411  #ifdef HAIR_SHADER

7412  in vec3 hairTangent; /* world space */

7413  in float hairThickTime;

7414  in float hairThickness;

7415  in float hairTime;

7416  flat in int hairStrandID;

7417  

7418  uniform int hairThicknessRes = 1;

7419  #endif

7420  

7421  #endif /* LIT_SURFACE_UNIFORM */

7422  

7423  /** AUTO CONFIG

7424   * We include the file multiple times each time with a different configuration.

7425   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

7426   */

7427  #if !defined(SURFACE_DEFAULT)

7428  #define SURFACE_DEFAULT

7429  #define CLOSURE_NAME eevee_closure_default

7430  #define CLOSURE_DIFFUSE

7431  #define CLOSURE_GLOSSY

7432  #endif /* SURFACE_DEFAULT */

7433  

7434  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

7435  #define SURFACE_PRINCIPLED

7436  #define CLOSURE_NAME eevee_closure_principled

7437  #define CLOSURE_DIFFUSE

7438  #define CLOSURE_GLOSSY

7439  #define CLOSURE_CLEARCOAT

7440  #define CLOSURE_REFRACTION

7441  #define CLOSURE_SUBSURFACE

7442  #endif /* SURFACE_PRINCIPLED */

7443  

7444  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

7445  #define SURFACE_CLEARCOAT

7446  #define CLOSURE_NAME eevee_closure_clearcoat

7447  #define CLOSURE_GLOSSY

7448  #define CLOSURE_CLEARCOAT

7449  #endif /* SURFACE_CLEARCOAT */

7450  

7451  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

7452  #define SURFACE_DIFFUSE

7453  #define CLOSURE_NAME eevee_closure_diffuse

7454  #define CLOSURE_DIFFUSE

7455  #endif /* SURFACE_DIFFUSE */

7456  

7457  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

7458  #define SURFACE_SUBSURFACE

7459  #define CLOSURE_NAME eevee_closure_subsurface

7460  #define CLOSURE_DIFFUSE

7461  #define CLOSURE_SUBSURFACE

7462  #endif /* SURFACE_SUBSURFACE */

7463  

7464  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

7465  #define SURFACE_SKIN

7466  #define CLOSURE_NAME eevee_closure_skin

7467  #define CLOSURE_DIFFUSE

7468  #define CLOSURE_SUBSURFACE

7469  #define CLOSURE_GLOSSY

7470  #endif /* SURFACE_SKIN */

7471  

7472  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

7473  #define SURFACE_GLOSSY

7474  #define CLOSURE_NAME eevee_closure_glossy

7475  #define CLOSURE_GLOSSY

7476  #endif /* SURFACE_GLOSSY */

7477  

7478  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

7479  #define SURFACE_REFRACT

7480  #define CLOSURE_NAME eevee_closure_refraction

7481  #define CLOSURE_REFRACTION

7482  #endif /* SURFACE_REFRACT */

7483  

7484  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

7485  #define SURFACE_GLASS

7486  #define CLOSURE_NAME eevee_closure_glass

7487  #define CLOSURE_GLOSSY

7488  #define CLOSURE_REFRACTION

7489  #endif /* SURFACE_GLASS */

7490  

7491  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

7492  #ifdef CLOSURE_CLEARCOAT

7493  #ifndef CLOSURE_GLOSSY

7494  #  define CLOSURE_GLOSSY

7495  #endif

7496  #endif /* CLOSURE_CLEARCOAT */

7497  

7498  void CLOSURE_NAME(vec3 N

7499  #ifdef CLOSURE_DIFFUSE

7500                    ,

7501                    vec3 albedo

7502  #endif

7503  #ifdef CLOSURE_GLOSSY

7504                    ,

7505                    vec3 f0,

7506                    int ssr_id

7507  #endif

7508  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7509                    ,

7510                    float roughness

7511  #endif

7512  #ifdef CLOSURE_CLEARCOAT

7513                    ,

7514                    vec3 C_N,

7515                    float C_intensity,

7516                    float C_roughness

7517  #endif

7518  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

7519                    ,

7520                    float ao

7521  #endif

7522  #ifdef CLOSURE_SUBSURFACE

7523                    ,

7524                    float sss_scale

7525  #endif

7526  #ifdef CLOSURE_REFRACTION

7527                    ,

7528                    float ior

7529  #endif

7530  #ifdef CLOSURE_DIFFUSE

7531                    ,

7532                    out vec3 out_diff

7533  #endif

7534  #ifdef CLOSURE_SUBSURFACE

7535                    ,

7536                    out vec3 out_trans

7537  #endif

7538  #ifdef CLOSURE_GLOSSY

7539                    ,

7540                    out vec3 out_spec

7541  #endif

7542  #ifdef CLOSURE_REFRACTION

7543                    ,

7544                    out vec3 out_refr

7545  #endif

7546  #ifdef CLOSURE_GLOSSY

7547                    ,

7548                    out vec3 ssr_spec

7549  #endif

7550  )

7551  {

7552  #ifdef CLOSURE_DIFFUSE

7553    out_diff = vec3(0.0);

7554  #endif

7555  

7556  #ifdef CLOSURE_SUBSURFACE

7557    out_trans = vec3(0.0);

7558  #endif

7559  

7560  #ifdef CLOSURE_GLOSSY

7561    out_spec = vec3(0.0);

7562  #endif

7563  

7564  #ifdef CLOSURE_REFRACTION

7565    out_refr = vec3(0.0);

7566  #endif

7567  

7568  #ifdef SHADOW_SHADER

7569    return;

7570  #endif

7571  

7572    /* Zero length vectors cause issues, see: T51979. */

7573    float len = length(N);

7574    if (isnan(len)) {

7575      return;

7576    }

7577    N /= len;

7578  

7579  #ifdef CLOSURE_CLEARCOAT

7580    len = length(C_N);

7581    if (isnan(len)) {

7582      return;

7583    }

7584    C_N /= len;

7585  #endif

7586  

7587  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7588    roughness = clamp(roughness, 1e-8, 0.9999);

7589    float roughnessSquared = roughness * roughness;

7590  #endif

7591  

7592  #ifdef CLOSURE_CLEARCOAT

7593    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

7594    float C_roughnessSquared = C_roughness * C_roughness;

7595  #endif

7596  

7597    vec3 V = cameraVec;

7598  

7599    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

7600  

7601    /* ---------------------------------------------------------------- */

7602    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

7603    /* ---------------------------------------------------------------- */

7604  

7605  #ifdef CLOSURE_GLOSSY

7606    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

7607    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

7608  #endif

7609  

7610  #ifdef CLOSURE_CLEARCOAT

7611    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

7612    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

7613    vec3 out_spec_clear = vec3(0.0);

7614  #endif

7615  

7616    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

7617      LightData ld = lights_data[i];

7618  

7619      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

7620      l_vector.xyz = ld.l_position - worldPosition;

7621      l_vector.w = length(l_vector.xyz);

7622  

7623      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

7624  

7625      if (l_vis < 1e-8) {

7626        continue;

7627      }

7628  

7629      vec3 l_color_vis = ld.l_color * l_vis;

7630  

7631  #ifdef CLOSURE_DIFFUSE

7632      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

7633  #endif

7634  

7635  #ifdef CLOSURE_SUBSURFACE

7636      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

7637  #endif

7638  

7639  #ifdef CLOSURE_GLOSSY

7640      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

7641  #endif

7642  

7643  #ifdef CLOSURE_CLEARCOAT

7644      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

7645                        ld.l_spec;

7646  #endif

7647    }

7648  

7649  #ifdef CLOSURE_GLOSSY

7650    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

7651    out_spec *= F_area(f0, brdf_lut_lights.xy);

7652  #endif

7653  

7654  #ifdef CLOSURE_CLEARCOAT

7655    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

7656    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

7657    out_spec += out_spec_clear * C_intensity;

7658  #endif

7659  

7660    /* ---------------------------------------------------------------- */

7661    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

7662    /* ---------------------------------------------------------------- */

7663  

7664    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7665  #ifdef CLOSURE_GLOSSY

7666    vec4 spec_accum = vec4(0.0);

7667  #endif

7668  

7669  #ifdef CLOSURE_CLEARCOAT

7670    vec4 C_spec_accum = vec4(0.0);

7671  #endif

7672  

7673  #ifdef CLOSURE_REFRACTION

7674    vec4 refr_accum = vec4(0.0);

7675  #endif

7676  

7677  #ifdef CLOSURE_GLOSSY

7678    /* ---------------------------- */

7679    /*      Planar Reflections      */

7680    /* ---------------------------- */

7681  

7682    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

7683      PlanarData pd = planars_data[i];

7684  

7685      /* Fade on geometric normal. */

7686      float fade = probe_attenuation_planar(

7687          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

7688  

7689      if (fade > 0.0) {

7690        if (!(ssrToggle && ssr_id == outputSsrId)) {

7691          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

7692          accumulate_light(spec, fade, spec_accum);

7693        }

7694  

7695  #ifdef CLOSURE_CLEARCOAT

7696        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

7697        accumulate_light(C_spec, fade, C_spec_accum);

7698  #endif

7699      }

7700    }

7701  #endif

7702  

7703  #ifdef CLOSURE_GLOSSY

7704    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

7705  #endif

7706  

7707  #ifdef CLOSURE_CLEARCOAT

7708    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

7709  #endif

7710  

7711  #ifdef CLOSURE_REFRACTION

7712    /* Refract the view vector using the depth heuristic.

7713     * Then later Refract a second time the already refracted

7714     * ray using the inverse ior. */

7715    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

7716    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

7717    vec3 refr_pos = (refractionDepth > 0.0) ?

7718                        line_plane_intersect(

7719                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

7720                        worldPosition;

7721    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

7722  #endif

7723  

7724  #ifdef CLOSURE_REFRACTION

7725  /* ---------------------------- */

7726  /*   Screen Space Refraction    */

7727  /* ---------------------------- */

7728  #ifdef USE_REFRACTION

7729    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

7730      /* Find approximated position of the 2nd refraction event. */

7731      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

7732                                                 viewPosition;

7733      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

7734      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

7735      accumulate_light(trans.rgb, trans.a, refr_accum);

7736    }

7737  #endif

7738  

7739  #endif

7740  

7741    /* ---------------------------- */

7742    /*       Specular probes        */

7743    /* ---------------------------- */

7744  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7745  

7746  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

7747  #  define GLASS_ACCUM 1

7748  #  define ACCUM min(refr_accum.a, spec_accum.a)

7749  #elif defined(CLOSURE_REFRACTION)

7750  #  define GLASS_ACCUM 0

7751  #  define ACCUM refr_accum.a

7752  #else

7753  #  define GLASS_ACCUM 0

7754  #  define ACCUM spec_accum.a

7755  #endif

7756  

7757    /* Starts at 1 because 0 is world probe */

7758    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

7759      float fade = probe_attenuation_cube(i, worldPosition);

7760  

7761      if (fade > 0.0) {

7762  

7763  #if GLASS_ACCUM

7764        if (spec_accum.a < 0.999) {

7765  #endif

7766  #ifdef CLOSURE_GLOSSY

7767          if (!(ssrToggle && ssr_id == outputSsrId)) {

7768            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

7769            accumulate_light(spec, fade, spec_accum);

7770          }

7771  #endif

7772  

7773  #ifdef CLOSURE_CLEARCOAT

7774          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

7775          accumulate_light(C_spec, fade, C_spec_accum);

7776  #endif

7777  #if GLASS_ACCUM

7778        }

7779  #endif

7780  

7781  #if GLASS_ACCUM

7782        if (refr_accum.a < 0.999) {

7783  #endif

7784  #ifdef CLOSURE_REFRACTION

7785          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

7786          accumulate_light(trans, fade, refr_accum);

7787  #endif

7788  #if GLASS_ACCUM

7789        }

7790  #endif

7791      }

7792    }

7793  

7794  #undef GLASS_ACCUM

7795  #undef ACCUM

7796  

7797  /* ---------------------------- */

7798  /*          World Probe         */

7799  /* ---------------------------- */

7800  #ifdef CLOSURE_GLOSSY

7801    if (spec_accum.a < 0.999) {

7802      if (!(ssrToggle && ssr_id == outputSsrId)) {

7803        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

7804        accumulate_light(spec, 1.0, spec_accum);

7805      }

7806  

7807  #  ifdef CLOSURE_CLEARCOAT

7808      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

7809      accumulate_light(C_spec, 1.0, C_spec_accum);

7810  #  endif

7811    }

7812  #endif

7813  

7814  #ifdef CLOSURE_REFRACTION

7815    if (refr_accum.a < 0.999) {

7816      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

7817      accumulate_light(trans, 1.0, refr_accum);

7818    }

7819  #endif

7820  #endif /* Specular probes */

7821  

7822    /* ---------------------------- */

7823    /*       Ambient Occlusion      */

7824    /* ---------------------------- */

7825  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

7826    vec3 bent_normal;

7827    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

7828  #endif

7829  

7830    /* ---------------------------- */

7831    /*        Specular Output       */

7832    /* ---------------------------- */

7833    float NV = dot(N, V);

7834  #ifdef CLOSURE_GLOSSY

7835    vec2 uv = lut_coords(NV, roughness);

7836    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

7837  

7838    /* This factor is outputted to be used by SSR in order

7839     * to match the intensity of the regular reflections. */

7840    ssr_spec = F_ibl(f0, brdf_lut);

7841    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

7842  

7843    /* The SSR pass recompute the occlusion to not apply it to the SSR */

7844    if (ssrToggle && ssr_id == outputSsrId) {

7845      spec_occlu = 1.0;

7846    }

7847  

7848    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

7849  #endif

7850  

7851  #ifdef CLOSURE_REFRACTION

7852    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

7853  

7854    out_refr += refr_accum.rgb * btdf;

7855  #endif

7856  

7857  #ifdef CLOSURE_CLEARCOAT

7858    NV = dot(C_N, V);

7859    vec2 C_uv = lut_coords(NV, C_roughness);

7860    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

7861    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

7862  

7863    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

7864  #endif

7865  

7866  #ifdef CLOSURE_GLOSSY

7867    /* Global toggle for lightprobe baking. */

7868    out_spec *= float(specToggle);

7869  #endif

7870  

7871    /* ---------------------------------------------------------------- */

7872    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

7873    /* ---------------------------------------------------------------- */

7874  

7875    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7876  #ifdef CLOSURE_DIFFUSE

7877    vec4 diff_accum = vec4(0.0);

7878  

7879    /* ---------------------------- */

7880    /*       Irradiance Grids       */

7881    /* ---------------------------- */

7882    /* Start at 1 because 0 is world irradiance */

7883    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

7884      GridData gd = grids_data[i];

7885  

7886      vec3 localpos;

7887      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

7888  

7889      if (fade > 0.0) {

7890        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

7891        accumulate_light(diff, fade, diff_accum);

7892      }

7893    }

7894  

7895    /* ---------------------------- */

7896    /*        World Diffuse         */

7897    /* ---------------------------- */

7898    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

7899      vec3 diff = probe_evaluate_world_diff(bent_normal);

7900      accumulate_light(diff, 1.0, diff_accum);

7901    }

7902  

7903    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

7904  #endif

7905  }

7906  

7907  /* Cleanup for next configuration */

7908  #undef CLOSURE_NAME

7909  

7910  #ifdef CLOSURE_DIFFUSE

7911  #undef CLOSURE_DIFFUSE

7912  #endif

7913  

7914  #ifdef CLOSURE_GLOSSY

7915  #undef CLOSURE_GLOSSY

7916  #endif

7917  

7918  #ifdef CLOSURE_CLEARCOAT

7919  #undef CLOSURE_CLEARCOAT

7920  #endif

7921  

7922  #ifdef CLOSURE_REFRACTION

7923  #undef CLOSURE_REFRACTION

7924  #endif

7925  

7926  #ifdef CLOSURE_SUBSURFACE

7927  #undef CLOSURE_SUBSURFACE

7928  #endif

7929  

7930  #ifndef LIT_SURFACE_UNIFORM

7931  #define LIT_SURFACE_UNIFORM

7932  

7933  uniform float refractionDepth;

7934  

7935  #ifndef UTIL_TEX

7936  #  define UTIL_TEX

7937  uniform sampler2DArray utilTex;

7938  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

7939  #endif /* UTIL_TEX */

7940  

7941  in vec3 worldPosition;

7942  in vec3 viewPosition;

7943  

7944  #ifdef USE_FLAT_NORMAL

7945  flat in vec3 worldNormal;

7946  flat in vec3 viewNormal;

7947  #else

7948  in vec3 worldNormal;

7949  in vec3 viewNormal;

7950  #endif

7951  

7952  #ifdef HAIR_SHADER

7953  in vec3 hairTangent; /* world space */

7954  in float hairThickTime;

7955  in float hairThickness;

7956  in float hairTime;

7957  flat in int hairStrandID;

7958  

7959  uniform int hairThicknessRes = 1;

7960  #endif

7961  

7962  #endif /* LIT_SURFACE_UNIFORM */

7963  

7964  /** AUTO CONFIG

7965   * We include the file multiple times each time with a different configuration.

7966   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

7967   */

7968  #if !defined(SURFACE_DEFAULT)

7969  #define SURFACE_DEFAULT

7970  #define CLOSURE_NAME eevee_closure_default

7971  #define CLOSURE_DIFFUSE

7972  #define CLOSURE_GLOSSY

7973  #endif /* SURFACE_DEFAULT */

7974  

7975  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

7976  #define SURFACE_PRINCIPLED

7977  #define CLOSURE_NAME eevee_closure_principled

7978  #define CLOSURE_DIFFUSE

7979  #define CLOSURE_GLOSSY

7980  #define CLOSURE_CLEARCOAT

7981  #define CLOSURE_REFRACTION

7982  #define CLOSURE_SUBSURFACE

7983  #endif /* SURFACE_PRINCIPLED */

7984  

7985  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

7986  #define SURFACE_CLEARCOAT

7987  #define CLOSURE_NAME eevee_closure_clearcoat

7988  #define CLOSURE_GLOSSY

7989  #define CLOSURE_CLEARCOAT

7990  #endif /* SURFACE_CLEARCOAT */

7991  

7992  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

7993  #define SURFACE_DIFFUSE

7994  #define CLOSURE_NAME eevee_closure_diffuse

7995  #define CLOSURE_DIFFUSE

7996  #endif /* SURFACE_DIFFUSE */

7997  

7998  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

7999  #define SURFACE_SUBSURFACE

8000  #define CLOSURE_NAME eevee_closure_subsurface

8001  #define CLOSURE_DIFFUSE

8002  #define CLOSURE_SUBSURFACE

8003  #endif /* SURFACE_SUBSURFACE */

8004  

8005  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

8006  #define SURFACE_SKIN

8007  #define CLOSURE_NAME eevee_closure_skin

8008  #define CLOSURE_DIFFUSE

8009  #define CLOSURE_SUBSURFACE

8010  #define CLOSURE_GLOSSY

8011  #endif /* SURFACE_SKIN */

8012  

8013  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

8014  #define SURFACE_GLOSSY

8015  #define CLOSURE_NAME eevee_closure_glossy

8016  #define CLOSURE_GLOSSY

8017  #endif /* SURFACE_GLOSSY */

8018  

8019  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

8020  #define SURFACE_REFRACT

8021  #define CLOSURE_NAME eevee_closure_refraction

8022  #define CLOSURE_REFRACTION

8023  #endif /* SURFACE_REFRACT */

8024  

8025  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

8026  #define SURFACE_GLASS

8027  #define CLOSURE_NAME eevee_closure_glass

8028  #define CLOSURE_GLOSSY

8029  #define CLOSURE_REFRACTION

8030  #endif /* SURFACE_GLASS */

8031  

8032  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

8033  #ifdef CLOSURE_CLEARCOAT

8034  #ifndef CLOSURE_GLOSSY

8035  #  define CLOSURE_GLOSSY

8036  #endif

8037  #endif /* CLOSURE_CLEARCOAT */

8038  

8039  void CLOSURE_NAME(vec3 N

8040  #ifdef CLOSURE_DIFFUSE

8041                    ,

8042                    vec3 albedo

8043  #endif

8044  #ifdef CLOSURE_GLOSSY

8045                    ,

8046                    vec3 f0,

8047                    int ssr_id

8048  #endif

8049  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

8050                    ,

8051                    float roughness

8052  #endif

8053  #ifdef CLOSURE_CLEARCOAT

8054                    ,

8055                    vec3 C_N,

8056                    float C_intensity,

8057                    float C_roughness

8058  #endif

8059  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

8060                    ,

8061                    float ao

8062  #endif

8063  #ifdef CLOSURE_SUBSURFACE

8064                    ,

8065                    float sss_scale

8066  #endif

8067  #ifdef CLOSURE_REFRACTION

8068                    ,

8069                    float ior

8070  #endif

8071  #ifdef CLOSURE_DIFFUSE

8072                    ,

8073                    out vec3 out_diff

8074  #endif

8075  #ifdef CLOSURE_SUBSURFACE

8076                    ,

8077                    out vec3 out_trans

8078  #endif

8079  #ifdef CLOSURE_GLOSSY

8080                    ,

8081                    out vec3 out_spec

8082  #endif

8083  #ifdef CLOSURE_REFRACTION

8084                    ,

8085                    out vec3 out_refr

8086  #endif

8087  #ifdef CLOSURE_GLOSSY

8088                    ,

8089                    out vec3 ssr_spec

8090  #endif

8091  )

8092  {

8093  #ifdef CLOSURE_DIFFUSE

8094    out_diff = vec3(0.0);

8095  #endif

8096  

8097  #ifdef CLOSURE_SUBSURFACE

8098    out_trans = vec3(0.0);

8099  #endif

8100  

8101  #ifdef CLOSURE_GLOSSY

8102    out_spec = vec3(0.0);

8103  #endif

8104  

8105  #ifdef CLOSURE_REFRACTION

8106    out_refr = vec3(0.0);

8107  #endif

8108  

8109  #ifdef SHADOW_SHADER

8110    return;

8111  #endif

8112  

8113    /* Zero length vectors cause issues, see: T51979. */

8114    float len = length(N);

8115    if (isnan(len)) {

8116      return;

8117    }

8118    N /= len;

8119  

8120  #ifdef CLOSURE_CLEARCOAT

8121    len = length(C_N);

8122    if (isnan(len)) {

8123      return;

8124    }

8125    C_N /= len;

8126  #endif

8127  

8128  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

8129    roughness = clamp(roughness, 1e-8, 0.9999);

8130    float roughnessSquared = roughness * roughness;

8131  #endif

8132  

8133  #ifdef CLOSURE_CLEARCOAT

8134    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

8135    float C_roughnessSquared = C_roughness * C_roughness;

8136  #endif

8137  

8138    vec3 V = cameraVec;

8139  

8140    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

8141  

8142    /* ---------------------------------------------------------------- */

8143    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

8144    /* ---------------------------------------------------------------- */

8145  

8146  #ifdef CLOSURE_GLOSSY

8147    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

8148    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

8149  #endif

8150  

8151  #ifdef CLOSURE_CLEARCOAT

8152    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

8153    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

8154    vec3 out_spec_clear = vec3(0.0);

8155  #endif

8156  

8157    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

8158      LightData ld = lights_data[i];

8159  

8160      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

8161      l_vector.xyz = ld.l_position - worldPosition;

8162      l_vector.w = length(l_vector.xyz);

8163  

8164      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

8165  

8166      if (l_vis < 1e-8) {

8167        continue;

8168      }

8169  

8170      vec3 l_color_vis = ld.l_color * l_vis;

8171  

8172  #ifdef CLOSURE_DIFFUSE

8173      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

8174  #endif

8175  

8176  #ifdef CLOSURE_SUBSURFACE

8177      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

8178  #endif

8179  

8180  #ifdef CLOSURE_GLOSSY

8181      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

8182  #endif

8183  

8184  #ifdef CLOSURE_CLEARCOAT

8185      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

8186                        ld.l_spec;

8187  #endif

8188    }

8189  

8190  #ifdef CLOSURE_GLOSSY

8191    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

8192    out_spec *= F_area(f0, brdf_lut_lights.xy);

8193  #endif

8194  

8195  #ifdef CLOSURE_CLEARCOAT

8196    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

8197    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

8198    out_spec += out_spec_clear * C_intensity;

8199  #endif

8200  

8201    /* ---------------------------------------------------------------- */

8202    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

8203    /* ---------------------------------------------------------------- */

8204  

8205    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

8206  #ifdef CLOSURE_GLOSSY

8207    vec4 spec_accum = vec4(0.0);

8208  #endif

8209  

8210  #ifdef CLOSURE_CLEARCOAT

8211    vec4 C_spec_accum = vec4(0.0);

8212  #endif

8213  

8214  #ifdef CLOSURE_REFRACTION

8215    vec4 refr_accum = vec4(0.0);

8216  #endif

8217  

8218  #ifdef CLOSURE_GLOSSY

8219    /* ---------------------------- */

8220    /*      Planar Reflections      */

8221    /* ---------------------------- */

8222  

8223    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

8224      PlanarData pd = planars_data[i];

8225  

8226      /* Fade on geometric normal. */

8227      float fade = probe_attenuation_planar(

8228          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

8229  

8230      if (fade > 0.0) {

8231        if (!(ssrToggle && ssr_id == outputSsrId)) {

8232          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

8233          accumulate_light(spec, fade, spec_accum);

8234        }

8235  

8236  #ifdef CLOSURE_CLEARCOAT

8237        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

8238        accumulate_light(C_spec, fade, C_spec_accum);

8239  #endif

8240      }

8241    }

8242  #endif

8243  

8244  #ifdef CLOSURE_GLOSSY

8245    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

8246  #endif

8247  

8248  #ifdef CLOSURE_CLEARCOAT

8249    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

8250  #endif

8251  

8252  #ifdef CLOSURE_REFRACTION

8253    /* Refract the view vector using the depth heuristic.

8254     * Then later Refract a second time the already refracted

8255     * ray using the inverse ior. */

8256    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

8257    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

8258    vec3 refr_pos = (refractionDepth > 0.0) ?

8259                        line_plane_intersect(

8260                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

8261                        worldPosition;

8262    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

8263  #endif

8264  

8265  #ifdef CLOSURE_REFRACTION

8266  /* ---------------------------- */

8267  /*   Screen Space Refraction    */

8268  /* ---------------------------- */

8269  #ifdef USE_REFRACTION

8270    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

8271      /* Find approximated position of the 2nd refraction event. */

8272      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

8273                                                 viewPosition;

8274      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

8275      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

8276      accumulate_light(trans.rgb, trans.a, refr_accum);

8277    }

8278  #endif

8279  

8280  #endif

8281  

8282    /* ---------------------------- */

8283    /*       Specular probes        */

8284    /* ---------------------------- */

8285  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

8286  

8287  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

8288  #  define GLASS_ACCUM 1

8289  #  define ACCUM min(refr_accum.a, spec_accum.a)

8290  #elif defined(CLOSURE_REFRACTION)

8291  #  define GLASS_ACCUM 0

8292  #  define ACCUM refr_accum.a

8293  #else

8294  #  define GLASS_ACCUM 0

8295  #  define ACCUM spec_accum.a

8296  #endif

8297  

8298    /* Starts at 1 because 0 is world probe */

8299    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

8300      float fade = probe_attenuation_cube(i, worldPosition);

8301  

8302      if (fade > 0.0) {

8303  

8304  #if GLASS_ACCUM

8305        if (spec_accum.a < 0.999) {

8306  #endif

8307  #ifdef CLOSURE_GLOSSY

8308          if (!(ssrToggle && ssr_id == outputSsrId)) {

8309            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

8310            accumulate_light(spec, fade, spec_accum);

8311          }

8312  #endif

8313  

8314  #ifdef CLOSURE_CLEARCOAT

8315          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

8316          accumulate_light(C_spec, fade, C_spec_accum);

8317  #endif

8318  #if GLASS_ACCUM

8319        }

8320  #endif

8321  

8322  #if GLASS_ACCUM

8323        if (refr_accum.a < 0.999) {

8324  #endif

8325  #ifdef CLOSURE_REFRACTION

8326          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

8327          accumulate_light(trans, fade, refr_accum);

8328  #endif

8329  #if GLASS_ACCUM

8330        }

8331  #endif

8332      }

8333    }

8334  

8335  #undef GLASS_ACCUM

8336  #undef ACCUM

8337  

8338  /* ---------------------------- */

8339  /*          World Probe         */

8340  /* ---------------------------- */

8341  #ifdef CLOSURE_GLOSSY

8342    if (spec_accum.a < 0.999) {

8343      if (!(ssrToggle && ssr_id == outputSsrId)) {

8344        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

8345        accumulate_light(spec, 1.0, spec_accum);

8346      }

8347  

8348  #  ifdef CLOSURE_CLEARCOAT

8349      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

8350      accumulate_light(C_spec, 1.0, C_spec_accum);

8351  #  endif

8352    }

8353  #endif

8354  

8355  #ifdef CLOSURE_REFRACTION

8356    if (refr_accum.a < 0.999) {

8357      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

8358      accumulate_light(trans, 1.0, refr_accum);

8359    }

8360  #endif

8361  #endif /* Specular probes */

8362  

8363    /* ---------------------------- */

8364    /*       Ambient Occlusion      */

8365    /* ---------------------------- */

8366  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

8367    vec3 bent_normal;

8368    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

8369  #endif

8370  

8371    /* ---------------------------- */

8372    /*        Specular Output       */

8373    /* ---------------------------- */

8374    float NV = dot(N, V);

8375  #ifdef CLOSURE_GLOSSY

8376    vec2 uv = lut_coords(NV, roughness);

8377    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

8378  

8379    /* This factor is outputted to be used by SSR in order

8380     * to match the intensity of the regular reflections. */

8381    ssr_spec = F_ibl(f0, brdf_lut);

8382    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

8383  

8384    /* The SSR pass recompute the occlusion to not apply it to the SSR */

8385    if (ssrToggle && ssr_id == outputSsrId) {

8386      spec_occlu = 1.0;

8387    }

8388  

8389    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

8390  #endif

8391  

8392  #ifdef CLOSURE_REFRACTION

8393    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

8394  

8395    out_refr += refr_accum.rgb * btdf;

8396  #endif

8397  

8398  #ifdef CLOSURE_CLEARCOAT

8399    NV = dot(C_N, V);

8400    vec2 C_uv = lut_coords(NV, C_roughness);

8401    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

8402    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

8403  

8404    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

8405  #endif

8406  

8407  #ifdef CLOSURE_GLOSSY

8408    /* Global toggle for lightprobe baking. */

8409    out_spec *= float(specToggle);

8410  #endif

8411  

8412    /* ---------------------------------------------------------------- */

8413    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

8414    /* ---------------------------------------------------------------- */

8415  

8416    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

8417  #ifdef CLOSURE_DIFFUSE

8418    vec4 diff_accum = vec4(0.0);

8419  

8420    /* ---------------------------- */

8421    /*       Irradiance Grids       */

8422    /* ---------------------------- */

8423    /* Start at 1 because 0 is world irradiance */

8424    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

8425      GridData gd = grids_data[i];

8426  

8427      vec3 localpos;

8428      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

8429  

8430      if (fade > 0.0) {

8431        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

8432        accumulate_light(diff, fade, diff_accum);

8433      }

8434    }

8435  

8436    /* ---------------------------- */

8437    /*        World Diffuse         */

8438    /* ---------------------------- */

8439    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

8440      vec3 diff = probe_evaluate_world_diff(bent_normal);

8441      accumulate_light(diff, 1.0, diff_accum);

8442    }

8443  

8444    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

8445  #endif

8446  }

8447  

8448  /* Cleanup for next configuration */

8449  #undef CLOSURE_NAME

8450  

8451  #ifdef CLOSURE_DIFFUSE

8452  #undef CLOSURE_DIFFUSE

8453  #endif

8454  

8455  #ifdef CLOSURE_GLOSSY

8456  #undef CLOSURE_GLOSSY

8457  #endif

8458  

8459  #ifdef CLOSURE_CLEARCOAT

8460  #undef CLOSURE_CLEARCOAT

8461  #endif

8462  

8463  #ifdef CLOSURE_REFRACTION

8464  #undef CLOSURE_REFRACTION

8465  #endif

8466  

8467  #ifdef CLOSURE_SUBSURFACE

8468  #undef CLOSURE_SUBSURFACE

8469  #endif

8470  

8471  /* Based on Frosbite Unified Volumetric.

8472   * https://www.ea.com/frostbite/news/physically-based-unified-volumetric-rendering-in-frostbite */

8473  

8474  /* Volume slice to view space depth. */

8475  float volume_z_to_view_z(float z)

8476  {

8477    if (ProjectionMatrix[3][3] == 0.0) {

8478      /* Exponential distribution */

8479      return (exp2(z / volDepthParameters.z) - volDepthParameters.x) / volDepthParameters.y;

8480    }

8481    else {

8482      /* Linear distribution */

8483      return mix(volDepthParameters.x, volDepthParameters.y, z);

8484    }

8485  }

8486  

8487  float view_z_to_volume_z(float depth)

8488  {

8489    if (ProjectionMatrix[3][3] == 0.0) {

8490      /* Exponential distribution */

8491      return volDepthParameters.z * log2(depth * volDepthParameters.y + volDepthParameters.x);

8492    }

8493    else {

8494      /* Linear distribution */

8495      return (depth - volDepthParameters.x) * volDepthParameters.z;

8496    }

8497  }

8498  

8499  /* Volume texture normalized coordinates to NDC (special range [0, 1]). */

8500  vec3 volume_to_ndc(vec3 cos)

8501  {

8502    cos.z = volume_z_to_view_z(cos.z);

8503    cos.z = get_depth_from_view_z(cos.z);

8504    cos.xy /= volCoordScale.xy;

8505    return cos;

8506  }

8507  

8508  vec3 ndc_to_volume(vec3 cos)

8509  {

8510    cos.z = get_view_z_from_depth(cos.z);

8511    cos.z = view_z_to_volume_z(cos.z);

8512    cos.xy *= volCoordScale.xy;

8513    return cos;

8514  }

8515  

8516  float phase_function_isotropic()

8517  {

8518    return 1.0 / (4.0 * M_PI);

8519  }

8520  

8521  float phase_function(vec3 v, vec3 l, float g)

8522  {

8523    /* Henyey-Greenstein */

8524    float cos_theta = dot(v, l);

8525    g = clamp(g, -1.0 + 1e-3, 1.0 - 1e-3);

8526    float sqr_g = g * g;

8527    return (1 - sqr_g) / max(1e-8, 4.0 * M_PI * pow(1 + sqr_g - 2 * g * cos_theta, 3.0 / 2.0));

8528  }

8529  

8530  #ifdef LAMPS_LIB

8531  vec3 light_volume(LightData ld, vec4 l_vector)

8532  {

8533    float power;

8534    /* TODO : Area lighting ? */

8535    /* XXX : Removing Area Power. */

8536    /* TODO : put this out of the shader. */

8537    /* See eevee_light_setup(). */

8538    if (ld.l_type == AREA_RECT || ld.l_type == AREA_ELLIPSE) {

8539      power = (ld.l_sizex * ld.l_sizey * 4.0 * M_PI) * (1.0 / 80.0);

8540      if (ld.l_type == AREA_ELLIPSE) {

8541        power *= M_PI * 0.25;

8542      }

8543      power *= 20.0 *

8544               max(0.0, dot(-ld.l_forward, l_vector.xyz / l_vector.w)); /* XXX ad hoc, empirical */

8545    }

8546    else if (ld.l_type == SUN) {

8547      power = ld.l_radius * ld.l_radius * M_PI; /* Removing area light power*/

8548      power /= 1.0f + (ld.l_radius * ld.l_radius * 0.5f);

8549      power *= M_PI * 0.5; /* Matching cycles. */

8550    }

8551    else {

8552      power = (4.0 * ld.l_radius * ld.l_radius) * (1.0 / 10.0);

8553      power *= M_2PI; /* Matching cycles with point light. */

8554    }

8555  

8556    power /= (l_vector.w * l_vector.w);

8557  

8558    /* OPTI: find a better way than calculating this on the fly */

8559    float lum = dot(ld.l_color, vec3(0.3, 0.6, 0.1));       /* luminance approx. */

8560    vec3 tint = (lum > 0.0) ? ld.l_color / lum : vec3(1.0); /* normalize lum. to isolate hue+sat */

8561  

8562    lum = min(lum * power, volLightClamp);

8563  

8564    return tint * lum;

8565  }

8566  

8567  #  define VOLUMETRIC_SHADOW_MAX_STEP 32.0

8568  

8569  vec3 participating_media_extinction(vec3 wpos, sampler3D volume_extinction)

8570  {

8571    /* Waiting for proper volume shadowmaps and out of frustum shadow map. */

8572    vec3 ndc = project_point(ViewProjectionMatrix, wpos);

8573    vec3 volume_co = ndc_to_volume(ndc * 0.5 + 0.5);

8574  

8575    /* Let the texture be clamped to edge. This reduce visual glitches. */

8576    return texture(volume_extinction, volume_co).rgb;

8577  }

8578  

8579  vec3 light_volume_shadow(LightData ld, vec3 ray_wpos, vec4 l_vector, sampler3D volume_extinction)

8580  {

8581  #  if defined(VOLUME_SHADOW)

8582    /* Heterogeneous volume shadows */

8583    float dd = l_vector.w / volShadowSteps;

8584    vec3 L = l_vector.xyz * l_vector.w;

8585    vec3 shadow = vec3(1.0);

8586    for (float s = 0.5; s < VOLUMETRIC_SHADOW_MAX_STEP && s < (volShadowSteps - 0.1); s += 1.0) {

8587      vec3 pos = ray_wpos + L * (s / volShadowSteps);

8588      vec3 s_extinction = participating_media_extinction(pos, volume_extinction);

8589      shadow *= exp(-s_extinction * dd);

8590    }

8591    return shadow;

8592  #  else

8593    return vec3(1.0);

8594  #  endif /* VOLUME_SHADOW */

8595  }

8596  #endif

8597  

8598  #ifdef IRRADIANCE_LIB

8599  vec3 irradiance_volumetric(vec3 wpos)

8600  {

8601  #  ifdef IRRADIANCE_HL2

8602    IrradianceData ir_data = load_irradiance_cell(0, vec3(1.0));

8603    vec3 irradiance = ir_data.cubesides[0] + ir_data.cubesides[1] + ir_data.cubesides[2];

8604    ir_data = load_irradiance_cell(0, vec3(-1.0));

8605    irradiance += ir_data.cubesides[0] + ir_data.cubesides[1] + ir_data.cubesides[2];

8606    irradiance *= 0.16666666; /* 1/6 */

8607    return irradiance;

8608  #  else

8609    return vec3(0.0);

8610  #  endif

8611  }

8612  #endif

8613  

8614  uniform sampler3D inScattering;

8615  uniform sampler3D inTransmittance;

8616  

8617  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth)

8618  {

8619    vec3 volume_cos = ndc_to_volume(vec3(frag_uvs, frag_depth));

8620  

8621    vec3 scattering = texture(inScattering, volume_cos).rgb;

8622    vec3 transmittance = texture(inTransmittance, volume_cos).rgb;

8623  

8624    /* Approximate volume alpha by using a monochromatic transmitance

8625     * and adding it to the scene alpha. */

8626    float final_alpha = mix(1.0, scene_color.a, dot(transmittance, vec3(1.0 / 3.0)));

8627    return vec4(scene_color.rgb * transmittance + scattering, final_alpha);

8628  }

8629  

8630  uniform mat4 ModelViewMatrix;

8631  uniform mat4 ModelViewMatrixInverse;

8632  uniform mat3 NormalMatrix;

8633  uniform mat3 NormalMatrixInverse;

8634  

8635  #ifndef USE_ATTR

8636  uniform mat4 ModelMatrix;

8637  uniform mat4 ModelMatrixInverse;

8638  #endif

8639  

8640  /* Converters */

8641  

8642  float convert_rgba_to_float(vec4 color)

8643  {

8644    return dot(color.rgb, vec3(0.2126, 0.7152, 0.0722));

8645  }

8646  

8647  float exp_blender(float f)

8648  {

8649    return pow(2.71828182846, f);

8650  }

8651  

8652  float compatible_pow(float x, float y)

8653  {

8654    if (y == 0.0) /* x^0 -> 1, including 0^0 */

8655      return 1.0;

8656  

8657    /* glsl pow doesn't accept negative x */

8658    if (x < 0.0) {

8659      if (mod(-y, 2.0) == 0.0)

8660        return pow(-x, y);

8661      else

8662        return -pow(-x, y);

8663    }

8664    else if (x == 0.0)

8665      return 0.0;

8666  

8667    return pow(x, y);

8668  }

8669  

8670  void rgb_to_hsv(vec4 rgb, out vec4 outcol)

8671  {

8672    float cmax, cmin, h, s, v, cdelta;

8673    vec3 c;

8674  

8675    cmax = max(rgb[0], max(rgb[1], rgb[2]));

8676    cmin = min(rgb[0], min(rgb[1], rgb[2]));

8677    cdelta = cmax - cmin;

8678  

8679    v = cmax;

8680    if (cmax != 0.0)

8681      s = cdelta / cmax;

8682    else {

8683      s = 0.0;

8684      h = 0.0;

8685    }

8686  

8687    if (s == 0.0) {

8688      h = 0.0;

8689    }

8690    else {

8691      c = (vec3(cmax) - rgb.xyz) / cdelta;

8692  

8693      if (rgb.x == cmax)

8694        h = c[2] - c[1];

8695      else if (rgb.y == cmax)

8696        h = 2.0 + c[0] - c[2];

8697      else

8698        h = 4.0 + c[1] - c[0];

8699  

8700      h /= 6.0;

8701  

8702      if (h < 0.0)

8703        h += 1.0;

8704    }

8705  

8706    outcol = vec4(h, s, v, rgb.w);

8707  }

8708  

8709  void hsv_to_rgb(vec4 hsv, out vec4 outcol)

8710  {

8711    float i, f, p, q, t, h, s, v;

8712    vec3 rgb;

8713  

8714    h = hsv[0];

8715    s = hsv[1];

8716    v = hsv[2];

8717  

8718    if (s == 0.0) {

8719      rgb = vec3(v, v, v);

8720    }

8721    else {

8722      if (h == 1.0)

8723        h = 0.0;

8724  

8725      h *= 6.0;

8726      i = floor(h);

8727      f = h - i;

8728      rgb = vec3(f, f, f);

8729      p = v * (1.0 - s);

8730      q = v * (1.0 - (s * f));

8731      t = v * (1.0 - (s * (1.0 - f)));

8732  

8733      if (i == 0.0)

8734        rgb = vec3(v, t, p);

8735      else if (i == 1.0)

8736        rgb = vec3(q, v, p);

8737      else if (i == 2.0)

8738        rgb = vec3(p, v, t);

8739      else if (i == 3.0)

8740        rgb = vec3(p, q, v);

8741      else if (i == 4.0)

8742        rgb = vec3(t, p, v);

8743      else

8744        rgb = vec3(v, p, q);

8745    }

8746  

8747    outcol = vec4(rgb, hsv.w);

8748  }

8749  

8750  float srgb_to_linearrgb(float c)

8751  {

8752    if (c < 0.04045)

8753      return (c < 0.0) ? 0.0 : c * (1.0 / 12.92);

8754    else

8755      return pow((c + 0.055) * (1.0 / 1.055), 2.4);

8756  }

8757  

8758  float linearrgb_to_srgb(float c)

8759  {

8760    if (c < 0.0031308)

8761      return (c < 0.0) ? 0.0 : c * 12.92;

8762    else

8763      return 1.055 * pow(c, 1.0 / 2.4) - 0.055;

8764  }

8765  

8766  void srgb_to_linearrgb(vec4 col_from, out vec4 col_to)

8767  {

8768    col_to.r = srgb_to_linearrgb(col_from.r);

8769    col_to.g = srgb_to_linearrgb(col_from.g);

8770    col_to.b = srgb_to_linearrgb(col_from.b);

8771    col_to.a = col_from.a;

8772  }

8773  

8774  void linearrgb_to_srgb(vec4 col_from, out vec4 col_to)

8775  {

8776    col_to.r = linearrgb_to_srgb(col_from.r);

8777    col_to.g = linearrgb_to_srgb(col_from.g);

8778    col_to.b = linearrgb_to_srgb(col_from.b);

8779    col_to.a = col_from.a;

8780  }

8781  

8782  void color_to_normal_new_shading(vec3 color, out vec3 normal)

8783  {

8784    normal = vec3(2.0) * color - vec3(1.0);

8785  }

8786  

8787  void color_to_blender_normal_new_shading(vec3 color, out vec3 normal)

8788  {

8789    normal = vec3(2.0, -2.0, -2.0) * color - vec3(1.0);

8790  }

8791  

8792  #ifndef M_PI

8793  #  define M_PI 3.14159265358979323846

8794  #endif

8795  #ifndef M_1_PI

8796  #  define M_1_PI 0.318309886183790671538

8797  #endif

8798  

8799  /*********** SHADER NODES ***************/

8800  

8801  void particle_info(vec4 sprops,

8802                     vec4 loc,

8803                     vec3 vel,

8804                     vec3 avel,

8805                     out float index,

8806                     out float random,

8807                     out float age,

8808                     out float life_time,

8809                     out vec3 location,

8810                     out float size,

8811                     out vec3 velocity,

8812                     out vec3 angular_velocity)

8813  {

8814    index = sprops.x;

8815    random = loc.w;

8816    age = sprops.y;

8817    life_time = sprops.z;

8818    size = sprops.w;

8819  

8820    location = loc.xyz;

8821    velocity = vel;

8822    angular_velocity = avel;

8823  }

8824  

8825  void vect_normalize(vec3 vin, out vec3 vout)

8826  {

8827    vout = normalize(vin);

8828  }

8829  

8830  void direction_transform_m4v3(vec3 vin, mat4 mat, out vec3 vout)

8831  {

8832    vout = (mat * vec4(vin, 0.0)).xyz;

8833  }

8834  

8835  void mat3_mul(vec3 vin, mat3 mat, out vec3 vout)

8836  {

8837    vout = mat * vin;

8838  }

8839  

8840  void point_transform_m4v3(vec3 vin, mat4 mat, out vec3 vout)

8841  {

8842    vout = (mat * vec4(vin, 1.0)).xyz;

8843  }

8844  

8845  void point_texco_remap_square(vec3 vin, out vec3 vout)

8846  {

8847    vout = vin * 2.0 - 1.0;

8848  }

8849  

8850  void point_texco_clamp(vec3 vin, sampler2D ima, out vec3 vout)

8851  {

8852    vec2 half_texel_size = 0.5 / vec2(textureSize(ima, 0).xy);

8853    vout = clamp(vin, half_texel_size.xyy, 1.0 - half_texel_size.xyy);

8854  }

8855  

8856  void point_map_to_sphere(vec3 vin, out vec3 vout)

8857  {

8858    float len = length(vin);

8859    float v, u;

8860    if (len > 0.0) {

8861      if (vin.x == 0.0 && vin.y == 0.0)

8862        u = 0.0;

8863      else

8864        u = (1.0 - atan(vin.x, vin.y) / M_PI) / 2.0;

8865  

8866      v = 1.0 - acos(vin.z / len) / M_PI;

8867    }

8868    else

8869      v = u = 0.0;

8870  

8871    vout = vec3(u, v, 0.0);

8872  }

8873  

8874  void point_map_to_tube(vec3 vin, out vec3 vout)

8875  {

8876    float u, v;

8877    v = (vin.z + 1.0) * 0.5;

8878    float len = sqrt(vin.x * vin.x + vin.y * vin[1]);

8879    if (len > 0.0)

8880      u = (1.0 - (atan(vin.x / len, vin.y / len) / M_PI)) * 0.5;

8881    else

8882      v = u = 0.0;

8883  

8884    vout = vec3(u, v, 0.0);

8885  }

8886  

8887  void mapping(

8888      vec3 vec, vec4 m0, vec4 m1, vec4 m2, vec4 m3, vec3 minvec, vec3 maxvec, out vec3 outvec)

8889  {

8890    mat4 mat = mat4(m0, m1, m2, m3);

8891    outvec = (mat * vec4(vec, 1.0)).xyz;

8892    outvec = clamp(outvec, minvec, maxvec);

8893  }

8894  

8895  void camera(vec3 co, out vec3 outview, out float outdepth, out float outdist)

8896  {

8897    outdepth = abs(co.z);

8898    outdist = length(co);

8899    outview = normalize(co);

8900  }

8901  

8902  void math_add(float val1, float val2, out float outval)

8903  {

8904    outval = val1 + val2;

8905  }

8906  

8907  void math_subtract(float val1, float val2, out float outval)

8908  {

8909    outval = val1 - val2;

8910  }

8911  

8912  void math_multiply(float val1, float val2, out float outval)

8913  {

8914    outval = val1 * val2;

8915  }

8916  

8917  void math_divide(float val1, float val2, out float outval)

8918  {

8919    if (val2 == 0.0)

8920      outval = 0.0;

8921    else

8922      outval = val1 / val2;

8923  }

8924  

8925  void math_sine(float val, out float outval)

8926  {

8927    outval = sin(val);

8928  }

8929  

8930  void math_cosine(float val, out float outval)

8931  {

8932    outval = cos(val);

8933  }

8934  

8935  void math_tangent(float val, out float outval)

8936  {

8937    outval = tan(val);

8938  }

8939  

8940  void math_asin(float val, out float outval)

8941  {

8942    if (val <= 1.0 && val >= -1.0)

8943      outval = asin(val);

8944    else

8945      outval = 0.0;

8946  }

8947  

8948  void math_acos(float val, out float outval)

8949  {

8950    if (val <= 1.0 && val >= -1.0)

8951      outval = acos(val);

8952    else

8953      outval = 0.0;

8954  }

8955  

8956  void math_atan(float val, out float outval)

8957  {

8958    outval = atan(val);

8959  }

8960  

8961  void math_pow(float val1, float val2, out float outval)

8962  {

8963    if (val1 >= 0.0) {

8964      outval = compatible_pow(val1, val2);

8965    }

8966    else {

8967      float val2_mod_1 = mod(abs(val2), 1.0);

8968  

8969      if (val2_mod_1 > 0.999 || val2_mod_1 < 0.001)

8970        outval = compatible_pow(val1, floor(val2 + 0.5));

8971      else

8972        outval = 0.0;

8973    }

8974  }

8975  

8976  void math_log(float val1, float val2, out float outval)

8977  {

8978    if (val1 > 0.0 && val2 > 0.0)

8979      outval = log2(val1) / log2(val2);

8980    else

8981      outval = 0.0;

8982  }

8983  

8984  void math_max(float val1, float val2, out float outval)

8985  {

8986    outval = max(val1, val2);

8987  }

8988  

8989  void math_min(float val1, float val2, out float outval)

8990  {

8991    outval = min(val1, val2);

8992  }

8993  

8994  void math_round(float val, out float outval)

8995  {

8996    outval = floor(val + 0.5);

8997  }

8998  

8999  void math_less_than(float val1, float val2, out float outval)

9000  {

9001    if (val1 < val2)

9002      outval = 1.0;

9003    else

9004      outval = 0.0;

9005  }

9006  

9007  void math_greater_than(float val1, float val2, out float outval)

9008  {

9009    if (val1 > val2)

9010      outval = 1.0;

9011    else

9012      outval = 0.0;

9013  }

9014  

9015  void math_modulo(float val1, float val2, out float outval)

9016  {

9017    if (val2 == 0.0)

9018      outval = 0.0;

9019    else

9020      outval = mod(val1, val2);

9021  

9022    /* change sign to match C convention, mod in GLSL will take absolute for negative numbers,

9023     * see https://www.opengl.org/sdk/docs/man/html/mod.xhtml */

9024    outval = (val1 > 0.0) ? outval : outval - val2;

9025  }

9026  

9027  void math_abs(float val1, out float outval)

9028  {

9029    outval = abs(val1);

9030  }

9031  

9032  void math_atan2(float val1, float val2, out float outval)

9033  {

9034    outval = atan(val1, val2);

9035  }

9036  

9037  void math_floor(float val, out float outval)

9038  {

9039    outval = floor(val);

9040  }

9041  

9042  void math_ceil(float val, out float outval)

9043  {

9044    outval = ceil(val);

9045  }

9046  

9047  void math_fract(float val, out float outval)

9048  {

9049    outval = val - floor(val);

9050  }

9051  

9052  void math_sqrt(float val, out float outval)

9053  {

9054    if (val > 0.0)

9055      outval = sqrt(val);

9056    else

9057      outval = 0.0;

9058  }

9059  

9060  void squeeze(float val, float width, float center, out float outval)

9061  {

9062    outval = 1.0 / (1.0 + pow(2.71828183, -((val - center) * width)));

9063  }

9064  

9065  void vec_math_add(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9066  {

9067    outvec = v1 + v2;

9068    outval = (abs(outvec[0]) + abs(outvec[1]) + abs(outvec[2])) * 0.333333;

9069  }

9070  

9071  void vec_math_sub(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9072  {

9073    outvec = v1 - v2;

9074    outval = (abs(outvec[0]) + abs(outvec[1]) + abs(outvec[2])) * 0.333333;

9075  }

9076  

9077  void vec_math_average(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9078  {

9079    outvec = v1 + v2;

9080    outval = length(outvec);

9081    outvec = normalize(outvec);

9082  }

9083  void vec_math_mix(float strength, vec3 v1, vec3 v2, out vec3 outvec)

9084  {

9085    outvec = strength * v1 + (1 - strength) * v2;

9086  }

9087  

9088  void vec_math_dot(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9089  {

9090    outvec = vec3(0);

9091    outval = dot(v1, v2);

9092  }

9093  

9094  void vec_math_cross(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9095  {

9096    outvec = cross(v1, v2);

9097    outval = length(outvec);

9098    outvec /= outval;

9099  }

9100  

9101  void vec_math_normalize(vec3 v, out vec3 outvec, out float outval)

9102  {

9103    outval = length(v);

9104    outvec = normalize(v);

9105  }

9106  

9107  void vec_math_negate(vec3 v, out vec3 outv)

9108  {

9109    outv = -v;

9110  }

9111  

9112  void invert_z(vec3 v, out vec3 outv)

9113  {

9114    v.z = -v.z;

9115    outv = v;

9116  }

9117  

9118  void normal_new_shading(vec3 nor, vec3 dir, out vec3 outnor, out float outdot)

9119  {

9120    outnor = dir;

9121    outdot = dot(normalize(nor), dir);

9122  }

9123  

9124  void curves_vec(float fac, vec3 vec, sampler1DArray curvemap, float layer, out vec3 outvec)

9125  {

9126    vec4 co = vec4(vec * 0.5 + 0.5, layer);

9127    outvec.x = texture(curvemap, co.xw).x;

9128    outvec.y = texture(curvemap, co.yw).y;

9129    outvec.z = texture(curvemap, co.zw).z;

9130    outvec = mix(vec, outvec, fac);

9131  }

9132  

9133  /* ext is vec4(in_x, in_dy, out_x, out_dy). */

9134  float curve_extrapolate(float x, float y, vec4 ext)

9135  {

9136    if (x < 0.0) {

9137      return y + x * ext.y;

9138    }

9139    else if (x > 1.0) {

9140      return y + (x - 1.0) * ext.w;

9141    }

9142    else {

9143      return y;

9144    }

9145  }

9146  

9147  #define RANGE_RESCALE(x, min, range) ((x - min) * range)

9148  

9149  void curves_rgb(float fac,

9150                  vec4 col,

9151                  sampler1DArray curvemap,

9152                  float layer,

9153                  vec4 range,

9154                  vec4 ext_r,

9155                  vec4 ext_g,

9156                  vec4 ext_b,

9157                  vec4 ext_a,

9158                  out vec4 outcol)

9159  {

9160    vec4 co = vec4(RANGE_RESCALE(col.rgb, ext_a.x, range.a), layer);

9161    vec3 samp;

9162    samp.r = texture(curvemap, co.xw).a;

9163    samp.g = texture(curvemap, co.yw).a;

9164    samp.b = texture(curvemap, co.zw).a;

9165  

9166    samp.r = curve_extrapolate(co.x, samp.r, ext_a);

9167    samp.g = curve_extrapolate(co.y, samp.g, ext_a);

9168    samp.b = curve_extrapolate(co.z, samp.b, ext_a);

9169  

9170    vec3 rgb_min = vec3(ext_r.x, ext_g.x, ext_b.x);

9171    co.xyz = RANGE_RESCALE(samp.rgb, rgb_min, range.rgb);

9172  

9173    samp.r = texture(curvemap, co.xw).r;

9174    samp.g = texture(curvemap, co.yw).g;

9175    samp.b = texture(curvemap, co.zw).b;

9176  

9177    outcol.r = curve_extrapolate(co.x, samp.r, ext_r);

9178    outcol.g = curve_extrapolate(co.y, samp.g, ext_g);

9179    outcol.b = curve_extrapolate(co.z, samp.b, ext_b);

9180    outcol.a = col.a;

9181  

9182    outcol = mix(col, outcol, fac);

9183  }

9184  

9185  void curves_rgb_opti(float fac,

9186                       vec4 col,

9187                       sampler1DArray curvemap,

9188                       float layer,

9189                       vec4 range,

9190                       vec4 ext_a,

9191                       out vec4 outcol)

9192  {

9193    vec4 co = vec4(RANGE_RESCALE(col.rgb, ext_a.x, range.a), layer);

9194    vec3 samp;

9195    samp.r = texture(curvemap, co.xw).a;

9196    samp.g = texture(curvemap, co.yw).a;

9197    samp.b = texture(curvemap, co.zw).a;

9198  

9199    outcol.r = curve_extrapolate(co.x, samp.r, ext_a);

9200    outcol.g = curve_extrapolate(co.y, samp.g, ext_a);

9201    outcol.b = curve_extrapolate(co.z, samp.b, ext_a);

9202    outcol.a = col.a;

9203  

9204    outcol = mix(col, outcol, fac);

9205  }

9206  

9207  void set_value(float val, out float outval)

9208  {

9209    outval = val;

9210  }

9211  

9212  void set_rgb(vec3 col, out vec3 outcol)

9213  {

9214    outcol = col;

9215  }

9216  

9217  void set_rgba(vec4 col, out vec4 outcol)

9218  {

9219    outcol = col;

9220  }

9221  

9222  void set_value_zero(out float outval)

9223  {

9224    outval = 0.0;

9225  }

9226  

9227  void set_value_one(out float outval)

9228  {

9229    outval = 1.0;

9230  }

9231  

9232  void set_rgb_zero(out vec3 outval)

9233  {

9234    outval = vec3(0.0);

9235  }

9236  

9237  void set_rgb_one(out vec3 outval)

9238  {

9239    outval = vec3(1.0);

9240  }

9241  

9242  void set_rgba_zero(out vec4 outval)

9243  {

9244    outval = vec4(0.0);

9245  }

9246  

9247  void set_rgba_one(out vec4 outval)

9248  {

9249    outval = vec4(1.0);

9250  }

9251  

9252  void brightness_contrast(vec4 col, float brightness, float contrast, out vec4 outcol)

9253  {

9254    float a = 1.0 + contrast;

9255    float b = brightness - contrast * 0.5;

9256  

9257    outcol.r = max(a * col.r + b, 0.0);

9258    outcol.g = max(a * col.g + b, 0.0);

9259    outcol.b = max(a * col.b + b, 0.0);

9260    outcol.a = col.a;

9261  }

9262  

9263  void mix_blend(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9264  {

9265    fac = clamp(fac, 0.0, 1.0);

9266    outcol = mix(col1, col2, fac);

9267    outcol.a = col1.a;

9268  }

9269  

9270  void mix_add(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9271  {

9272    fac = clamp(fac, 0.0, 1.0);

9273    outcol = mix(col1, col1 + col2, fac);

9274    outcol.a = col1.a;

9275  }

9276  

9277  void mix_mult(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9278  {

9279    fac = clamp(fac, 0.0, 1.0);

9280    outcol = mix(col1, col1 * col2, fac);

9281    outcol.a = col1.a;

9282  }

9283  

9284  void mix_screen(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9285  {

9286    fac = clamp(fac, 0.0, 1.0);

9287    float facm = 1.0 - fac;

9288  

9289    outcol = vec4(1.0) - (vec4(facm) + fac * (vec4(1.0) - col2)) * (vec4(1.0) - col1);

9290    outcol.a = col1.a;

9291  }

9292  

9293  void mix_overlay(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9294  {

9295    fac = clamp(fac, 0.0, 1.0);

9296    float facm = 1.0 - fac;

9297  

9298    outcol = col1;

9299  

9300    if (outcol.r < 0.5)

9301      outcol.r *= facm + 2.0 * fac * col2.r;

9302    else

9303      outcol.r = 1.0 - (facm + 2.0 * fac * (1.0 - col2.r)) * (1.0 - outcol.r);

9304  

9305    if (outcol.g < 0.5)

9306      outcol.g *= facm + 2.0 * fac * col2.g;

9307    else

9308      outcol.g = 1.0 - (facm + 2.0 * fac * (1.0 - col2.g)) * (1.0 - outcol.g);

9309  

9310    if (outcol.b < 0.5)

9311      outcol.b *= facm + 2.0 * fac * col2.b;

9312    else

9313      outcol.b = 1.0 - (facm + 2.0 * fac * (1.0 - col2.b)) * (1.0 - outcol.b);

9314  }

9315  

9316  void mix_sub(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9317  {

9318    fac = clamp(fac, 0.0, 1.0);

9319    outcol = mix(col1, col1 - col2, fac);

9320    outcol.a = col1.a;

9321  }

9322  

9323  void mix_div(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9324  {

9325    fac = clamp(fac, 0.0, 1.0);

9326    float facm = 1.0 - fac;

9327  

9328    outcol = col1;

9329  

9330    if (col2.r != 0.0)

9331      outcol.r = facm * outcol.r + fac * outcol.r / col2.r;

9332    if (col2.g != 0.0)

9333      outcol.g = facm * outcol.g + fac * outcol.g / col2.g;

9334    if (col2.b != 0.0)

9335      outcol.b = facm * outcol.b + fac * outcol.b / col2.b;

9336  }

9337  

9338  void mix_diff(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9339  {

9340    fac = clamp(fac, 0.0, 1.0);

9341    outcol = mix(col1, abs(col1 - col2), fac);

9342    outcol.a = col1.a;

9343  }

9344  

9345  void mix_dark(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9346  {

9347    fac = clamp(fac, 0.0, 1.0);

9348    outcol.rgb = min(col1.rgb, col2.rgb * fac);

9349    outcol.a = col1.a;

9350  }

9351  

9352  void mix_light(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9353  {

9354    fac = clamp(fac, 0.0, 1.0);

9355    outcol.rgb = max(col1.rgb, col2.rgb * fac);

9356    outcol.a = col1.a;

9357  }

9358  

9359  void mix_dodge(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9360  {

9361    fac = clamp(fac, 0.0, 1.0);

9362    outcol = col1;

9363  

9364    if (outcol.r != 0.0) {

9365      float tmp = 1.0 - fac * col2.r;

9366      if (tmp <= 0.0)

9367        outcol.r = 1.0;

9368      else if ((tmp = outcol.r / tmp) > 1.0)

9369        outcol.r = 1.0;

9370      else

9371        outcol.r = tmp;

9372    }

9373    if (outcol.g != 0.0) {

9374      float tmp = 1.0 - fac * col2.g;

9375      if (tmp <= 0.0)

9376        outcol.g = 1.0;

9377      else if ((tmp = outcol.g / tmp) > 1.0)

9378        outcol.g = 1.0;

9379      else

9380        outcol.g = tmp;

9381    }

9382    if (outcol.b != 0.0) {

9383      float tmp = 1.0 - fac * col2.b;

9384      if (tmp <= 0.0)

9385        outcol.b = 1.0;

9386      else if ((tmp = outcol.b / tmp) > 1.0)

9387        outcol.b = 1.0;

9388      else

9389        outcol.b = tmp;

9390    }

9391  }

9392  

9393  void mix_burn(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9394  {

9395    fac = clamp(fac, 0.0, 1.0);

9396    float tmp, facm = 1.0 - fac;

9397  

9398    outcol = col1;

9399  

9400    tmp = facm + fac * col2.r;

9401    if (tmp <= 0.0)

9402      outcol.r = 0.0;

9403    else if ((tmp = (1.0 - (1.0 - outcol.r) / tmp)) < 0.0)

9404      outcol.r = 0.0;

9405    else if (tmp > 1.0)

9406      outcol.r = 1.0;

9407    else

9408      outcol.r = tmp;

9409  

9410    tmp = facm + fac * col2.g;

9411    if (tmp <= 0.0)

9412      outcol.g = 0.0;

9413    else if ((tmp = (1.0 - (1.0 - outcol.g) / tmp)) < 0.0)

9414      outcol.g = 0.0;

9415    else if (tmp > 1.0)

9416      outcol.g = 1.0;

9417    else

9418      outcol.g = tmp;

9419  

9420    tmp = facm + fac * col2.b;

9421    if (tmp <= 0.0)

9422      outcol.b = 0.0;

9423    else if ((tmp = (1.0 - (1.0 - outcol.b) / tmp)) < 0.0)

9424      outcol.b = 0.0;

9425    else if (tmp > 1.0)

9426      outcol.b = 1.0;

9427    else

9428      outcol.b = tmp;

9429  }

9430  

9431  void mix_hue(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9432  {

9433    fac = clamp(fac, 0.0, 1.0);

9434    float facm = 1.0 - fac;

9435  

9436    outcol = col1;

9437  

9438    vec4 hsv, hsv2, tmp;

9439    rgb_to_hsv(col2, hsv2);

9440  

9441    if (hsv2.y != 0.0) {

9442      rgb_to_hsv(outcol, hsv);

9443      hsv.x = hsv2.x;

9444      hsv_to_rgb(hsv, tmp);

9445  

9446      outcol = mix(outcol, tmp, fac);

9447      outcol.a = col1.a;

9448    }

9449  }

9450  

9451  void mix_sat(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9452  {

9453    fac = clamp(fac, 0.0, 1.0);

9454    float facm = 1.0 - fac;

9455  

9456    outcol = col1;

9457  

9458    vec4 hsv, hsv2;

9459    rgb_to_hsv(outcol, hsv);

9460  

9461    if (hsv.y != 0.0) {

9462      rgb_to_hsv(col2, hsv2);

9463  

9464      hsv.y = facm * hsv.y + fac * hsv2.y;

9465      hsv_to_rgb(hsv, outcol);

9466    }

9467  }

9468  

9469  void mix_val(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9470  {

9471    fac = clamp(fac, 0.0, 1.0);

9472    float facm = 1.0 - fac;

9473  

9474    vec4 hsv, hsv2;

9475    rgb_to_hsv(col1, hsv);

9476    rgb_to_hsv(col2, hsv2);

9477  

9478    hsv.z = facm * hsv.z + fac * hsv2.z;

9479    hsv_to_rgb(hsv, outcol);

9480  }

9481  

9482  void mix_color(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9483  {

9484    fac = clamp(fac, 0.0, 1.0);

9485    float facm = 1.0 - fac;

9486  

9487    outcol = col1;

9488  

9489    vec4 hsv, hsv2, tmp;

9490    rgb_to_hsv(col2, hsv2);

9491  

9492    if (hsv2.y != 0.0) {

9493      rgb_to_hsv(outcol, hsv);

9494      hsv.x = hsv2.x;

9495      hsv.y = hsv2.y;

9496      hsv_to_rgb(hsv, tmp);

9497  

9498      outcol = mix(outcol, tmp, fac);

9499      outcol.a = col1.a;

9500    }

9501  }

9502  

9503  void mix_soft(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9504  {

9505    fac = clamp(fac, 0.0, 1.0);

9506    float facm = 1.0 - fac;

9507  

9508    vec4 one = vec4(1.0);

9509    vec4 scr = one - (one - col2) * (one - col1);

9510    outcol = facm * col1 + fac * ((one - col1) * col2 * col1 + col1 * scr);

9511  }

9512  

9513  void mix_linear(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9514  {

9515    fac = clamp(fac, 0.0, 1.0);

9516  

9517    outcol = col1 + fac * (2.0 * (col2 - vec4(0.5)));

9518  }

9519  

9520  void valtorgb_opti_constant(

9521      float fac, float edge, vec4 color1, vec4 color2, out vec4 outcol, out float outalpha)

9522  {

9523    outcol = (fac > edge) ? color2 : color1;

9524    outalpha = outcol.a;

9525  }

9526  

9527  void valtorgb_opti_linear(

9528      float fac, vec2 mulbias, vec4 color1, vec4 color2, out vec4 outcol, out float outalpha)

9529  {

9530    fac = clamp(fac * mulbias.x + mulbias.y, 0.0, 1.0);

9531    outcol = mix(color1, color2, fac);

9532    outalpha = outcol.a;

9533  }

9534  

9535  void valtorgb(float fac, sampler1DArray colormap, float layer, out vec4 outcol, out float outalpha)

9536  {

9537    outcol = texture(colormap, vec2(fac, layer));

9538    outalpha = outcol.a;

9539  }

9540  

9541  void valtorgb_nearest(

9542      float fac, sampler1DArray colormap, float layer, out vec4 outcol, out float outalpha)

9543  {

9544    fac = clamp(fac, 0.0, 1.0);

9545    outcol = texelFetch(colormap, ivec2(fac * (textureSize(colormap, 0).x - 1), layer), 0);

9546    outalpha = outcol.a;

9547  }

9548  

9549  void rgbtobw(vec4 color, out float outval)

9550  {

9551    vec3 factors = vec3(0.2126, 0.7152, 0.0722);

9552    outval = dot(color.rgb, factors);

9553  }

9554  

9555  void invert(float fac, vec4 col, out vec4 outcol)

9556  {

9557    outcol.xyz = mix(col.xyz, vec3(1.0) - col.xyz, fac);

9558    outcol.w = col.w;

9559  }

9560  

9561  void clamp_vec3(vec3 vec, vec3 min, vec3 max, out vec3 out_vec)

9562  {

9563    out_vec = clamp(vec, min, max);

9564  }

9565  

9566  void clamp_val(float value, float min, float max, out float out_value)

9567  {

9568    out_value = clamp(value, min, max);

9569  }

9570  

9571  void hue_sat(float hue, float sat, float value, float fac, vec4 col, out vec4 outcol)

9572  {

9573    vec4 hsv;

9574  

9575    rgb_to_hsv(col, hsv);

9576  

9577    hsv[0] = fract(hsv[0] + hue + 0.5);

9578    hsv[1] = clamp(hsv[1] * sat, 0.0, 1.0);

9579    hsv[2] = hsv[2] * value;

9580  

9581    hsv_to_rgb(hsv, outcol);

9582  

9583    outcol = mix(col, outcol, fac);

9584  }

9585  

9586  void separate_rgb(vec4 col, out float r, out float g, out float b)

9587  {

9588    r = col.r;

9589    g = col.g;

9590    b = col.b;

9591  }

9592  

9593  void combine_rgb(float r, float g, float b, out vec4 col)

9594  {

9595    col = vec4(r, g, b, 1.0);

9596  }

9597  

9598  void separate_xyz(vec3 vec, out float x, out float y, out float z)

9599  {

9600    x = vec.r;

9601    y = vec.g;

9602    z = vec.b;

9603  }

9604  

9605  void combine_xyz(float x, float y, float z, out vec3 vec)

9606  {

9607    vec = vec3(x, y, z);

9608  }

9609  

9610  void separate_hsv(vec4 col, out float h, out float s, out float v)

9611  {

9612    vec4 hsv;

9613  

9614    rgb_to_hsv(col, hsv);

9615    h = hsv[0];

9616    s = hsv[1];

9617    v = hsv[2];

9618  }

9619  

9620  void combine_hsv(float h, float s, float v, out vec4 col)

9621  {

9622    hsv_to_rgb(vec4(h, s, v, 1.0), col);

9623  }

9624  

9625  void output_node(vec4 rgb, float alpha, out vec4 outrgb)

9626  {

9627    outrgb = vec4(rgb.rgb, alpha);

9628  }

9629  

9630  /*********** TEXTURES ***************/

9631  

9632  void texco_norm(vec3 normal, out vec3 outnormal)

9633  {

9634    /* corresponds to shi->orn, which is negated so cancels

9635       out blender normal negation */

9636    outnormal = normalize(normal);

9637  }

9638  

9639  vec3 mtex_2d_mapping(vec3 vec)

9640  {

9641    return vec3(vec.xy * 0.5 + vec2(0.5), vec.z);

9642  }

9643  

9644  /** helper method to extract the upper left 3x3 matrix from a 4x4 matrix */

9645  mat3 to_mat3(mat4 m4)

9646  {

9647    mat3 m3;

9648    m3[0] = m4[0].xyz;

9649    m3[1] = m4[1].xyz;

9650    m3[2] = m4[2].xyz;

9651    return m3;

9652  }

9653  

9654  /*********** NEW SHADER UTILITIES **************/

9655  

9656  float fresnel_dielectric_0(float eta)

9657  {

9658    /* compute fresnel reflactance at normal incidence => cosi = 1.0 */

9659    float A = (eta - 1.0) / (eta + 1.0);

9660  

9661    return A * A;

9662  }

9663  

9664  float fresnel_dielectric_cos(float cosi, float eta)

9665  {

9666    /* compute fresnel reflectance without explicitly computing

9667     * the refracted direction */

9668    float c = abs(cosi);

9669    float g = eta * eta - 1.0 + c * c;

9670    float result;

9671  

9672    if (g > 0.0) {

9673      g = sqrt(g);

9674      float A = (g - c) / (g + c);

9675      float B = (c * (g + c) - 1.0) / (c * (g - c) + 1.0);

9676      result = 0.5 * A * A * (1.0 + B * B);

9677    }

9678    else {

9679      result = 1.0; /* TIR (no refracted component) */

9680    }

9681  

9682    return result;

9683  }

9684  

9685  float fresnel_dielectric(vec3 Incoming, vec3 Normal, float eta)

9686  {

9687    /* compute fresnel reflectance without explicitly computing

9688     * the refracted direction */

9689    return fresnel_dielectric_cos(dot(Incoming, Normal), eta);

9690  }

9691  

9692  float hypot(float x, float y)

9693  {

9694    return sqrt(x * x + y * y);

9695  }

9696  

9697  void generated_from_orco(vec3 orco, out vec3 generated)

9698  {

9699  #ifdef VOLUMETRICS

9700  #  ifdef MESH_SHADER

9701    generated = volumeObjectLocalCoord;

9702  #  else

9703    generated = worldPosition;

9704  #  endif

9705  #else

9706    generated = orco;

9707  #endif

9708  }

9709  

9710  int floor_to_int(float x)

9711  {

9712    return int(floor(x));

9713  }

9714  

9715  int quick_floor(float x)

9716  {

9717    return int(x) - ((x < 0) ? 1 : 0);

9718  }

9719  

9720  float integer_noise(int n)

9721  {

9722    int nn;

9723    n = (n + 1013) & 0x7fffffff;

9724    n = (n >> 13) ^ n;

9725    nn = (n * (n * n * 60493 + 19990303) + 1376312589) & 0x7fffffff;

9726    return 0.5 * (float(nn) / 1073741824.0);

9727  }

9728  

9729  uint hash(uint kx, uint ky, uint kz)

9730  {

9731  #define rot(x, k) (((x) << (k)) | ((x) >> (32 - (k))))

9732  #define final(a, b, c) \

9733    { \

9734      c ^= b; \

9735      c -= rot(b, 14); \

9736      a ^= c; \

9737      a -= rot(c, 11); \

9738      b ^= a; \

9739      b -= rot(a, 25); \

9740      c ^= b; \

9741      c -= rot(b, 16); \

9742      a ^= c; \

9743      a -= rot(c, 4); \

9744      b ^= a; \

9745      b -= rot(a, 14); \

9746      c ^= b; \

9747      c -= rot(b, 24); \

9748    }

9749    // now hash the data!

9750    uint a, b, c, len = 3u;

9751    a = b = c = 0xdeadbeefu + (len << 2u) + 13u;

9752  

9753    c += kz;

9754    b += ky;

9755    a += kx;

9756    final(a, b, c);

9757  

9758    return c;

9759  #undef rot

9760  #undef final

9761  }

9762  

9763  uint hash(int kx, int ky, int kz)

9764  {

9765    return hash(uint(kx), uint(ky), uint(kz));

9766  }

9767  

9768  float bits_to_01(uint bits)

9769  {

9770    return (float(bits) / 4294967295.0);

9771  }

9772  

9773  float cellnoise(vec3 p)

9774  {

9775    int ix = quick_floor(p.x);

9776    int iy = quick_floor(p.y);

9777    int iz = quick_floor(p.z);

9778  

9779    return bits_to_01(hash(uint(ix), uint(iy), uint(iz)));

9780  }

9781  

9782  vec3 cellnoise_color(vec3 p)

9783  {

9784    float r = cellnoise(p.xyz);

9785    float g = cellnoise(p.yxz);

9786    float b = cellnoise(p.yzx);

9787  

9788    return vec3(r, g, b);

9789  }

9790  

9791  float floorfrac(float x, out int i)

9792  {

9793    i = floor_to_int(x);

9794    return x - i;

9795  }

9796  

9797  /* bsdfs */

9798  

9799  vec3 tint_from_color(vec3 color)

9800  {

9801    float lum = dot(color, vec3(0.3, 0.6, 0.1)); /* luminance approx. */

9802    return (lum > 0) ? color / lum : vec3(1.0);  /* normalize lum. to isolate hue+sat */

9803  }

9804  

9805  void convert_metallic_to_specular_tinted(vec3 basecol,

9806                                           vec3 basecol_tint,

9807                                           float metallic,

9808                                           float specular_fac,

9809                                           float specular_tint,

9810                                           out vec3 diffuse,

9811                                           out vec3 f0)

9812  {

9813    vec3 tmp_col = mix(vec3(1.0), basecol_tint, specular_tint);

9814    f0 = mix((0.08 * specular_fac) * tmp_col, basecol, metallic);

9815    diffuse = basecol * (1.0 - metallic);

9816  }

9817  

9818  vec3 principled_sheen(float NV, vec3 basecol_tint, float sheen_tint)

9819  {

9820    float f = 1.0 - NV;

9821    /* Temporary fix for T59784. Normal map seems to contain NaNs for tangent space normal maps, therefore we need to clamp value. */

9822    f = clamp(f, 0.0, 1.0);

9823    /* Empirical approximation (manual curve fitting). Can be refined. */

9824    float sheen = f * f * f * 0.077 + f * 0.01 + 0.00026;

9825    return sheen * mix(vec3(1.0), basecol_tint, sheen_tint);

9826  }

9827  

9828  #ifndef VOLUMETRICS

9829  void node_bsdf_diffuse(vec4 color, float roughness, vec3 N, out Closure result)

9830  {

9831    N = normalize(N);

9832    vec3 vN = mat3(ViewMatrix) * N;

9833    result = CLOSURE_DEFAULT;

9834    result.ssr_normal = normal_encode(vN, viewCameraVec);

9835    eevee_closure_diffuse(N, color.rgb, 1.0, result.radiance);

9836    result.radiance *= color.rgb;

9837  }

9838  

9839  void node_bsdf_glossy(vec4 color, float roughness, vec3 N, float ssr_id, out Closure result)

9840  {

9841    N = normalize(N);

9842    vec3 out_spec, ssr_spec;

9843    eevee_closure_glossy(N, vec3(1.0), int(ssr_id), roughness, 1.0, out_spec, ssr_spec);

9844    vec3 vN = mat3(ViewMatrix) * N;

9845    result = CLOSURE_DEFAULT;

9846    result.radiance = out_spec * color.rgb;

9847    result.ssr_data = vec4(ssr_spec * color.rgb, roughness);

9848    result.ssr_normal = normal_encode(vN, viewCameraVec);

9849    result.ssr_id = int(ssr_id);

9850  }

9851  

9852  void node_bsdf_anisotropic(vec4 color,

9853                             float roughness,

9854                             float anisotropy,

9855                             float rotation,

9856                             vec3 N,

9857                             vec3 T,

9858                             out Closure result)

9859  {

9860    node_bsdf_glossy(color, roughness, N, -1, result);

9861  }

9862  

9863  void node_bsdf_glass(

9864      vec4 color, float roughness, float ior, vec3 N, float ssr_id, out Closure result)

9865  {

9866    N = normalize(N);

9867    vec3 out_spec, out_refr, ssr_spec;

9868    vec3 refr_color = (refractionDepth > 0.0) ? color.rgb * color.rgb :

9869                                                color.rgb; /* Simulate 2 transmission event */

9870    eevee_closure_glass(

9871        N, vec3(1.0), int(ssr_id), roughness, 1.0, ior, out_spec, out_refr, ssr_spec);

9872    out_refr *= refr_color;

9873    out_spec *= color.rgb;

9874    float fresnel = F_eta(ior, dot(N, cameraVec));

9875    vec3 vN = mat3(ViewMatrix) * N;

9876    result = CLOSURE_DEFAULT;

9877    result.radiance = mix(out_refr, out_spec, fresnel);

9878    result.ssr_data = vec4(ssr_spec * color.rgb * fresnel, roughness);

9879    result.ssr_normal = normal_encode(vN, viewCameraVec);

9880    result.ssr_id = int(ssr_id);

9881  }

9882  

9883  void node_bsdf_toon(vec4 color, float size, float tsmooth, vec3 N, out Closure result)

9884  {

9885    node_bsdf_diffuse(color, 0.0, N, result);

9886  }

9887  

9888  void node_bsdf_principled(vec4 base_color,

9889                            float subsurface,

9890                            vec3 subsurface_radius,

9891                            vec4 subsurface_color,

9892                            float metallic,

9893                            float specular,

9894                            float specular_tint,

9895                            float roughness,

9896                            float anisotropic,

9897                            float anisotropic_rotation,

9898                            float sheen,

9899                            float sheen_tint,

9900                            float clearcoat,

9901                            float clearcoat_roughness,

9902                            float ior,

9903                            float transmission,

9904                            float transmission_roughness,

9905                            vec3 N,

9906                            vec3 CN,

9907                            vec3 T,

9908                            vec3 I,

9909                            float ssr_id,

9910                            float sss_id,

9911                            vec3 sss_scale,

9912                            out Closure result)

9913  {

9914    N = normalize(N);

9915    ior = max(ior, 1e-5);

9916    metallic = saturate(metallic);

9917    transmission = saturate(transmission);

9918    float dielectric = 1.0 - metallic;

9919    transmission *= dielectric;

9920    sheen *= dielectric;

9921    subsurface_color *= dielectric;

9922  

9923    vec3 diffuse, f0, out_diff, out_spec, out_trans, out_refr, ssr_spec;

9924    vec3 ctint = tint_from_color(base_color.rgb);

9925    convert_metallic_to_specular_tinted(

9926        base_color.rgb, ctint, metallic, specular, specular_tint, diffuse, f0);

9927  

9928    float NV = dot(N, cameraVec);

9929    vec3 out_sheen = sheen * principled_sheen(NV, ctint, sheen_tint);

9930  

9931    /* Far from being accurate, but 2 glossy evaluation is too expensive.

9932     * Most noticeable difference is at grazing angles since the bsdf lut

9933     * f0 color interpolation is done on top of this interpolation. */

9934    vec3 f0_glass = mix(vec3(1.0), base_color.rgb, specular_tint);

9935    float fresnel = F_eta(ior, NV);

9936    vec3 spec_col = F_color_blend(ior, fresnel, f0_glass) * fresnel;

9937    f0 = mix(f0, spec_col, transmission);

9938  

9939    vec3 mixed_ss_base_color = mix(diffuse, subsurface_color.rgb, subsurface);

9940  

9941    float sss_scalef = dot(sss_scale, vec3(1.0 / 3.0)) * subsurface;

9942    eevee_closure_principled(N,

9943                             mixed_ss_base_color,

9944                             f0,

9945                             int(ssr_id),

9946                             roughness,

9947                             CN,

9948                             clearcoat * 0.25,

9949                             clearcoat_roughness,

9950                             1.0,

9951                             sss_scalef,

9952                             ior,

9953                             out_diff,

9954                             out_trans,

9955                             out_spec,

9956                             out_refr,

9957                             ssr_spec);

9958  

9959    vec3 refr_color = base_color.rgb;

9960    refr_color *= (refractionDepth > 0.0) ? refr_color :

9961                                            vec3(1.0); /* Simulate 2 transmission event */

9962    out_refr *= refr_color * (1.0 - fresnel) * transmission;

9963  

9964    vec3 vN = mat3(ViewMatrix) * N;

9965    result = CLOSURE_DEFAULT;

9966    result.radiance = out_spec + out_refr;

9967    result.radiance += out_diff * out_sheen; /* Coarse approx. */

9968  #  ifndef USE_SSS

9969    result.radiance += (out_diff + out_trans) * mixed_ss_base_color * (1.0 - transmission);

9970  #  endif

9971    result.ssr_data = vec4(ssr_spec, roughness);

9972    result.ssr_normal = normal_encode(vN, viewCameraVec);

9973    result.ssr_id = int(ssr_id);

9974  #  ifdef USE_SSS

9975    result.sss_data.a = sss_scalef;

9976    result.sss_data.rgb = out_diff + out_trans;

9977  #    ifdef USE_SSS_ALBEDO

9978    result.sss_albedo.rgb = mixed_ss_base_color;

9979  #    else

9980    result.sss_data.rgb *= mixed_ss_base_color;

9981  #    endif

9982    result.sss_data.rgb *= (1.0 - transmission);

9983  #  endif

9984  }

9985  

9986  void node_bsdf_principled_dielectric(vec4 base_color,

9987                                       float subsurface,

9988                                       vec3 subsurface_radius,

9989                                       vec4 subsurface_color,

9990                                       float metallic,

9991                                       float specular,

9992                                       float specular_tint,

9993                                       float roughness,

9994                                       float anisotropic,

9995                                       float anisotropic_rotation,

9996                                       float sheen,

9997                                       float sheen_tint,

9998                                       float clearcoat,

9999                                       float clearcoat_roughness,

10000                                       float ior,

10001                                       float transmission,

10002                                       float transmission_roughness,

10003                                       vec3 N,

10004                                       vec3 CN,

10005                                       vec3 T,

10006                                       vec3 I,

10007                                       float ssr_id,

10008                                       float sss_id,

10009                                       vec3 sss_scale,

10010                                       out Closure result)

10011  {

10012    N = normalize(N);

10013    metallic = saturate(metallic);

10014    float dielectric = 1.0 - metallic;

10015  

10016    vec3 diffuse, f0, out_diff, out_spec, ssr_spec;

10017    vec3 ctint = tint_from_color(base_color.rgb);

10018    convert_metallic_to_specular_tinted(

10019        base_color.rgb, ctint, metallic, specular, specular_tint, diffuse, f0);

10020  

10021    float NV = dot(N, cameraVec);

10022    vec3 out_sheen = sheen * principled_sheen(NV, ctint, sheen_tint);

10023  

10024    eevee_closure_default(N, diffuse, f0, int(ssr_id), roughness, 1.0, out_diff, out_spec, ssr_spec);

10025  

10026    vec3 vN = mat3(ViewMatrix) * N;

10027    result = CLOSURE_DEFAULT;

10028    result.radiance = out_spec + out_diff * (diffuse + out_sheen);

10029    result.ssr_data = vec4(ssr_spec, roughness);

10030    result.ssr_normal = normal_encode(vN, viewCameraVec);

10031    result.ssr_id = int(ssr_id);

10032  }

10033  

10034  void node_bsdf_principled_metallic(vec4 base_color,

10035                                     float subsurface,

10036                                     vec3 subsurface_radius,

10037                                     vec4 subsurface_color,

10038                                     float metallic,

10039                                     float specular,

10040                                     float specular_tint,

10041                                     float roughness,

10042                                     float anisotropic,

10043                                     float anisotropic_rotation,

10044                                     float sheen,

10045                                     float sheen_tint,

10046                                     float clearcoat,

10047                                     float clearcoat_roughness,

10048                                     float ior,

10049                                     float transmission,

10050                                     float transmission_roughness,

10051                                     vec3 N,

10052                                     vec3 CN,

10053                                     vec3 T,

10054                                     vec3 I,

10055                                     float ssr_id,

10056                                     float sss_id,

10057                                     vec3 sss_scale,

10058                                     out Closure result)

10059  {

10060    N = normalize(N);

10061    vec3 out_spec, ssr_spec;

10062  

10063    eevee_closure_glossy(N, base_color.rgb, int(ssr_id), roughness, 1.0, out_spec, ssr_spec);

10064  

10065    vec3 vN = mat3(ViewMatrix) * N;

10066    result = CLOSURE_DEFAULT;

10067    result.radiance = out_spec;

10068    result.ssr_data = vec4(ssr_spec, roughness);

10069    result.ssr_normal = normal_encode(vN, viewCameraVec);

10070    result.ssr_id = int(ssr_id);

10071  }

10072  

10073  void node_bsdf_principled_clearcoat(vec4 base_color,

10074                                      float subsurface,

10075                                      vec3 subsurface_radius,

10076                                      vec4 subsurface_color,

10077                                      float metallic,

10078                                      float specular,

10079                                      float specular_tint,

10080                                      float roughness,

10081                                      float anisotropic,

10082                                      float anisotropic_rotation,

10083                                      float sheen,

10084                                      float sheen_tint,

10085                                      float clearcoat,

10086                                      float clearcoat_roughness,

10087                                      float ior,

10088                                      float transmission,

10089                                      float transmission_roughness,

10090                                      vec3 N,

10091                                      vec3 CN,

10092                                      vec3 T,

10093                                      vec3 I,

10094                                      float ssr_id,

10095                                      float sss_id,

10096                                      vec3 sss_scale,

10097                                      out Closure result)

10098  {

10099    vec3 out_spec, ssr_spec;

10100    N = normalize(N);

10101  

10102    eevee_closure_clearcoat(N,

10103                            base_color.rgb,

10104                            int(ssr_id),

10105                            roughness,

10106                            CN,

10107                            clearcoat * 0.25,

10108                            clearcoat_roughness,

10109                            1.0,

10110                            out_spec,

10111                            ssr_spec);

10112  

10113    vec3 vN = mat3(ViewMatrix) * N;

10114    result = CLOSURE_DEFAULT;

10115    result.radiance = out_spec;

10116    result.ssr_data = vec4(ssr_spec, roughness);

10117    result.ssr_normal = normal_encode(vN, viewCameraVec);

10118    result.ssr_id = int(ssr_id);

10119  }

10120  

10121  void node_bsdf_principled_subsurface(vec4 base_color,

10122                                       float subsurface,

10123                                       vec3 subsurface_radius,

10124                                       vec4 subsurface_color,

10125                                       float metallic,

10126                                       float specular,

10127                                       float specular_tint,

10128                                       float roughness,

10129                                       float anisotropic,

10130                                       float anisotropic_rotation,

10131                                       float sheen,

10132                                       float sheen_tint,

10133                                       float clearcoat,

10134                                       float clearcoat_roughness,

10135                                       float ior,

10136                                       float transmission,

10137                                       float transmission_roughness,

10138                                       vec3 N,

10139                                       vec3 CN,

10140                                       vec3 T,

10141                                       vec3 I,

10142                                       float ssr_id,

10143                                       float sss_id,

10144                                       vec3 sss_scale,

10145                                       out Closure result)

10146  {

10147    metallic = saturate(metallic);

10148    N = normalize(N);

10149  

10150    vec3 diffuse, f0, out_diff, out_spec, out_trans, ssr_spec;

10151    vec3 ctint = tint_from_color(base_color.rgb);

10152    convert_metallic_to_specular_tinted(

10153        base_color.rgb, ctint, metallic, specular, specular_tint, diffuse, f0);

10154  

10155    subsurface_color = subsurface_color * (1.0 - metallic);

10156    vec3 mixed_ss_base_color = mix(diffuse, subsurface_color.rgb, subsurface);

10157    float sss_scalef = dot(sss_scale, vec3(1.0 / 3.0)) * subsurface;

10158  

10159    float NV = dot(N, cameraVec);

10160    vec3 out_sheen = sheen * principled_sheen(NV, ctint, sheen_tint);

10161  

10162    eevee_closure_skin(N,

10163                       mixed_ss_base_color,

10164                       f0,

10165                       int(ssr_id),

10166                       roughness,

10167                       1.0,

10168                       sss_scalef,

10169                       out_diff,

10170                       out_trans,

10171                       out_spec,

10172                       ssr_spec);

10173  

10174    vec3 vN = mat3(ViewMatrix) * N;

10175    result = CLOSURE_DEFAULT;

10176    result.radiance = out_spec;

10177    result.ssr_data = vec4(ssr_spec, roughness);

10178    result.ssr_normal = normal_encode(vN, viewCameraVec);

10179    result.ssr_id = int(ssr_id);

10180  #  ifdef USE_SSS

10181    result.sss_data.a = sss_scalef;

10182    result.sss_data.rgb = out_diff + out_trans;

10183  #    ifdef USE_SSS_ALBEDO

10184    result.sss_albedo.rgb = mixed_ss_base_color;

10185  #    else

10186    result.sss_data.rgb *= mixed_ss_base_color;

10187  #    endif

10188  #  else

10189    result.radiance += (out_diff + out_trans) * mixed_ss_base_color;

10190  #  endif

10191    result.radiance += out_diff * out_sheen;

10192  }

10193  

10194  void node_bsdf_principled_glass(vec4 base_color,

10195                                  float subsurface,

10196                                  vec3 subsurface_radius,

10197                                  vec4 subsurface_color,

10198                                  float metallic,

10199                                  float specular,

10200                                  float specular_tint,

10201                                  float roughness,

10202                                  float anisotropic,

10203                                  float anisotropic_rotation,

10204                                  float sheen,

10205                                  float sheen_tint,

10206                                  float clearcoat,

10207                                  float clearcoat_roughness,

10208                                  float ior,

10209                                  float transmission,

10210                                  float transmission_roughness,

10211                                  vec3 N,

10212                                  vec3 CN,

10213                                  vec3 T,

10214                                  vec3 I,

10215                                  float ssr_id,

10216                                  float sss_id,

10217                                  vec3 sss_scale,

10218                                  out Closure result)

10219  {

10220    ior = max(ior, 1e-5);

10221    N = normalize(N);

10222  

10223    vec3 f0, out_spec, out_refr, ssr_spec;

10224    f0 = mix(vec3(1.0), base_color.rgb, specular_tint);

10225  

10226    eevee_closure_glass(

10227        N, vec3(1.0), int(ssr_id), roughness, 1.0, ior, out_spec, out_refr, ssr_spec);

10228  

10229    vec3 refr_color = base_color.rgb;

10230    refr_color *= (refractionDepth > 0.0) ? refr_color :

10231                                            vec3(1.0); /* Simulate 2 transmission events */

10232    out_refr *= refr_color;

10233  

10234    float fresnel = F_eta(ior, dot(N, cameraVec));

10235    vec3 spec_col = F_color_blend(ior, fresnel, f0);

10236    out_spec *= spec_col;

10237    ssr_spec *= spec_col * fresnel;

10238  

10239    vec3 vN = mat3(ViewMatrix) * N;

10240    result = CLOSURE_DEFAULT;

10241    result.radiance = mix(out_refr, out_spec, fresnel);

10242    result.ssr_data = vec4(ssr_spec, roughness);

10243    result.ssr_normal = normal_encode(vN, viewCameraVec);

10244    result.ssr_id = int(ssr_id);

10245  }

10246  

10247  void node_bsdf_translucent(vec4 color, vec3 N, out Closure result)

10248  {

10249    node_bsdf_diffuse(color, 0.0, -N, result);

10250  }

10251  

10252  void node_bsdf_transparent(vec4 color, out Closure result)

10253  {

10254    /* this isn't right */

10255    result = CLOSURE_DEFAULT;

10256    result.radiance = vec3(0.0);

10257    result.opacity = clamp(1.0 - dot(color.rgb, vec3(0.3333334)), 0.0, 1.0);

10258    result.ssr_id = TRANSPARENT_CLOSURE_FLAG;

10259  }

10260  

10261  void node_bsdf_velvet(vec4 color, float sigma, vec3 N, out Closure result)

10262  {

10263    node_bsdf_diffuse(color, 0.0, N, result);

10264  }

10265  

10266  void node_subsurface_scattering(vec4 color,

10267                                  float scale,

10268                                  vec3 radius,

10269                                  float sharpen,

10270                                  float texture_blur,

10271                                  vec3 N,

10272                                  float sss_id,

10273                                  out Closure result)

10274  {

10275  #  if defined(USE_SSS)

10276    N = normalize(N);

10277    vec3 out_diff, out_trans;

10278    vec3 vN = mat3(ViewMatrix) * N;

10279    result = CLOSURE_DEFAULT;

10280    result.ssr_data = vec4(0.0);

10281    result.ssr_normal = normal_encode(vN, viewCameraVec);

10282    result.ssr_id = -1;

10283    result.sss_data.a = scale;

10284    eevee_closure_subsurface(N, color.rgb, 1.0, scale, out_diff, out_trans);

10285    result.sss_data.rgb = out_diff + out_trans;

10286  #    ifdef USE_SSS_ALBEDO

10287    /* Not perfect for texture_blur not exactly equal to 0.0 or 1.0. */

10288    result.sss_albedo.rgb = mix(color.rgb, vec3(1.0), texture_blur);

10289    result.sss_data.rgb *= mix(vec3(1.0), color.rgb, texture_blur);

10290  #    else

10291    result.sss_data.rgb *= color.rgb;

10292  #    endif

10293  #  else

10294    node_bsdf_diffuse(color, 0.0, N, result);

10295  #  endif

10296  }

10297  

10298  void node_bsdf_refraction(vec4 color, float roughness, float ior, vec3 N, out Closure result)

10299  {

10300    N = normalize(N);

10301    vec3 out_refr;

10302    color.rgb *= (refractionDepth > 0.0) ? color.rgb : vec3(1.0); /* Simulate 2 absorption event. */

10303    eevee_closure_refraction(N, roughness, ior, out_refr);

10304    vec3 vN = mat3(ViewMatrix) * N;

10305    result = CLOSURE_DEFAULT;

10306    result.ssr_normal = normal_encode(vN, viewCameraVec);

10307    result.radiance = out_refr * color.rgb;

10308    result.ssr_id = REFRACT_CLOSURE_FLAG;

10309  }

10310  

10311  void node_ambient_occlusion(

10312      vec4 color, float distance, vec3 normal, out vec4 result_color, out float result_ao)

10313  {

10314    vec3 bent_normal;

10315    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

10316    result_ao = occlusion_compute(normalize(normal), viewPosition, 1.0, rand, bent_normal);

10317    result_color = result_ao * color;

10318  }

10319  

10320  #endif /* VOLUMETRICS */

10321  

10322  /* emission */

10323  

10324  void node_emission(vec4 color, float strength, vec3 vN, out Closure result)

10325  {

10326  #ifndef VOLUMETRICS

10327    color *= strength;

10328    result = CLOSURE_DEFAULT;

10329    result.radiance = color.rgb;

10330    result.opacity = color.a;

10331    result.ssr_normal = normal_encode(vN, viewCameraVec);

10332  #else

10333    result = Closure(vec3(0.0), vec3(0.0), color.rgb * strength, 0.0);

10334  #endif

10335  }

10336  

10337  void node_wireframe(float size, vec2 barycentric, vec3 barycentric_dist, out float fac)

10338  {

10339    vec3 barys = barycentric.xyy;

10340    barys.z = 1.0 - barycentric.x - barycentric.y;

10341  

10342    size *= 0.5;

10343    vec3 s = step(-size, -barys * barycentric_dist);

10344  

10345    fac = max(s.x, max(s.y, s.z));

10346  }

10347  

10348  void node_wireframe_screenspace(float size, vec2 barycentric, out float fac)

10349  {

10350    vec3 barys = barycentric.xyy;

10351    barys.z = 1.0 - barycentric.x - barycentric.y;

10352  

10353    size *= (1.0 / 3.0);

10354    vec3 dx = dFdx(barys);

10355    vec3 dy = dFdy(barys);

10356    vec3 deltas = sqrt(dx * dx + dy * dy);

10357  

10358    vec3 s = step(-deltas * size, -barys);

10359  

10360    fac = max(s.x, max(s.y, s.z));

10361  }

10362  

10363  /* background */

10364  

10365  void node_tex_environment_texco(vec3 viewvec, out vec3 worldvec)

10366  {

10367  #ifdef MESH_SHADER

10368    worldvec = worldPosition;

10369  #else

10370    vec4 v = (ProjectionMatrix[3][3] == 0.0) ? vec4(viewvec, 1.0) : vec4(0.0, 0.0, 1.0, 1.0);

10371    vec4 co_homogenous = (ProjectionMatrixInverse * v);

10372  

10373    vec4 co = vec4(co_homogenous.xyz / co_homogenous.w, 0.0);

10374  #  if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10375    worldvec = (ViewMatrixInverse * co).xyz;

10376  #  else

10377    worldvec = (ModelViewMatrixInverse * co).xyz;

10378  #  endif

10379  #endif

10380  }

10381  

10382  void node_background(vec4 color, float strength, out Closure result)

10383  {

10384  #ifndef VOLUMETRICS

10385    color *= strength;

10386    result = CLOSURE_DEFAULT;

10387    result.radiance = color.rgb;

10388    result.opacity = color.a;

10389  #else

10390    result = CLOSURE_DEFAULT;

10391  #endif

10392  }

10393  

10394  /* volumes */

10395  

10396  void node_volume_scatter(vec4 color, float density, float anisotropy, out Closure result)

10397  {

10398  #ifdef VOLUMETRICS

10399    result = Closure(vec3(0.0), color.rgb * density, vec3(0.0), anisotropy);

10400  #else

10401    result = CLOSURE_DEFAULT;

10402  #endif

10403  }

10404  

10405  void node_volume_absorption(vec4 color, float density, out Closure result)

10406  {

10407  #ifdef VOLUMETRICS

10408    result = Closure((1.0 - color.rgb) * density, vec3(0.0), vec3(0.0), 0.0);

10409  #else

10410    result = CLOSURE_DEFAULT;

10411  #endif

10412  }

10413  

10414  void node_blackbody(float temperature, sampler1DArray spectrummap, float layer, out vec4 color)

10415  {

10416    if (temperature >= 12000.0) {

10417      color = vec4(0.826270103, 0.994478524, 1.56626022, 1.0);

10418    }

10419    else if (temperature < 965.0) {

10420      color = vec4(4.70366907, 0.0, 0.0, 1.0);

10421    }

10422    else {

10423      float t = (temperature - 965.0) / (12000.0 - 965.0);

10424      color = vec4(texture(spectrummap, vec2(t, layer)).rgb, 1.0);

10425    }

10426  }

10427  

10428  void node_volume_principled(vec4 color,

10429                              float density,

10430                              float anisotropy,

10431                              vec4 absorption_color,

10432                              float emission_strength,

10433                              vec4 emission_color,

10434                              float blackbody_intensity,

10435                              vec4 blackbody_tint,

10436                              float temperature,

10437                              float density_attribute,

10438                              vec4 color_attribute,

10439                              float temperature_attribute,

10440                              sampler1DArray spectrummap,

10441                              float layer,

10442                              out Closure result)

10443  {

10444  #ifdef VOLUMETRICS

10445    vec3 absorption_coeff = vec3(0.0);

10446    vec3 scatter_coeff = vec3(0.0);

10447    vec3 emission_coeff = vec3(0.0);

10448  

10449    /* Compute density. */

10450    density = max(density, 0.0);

10451  

10452    if (density > 1e-5) {

10453      density = max(density * density_attribute, 0.0);

10454    }

10455  

10456    if (density > 1e-5) {

10457      /* Compute scattering and absorption coefficients. */

10458      vec3 scatter_color = color.rgb * color_attribute.rgb;

10459  

10460      scatter_coeff = scatter_color * density;

10461      absorption_color.rgb = sqrt(max(absorption_color.rgb, 0.0));

10462      absorption_coeff = max(1.0 - scatter_color, 0.0) * max(1.0 - absorption_color.rgb, 0.0) *

10463                         density;

10464    }

10465  

10466    /* Compute emission. */

10467    emission_strength = max(emission_strength, 0.0);

10468  

10469    if (emission_strength > 1e-5) {

10470      emission_coeff += emission_strength * emission_color.rgb;

10471    }

10472  

10473    if (blackbody_intensity > 1e-3) {

10474      /* Add temperature from attribute. */

10475      float T = max(temperature * max(temperature_attribute, 0.0), 0.0);

10476  

10477      /* Stefan-Boltzman law. */

10478      float T2 = T * T;

10479      float T4 = T2 * T2;

10480      float sigma = 5.670373e-8 * 1e-6 / M_PI;

10481      float intensity = sigma * mix(1.0, T4, blackbody_intensity);

10482  

10483      if (intensity > 1e-5) {

10484        vec4 bb;

10485        node_blackbody(T, spectrummap, layer, bb);

10486        emission_coeff += bb.rgb * blackbody_tint.rgb * intensity;

10487      }

10488    }

10489  

10490    result = Closure(absorption_coeff, scatter_coeff, emission_coeff, anisotropy);

10491  #else

10492    result = CLOSURE_DEFAULT;

10493  #endif

10494  }

10495  

10496  /* closures */

10497  

10498  void node_mix_shader(float fac, Closure shader1, Closure shader2, out Closure shader)

10499  {

10500    shader = closure_mix(shader1, shader2, fac);

10501  }

10502  

10503  void node_add_shader(Closure shader1, Closure shader2, out Closure shader)

10504  {

10505    shader = closure_add(shader1, shader2);

10506  }

10507  

10508  /* fresnel */

10509  

10510  void node_fresnel(float ior, vec3 N, vec3 I, out float result)

10511  {

10512    N = normalize(N);

10513    /* handle perspective/orthographic */

10514    vec3 I_view = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10515  

10516    float eta = max(ior, 0.00001);

10517    result = fresnel_dielectric(I_view, N, (gl_FrontFacing) ? eta : 1.0 / eta);

10518  }

10519  

10520  /* layer_weight */

10521  

10522  void node_layer_weight(float blend, vec3 N, vec3 I, out float fresnel, out float facing)

10523  {

10524    N = normalize(N);

10525  

10526    /* fresnel */

10527    float eta = max(1.0 - blend, 0.00001);

10528    vec3 I_view = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10529  

10530    fresnel = fresnel_dielectric(I_view, N, (gl_FrontFacing) ? 1.0 / eta : eta);

10531  

10532    /* facing */

10533    facing = abs(dot(I_view, N));

10534    if (blend != 0.5) {

10535      blend = clamp(blend, 0.0, 0.99999);

10536      blend = (blend < 0.5) ? 2.0 * blend : 0.5 / (1.0 - blend);

10537      facing = pow(facing, blend);

10538    }

10539    facing = 1.0 - facing;

10540  }

10541  

10542  /* gamma */

10543  

10544  void node_gamma(vec4 col, float gamma, out vec4 outcol)

10545  {

10546    outcol = col;

10547  

10548    if (col.r > 0.0)

10549      outcol.r = compatible_pow(col.r, gamma);

10550    if (col.g > 0.0)

10551      outcol.g = compatible_pow(col.g, gamma);

10552    if (col.b > 0.0)

10553      outcol.b = compatible_pow(col.b, gamma);

10554  }

10555  

10556  /* geometry */

10557  

10558  void node_attribute_volume_density(sampler3D tex, out vec4 outcol, out vec3 outvec, out float outf)

10559  {

10560  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10561    vec3 cos = volumeObjectLocalCoord;

10562  #else

10563    vec3 cos = vec3(0.0);

10564  #endif

10565    outvec = texture(tex, cos).aaa;

10566    outcol = vec4(outvec, 1.0);

10567    outf = dot(vec3(1.0 / 3.0), outvec);

10568  }

10569  

10570  uniform vec3 volumeColor = vec3(1.0);

10571  

10572  void node_attribute_volume_color(sampler3D tex, out vec4 outcol, out vec3 outvec, out float outf)

10573  {

10574  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10575    vec3 cos = volumeObjectLocalCoord;

10576  #else

10577    vec3 cos = vec3(0.0);

10578  #endif

10579  

10580    vec4 value = texture(tex, cos).rgba;

10581    /* Density is premultiplied for interpolation, divide it out here. */

10582    if (value.a > 1e-8)

10583      value.rgb /= value.a;

10584  

10585    outvec = value.rgb * volumeColor;

10586    outcol = vec4(outvec, 1.0);

10587    outf = dot(vec3(1.0 / 3.0), outvec);

10588  }

10589  

10590  void node_attribute_volume_flame(sampler3D tex, out vec4 outcol, out vec3 outvec, out float outf)

10591  {

10592  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10593    vec3 cos = volumeObjectLocalCoord;

10594  #else

10595    vec3 cos = vec3(0.0);

10596  #endif

10597    outf = texture(tex, cos).r;

10598    outvec = vec3(outf, outf, outf);

10599    outcol = vec4(outf, outf, outf, 1.0);

10600  }

10601  

10602  void node_attribute_volume_temperature(

10603      sampler3D tex, vec2 temperature, out vec4 outcol, out vec3 outvec, out float outf)

10604  {

10605  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10606    vec3 cos = volumeObjectLocalCoord;

10607  #else

10608    vec3 cos = vec3(0.0);

10609  #endif

10610    float flame = texture(tex, cos).r;

10611  

10612    outf = (flame > 0.01) ? temperature.x + flame * (temperature.y - temperature.x) : 0.0;

10613    outvec = vec3(outf, outf, outf);

10614    outcol = vec4(outf, outf, outf, 1.0);

10615  }

10616  

10617  void node_attribute(vec3 attr, out vec4 outcol, out vec3 outvec, out float outf)

10618  {

10619    outcol = vec4(attr, 1.0);

10620    outvec = attr;

10621    outf = dot(vec3(1.0 / 3.0), attr);

10622  }

10623  

10624  void node_uvmap(vec3 attr_uv, out vec3 outvec)

10625  {

10626    outvec = attr_uv;

10627  }

10628  

10629  void tangent_orco_x(vec3 orco_in, out vec3 orco_out)

10630  {

10631    orco_out = orco_in.xzy * vec3(0.0, -0.5, 0.5) + vec3(0.0, 0.25, -0.25);

10632  }

10633  

10634  void tangent_orco_y(vec3 orco_in, out vec3 orco_out)

10635  {

10636    orco_out = orco_in.zyx * vec3(-0.5, 0.0, 0.5) + vec3(0.25, 0.0, -0.25);

10637  }

10638  

10639  void tangent_orco_z(vec3 orco_in, out vec3 orco_out)

10640  {

10641    orco_out = orco_in.yxz * vec3(-0.5, 0.5, 0.0) + vec3(0.25, -0.25, 0.0);

10642  }

10643  

10644  void node_tangentmap(vec4 attr_tangent, mat4 toworld, out vec3 tangent)

10645  {

10646    tangent = normalize((toworld * vec4(attr_tangent.xyz, 0.0)).xyz);

10647  }

10648  

10649  void node_tangent(vec3 N, vec3 orco, mat4 objmat, mat4 toworld, out vec3 T)

10650  {

10651  #ifndef VOLUMETRICS

10652    N = normalize(gl_FrontFacing ? worldNormal : -worldNormal);

10653  #else

10654    N = (toworld * vec4(N, 0.0)).xyz;

10655  #endif

10656    T = (objmat * vec4(orco, 0.0)).xyz;

10657    T = cross(N, normalize(cross(T, N)));

10658  }

10659  

10660  void node_geometry(vec3 I,

10661                     vec3 N,

10662                     vec3 orco,

10663                     mat4 objmat,

10664                     mat4 toworld,

10665                     vec2 barycentric,

10666                     out vec3 position,

10667                     out vec3 normal,

10668                     out vec3 tangent,

10669                     out vec3 true_normal,

10670                     out vec3 incoming,

10671                     out vec3 parametric,

10672                     out float backfacing,

10673                     out float pointiness)

10674  {

10675    /* handle perspective/orthographic */

10676    vec3 I_view = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10677    incoming = -(toworld * vec4(I_view, 0.0)).xyz;

10678  

10679  #if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10680    position = -incoming;

10681    true_normal = normal = incoming;

10682    tangent = parametric = vec3(0.0);

10683    vec3(0.0);

10684    backfacing = 0.0;

10685    pointiness = 0.0;

10686  #else

10687  

10688    position = worldPosition;

10689  #  ifndef VOLUMETRICS

10690    normal = normalize(gl_FrontFacing ? worldNormal : -worldNormal);

10691    vec3 B = dFdx(worldPosition);

10692    vec3 T = dFdy(worldPosition);

10693    true_normal = normalize(cross(B, T));

10694  #  else

10695    normal = (toworld * vec4(N, 0.0)).xyz;

10696    true_normal = normal;

10697  #  endif

10698    tangent_orco_z(orco, orco);

10699    node_tangent(N, orco, objmat, toworld, tangent);

10700  

10701    parametric = vec3(barycentric, 0.0);

10702    backfacing = (gl_FrontFacing) ? 0.0 : 1.0;

10703    pointiness = 0.5;

10704  #endif

10705  }

10706  

10707  void generated_texco(vec3 I, vec3 attr_orco, out vec3 generated)

10708  {

10709    vec4 v = (ProjectionMatrix[3][3] == 0.0) ? vec4(I, 1.0) : vec4(0.0, 0.0, 1.0, 1.0);

10710    vec4 co_homogenous = (ProjectionMatrixInverse * v);

10711    vec4 co = vec4(co_homogenous.xyz / co_homogenous.w, 0.0);

10712    co.xyz = normalize(co.xyz);

10713  #if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10714    generated = (ViewMatrixInverse * co).xyz;

10715  #else

10716    generated_from_orco(attr_orco, generated);

10717  #endif

10718  }

10719  

10720  void node_tex_coord(vec3 I,

10721                      vec3 N,

10722                      mat4 viewinvmat,

10723                      mat4 obinvmat,

10724                      vec4 camerafac,

10725                      vec3 attr_orco,

10726                      vec3 attr_uv,

10727                      out vec3 generated,

10728                      out vec3 normal,

10729                      out vec3 uv,

10730                      out vec3 object,

10731                      out vec3 camera,

10732                      out vec3 window,

10733                      out vec3 reflection)

10734  {

10735    generated = attr_orco;

10736    normal = normalize(NormalMatrixInverse * N);

10737    uv = attr_uv;

10738    object = (obinvmat * (viewinvmat * vec4(I, 1.0))).xyz;

10739    camera = vec3(I.xy, -I.z);

10740    vec4 projvec = ProjectionMatrix * vec4(I, 1.0);

10741    window = vec3(mtex_2d_mapping(projvec.xyz / projvec.w).xy * camerafac.xy + camerafac.zw, 0.0);

10742  

10743    vec3 shade_I = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10744    vec3 view_reflection = reflect(shade_I, normalize(N));

10745    reflection = (viewinvmat * vec4(view_reflection, 0.0)).xyz;

10746  }

10747  

10748  void node_tex_coord_background(vec3 I,

10749                                 vec3 N,

10750                                 mat4 viewinvmat,

10751                                 mat4 obinvmat,

10752                                 vec4 camerafac,

10753                                 vec3 attr_orco,

10754                                 vec3 attr_uv,

10755                                 out vec3 generated,

10756                                 out vec3 normal,

10757                                 out vec3 uv,

10758                                 out vec3 object,

10759                                 out vec3 camera,

10760                                 out vec3 window,

10761                                 out vec3 reflection)

10762  {

10763    vec4 v = (ProjectionMatrix[3][3] == 0.0) ? vec4(I, 1.0) : vec4(0.0, 0.0, 1.0, 1.0);

10764    vec4 co_homogenous = (ProjectionMatrixInverse * v);

10765  

10766    vec4 co = vec4(co_homogenous.xyz / co_homogenous.w, 0.0);

10767  

10768    co = normalize(co);

10769  

10770  #if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10771    vec3 coords = (ViewMatrixInverse * co).xyz;

10772  #else

10773    vec3 coords = (ModelViewMatrixInverse * co).xyz;

10774  #endif

10775  

10776    generated = coords;

10777    normal = -coords;

10778    uv = vec3(attr_uv.xy, 0.0);

10779    object = coords;

10780  

10781    camera = vec3(co.xy, -co.z);

10782    window = vec3(mtex_2d_mapping(I).xy * camerafac.xy + camerafac.zw, 0.0);

10783  

10784    reflection = -coords;

10785  }

10786  

10787  #if defined(WORLD_BACKGROUND) || (defined(PROBE_CAPTURE) && !defined(MESH_SHADER))

10788  #  define node_tex_coord node_tex_coord_background

10789  #endif

10790  

10791  /* textures */

10792  

10793  float calc_gradient(vec3 p, int gradient_type)

10794  {

10795    float x, y, z;

10796    x = p.x;

10797    y = p.y;

10798    z = p.z;

10799    if (gradient_type == 0) { /* linear */

10800      return x;

10801    }

10802    else if (gradient_type == 1) { /* quadratic */

10803      float r = max(x, 0.0);

10804      return r * r;

10805    }

10806    else if (gradient_type == 2) { /* easing */

10807      float r = min(max(x, 0.0), 1.0);

10808      float t = r * r;

10809      return (3.0 * t - 2.0 * t * r);

10810    }

10811    else if (gradient_type == 3) { /* diagonal */

10812      return (x + y) * 0.5;

10813    }

10814    else if (gradient_type == 4) { /* radial */

10815      return atan(y, x) / (M_PI * 2) + 0.5;

10816    }

10817    else {

10818      /* Bias a little bit for the case where p is a unit length vector,

10819       * to get exactly zero instead of a small random value depending

10820       * on float precision. */

10821      float r = max(0.999999 - sqrt(x * x + y * y + z * z), 0.0);

10822      if (gradient_type == 5) { /* quadratic sphere */

10823        return r * r;

10824      }

10825      else if (gradient_type == 6) { /* sphere */

10826        return r;

10827      }

10828    }

10829    return 0.0;

10830  }

10831  

10832  void node_tex_gradient(vec3 co, float gradient_type, out vec4 color, out float fac)

10833  {

10834    float f = calc_gradient(co, int(gradient_type));

10835    f = clamp(f, 0.0, 1.0);

10836  

10837    color = vec4(f, f, f, 1.0);

10838    fac = f;

10839  }

10840  

10841  void node_tex_checker(

10842      vec3 co, vec4 color1, vec4 color2, float scale, out vec4 color, out float fac)

10843  {

10844    vec3 p = co * scale;

10845  

10846    /* Prevent precision issues on unit coordinates. */

10847    p = (p + 0.000001) * 0.999999;

10848  

10849    int xi = int(abs(floor(p.x)));

10850    int yi = int(abs(floor(p.y)));

10851    int zi = int(abs(floor(p.z)));

10852  

10853    bool check = ((mod(xi, 2) == mod(yi, 2)) == bool(mod(zi, 2)));

10854  

10855    color = check ? color1 : color2;

10856    fac = check ? 1.0 : 0.0;

10857  }

10858  

10859  vec2 calc_brick_texture(vec3 p,

10860                          float mortar_size,

10861                          float mortar_smooth,

10862                          float bias,

10863                          float brick_width,

10864                          float row_height,

10865                          float offset_amount,

10866                          int offset_frequency,

10867                          float squash_amount,

10868                          int squash_frequency)

10869  {

10870    int bricknum, rownum;

10871    float offset = 0.0;

10872    float x, y;

10873  

10874    rownum = floor_to_int(p.y / row_height);

10875  

10876    if (offset_frequency != 0 && squash_frequency != 0) {

10877      brick_width *= (rownum % squash_frequency != 0) ? 1.0 : squash_amount;           /* squash */

10878      offset = (rownum % offset_frequency != 0) ? 0.0 : (brick_width * offset_amount); /* offset */

10879    }

10880  

10881    bricknum = floor_to_int((p.x + offset) / brick_width);

10882  

10883    x = (p.x + offset) - brick_width * bricknum;

10884    y = p.y - row_height * rownum;

10885  

10886    float tint = clamp((integer_noise((rownum << 16) + (bricknum & 0xFFFF)) + bias), 0.0, 1.0);

10887  

10888    float min_dist = min(min(x, y), min(brick_width - x, row_height - y));

10889    if (min_dist >= mortar_size) {

10890      return vec2(tint, 0.0);

10891    }

10892    else if (mortar_smooth == 0.0) {

10893      return vec2(tint, 1.0);

10894    }

10895    else {

10896      min_dist = 1.0 - min_dist / mortar_size;

10897      return vec2(tint, smoothstep(0.0, mortar_smooth, min_dist));

10898    }

10899  }

10900  

10901  void node_tex_brick(vec3 co,

10902                      vec4 color1,

10903                      vec4 color2,

10904                      vec4 mortar,

10905                      float scale,

10906                      float mortar_size,

10907                      float mortar_smooth,

10908                      float bias,

10909                      float brick_width,

10910                      float row_height,

10911                      float offset_amount,

10912                      float offset_frequency,

10913                      float squash_amount,

10914                      float squash_frequency,

10915                      out vec4 color,

10916                      out float fac)

10917  {

10918    vec2 f2 = calc_brick_texture(co * scale,

10919                                 mortar_size,

10920                                 mortar_smooth,

10921                                 bias,

10922                                 brick_width,

10923                                 row_height,

10924                                 offset_amount,

10925                                 int(offset_frequency),

10926                                 squash_amount,

10927                                 int(squash_frequency));

10928    float tint = f2.x;

10929    float f = f2.y;

10930    if (f != 1.0) {

10931      float facm = 1.0 - tint;

10932      color1 = facm * color1 + tint * color2;

10933    }

10934    color = mix(color1, mortar, f);

10935    fac = f;

10936  }

10937  

10938  void node_tex_clouds(vec3 co, float size, out vec4 color, out float fac)

10939  {

10940    color = vec4(1.0);

10941    fac = 1.0;

10942  }

10943  

10944  void node_tex_environment_equirectangular(vec3 co, float clamp_size, sampler2D ima, out vec3 uv)

10945  {

10946    vec3 nco = normalize(co);

10947    uv.x = -atan(nco.y, nco.x) / (2.0 * M_PI) + 0.5;

10948    uv.y = atan(nco.z, hypot(nco.x, nco.y)) / M_PI + 0.5;

10949  

10950    /* Fix pole bleeding */

10951    float half_height = clamp_size / float(textureSize(ima, 0).y);

10952    uv.y = clamp(uv.y, half_height, 1.0 - half_height);

10953    uv.z = 0.0;

10954  }

10955  

10956  void node_tex_environment_mirror_ball(vec3 co, out vec3 uv)

10957  {

10958    vec3 nco = normalize(co);

10959    nco.y -= 1.0;

10960  

10961    float div = 2.0 * sqrt(max(-0.5 * nco.y, 0.0));

10962    nco /= max(1e-8, div);

10963  

10964    uv = 0.5 * nco.xzz + 0.5;

10965  }

10966  

10967  void node_tex_environment_empty(vec3 co, out vec4 color)

10968  {

10969    color = vec4(1.0, 0.0, 1.0, 1.0);

10970  }

10971  

10972  /* 16bits floats limits. Higher/Lower values produce +/-inf. */

10973  #define safe_color(a) (clamp(a, -65520.0, 65520.0))

10974  

10975  void node_tex_image_linear(vec3 co, sampler2D ima, out vec4 color, out float alpha)

10976  {

10977    color = safe_color(texture(ima, co.xy));

10978    alpha = color.a;

10979  }

10980  

10981  void node_tex_image_linear_no_mip(vec3 co, sampler2D ima, out vec4 color, out float alpha)

10982  {

10983    color = safe_color(textureLod(ima, co.xy, 0.0));

10984    alpha = color.a;

10985  }

10986  

10987  void node_tex_image_nearest(vec3 co, sampler2D ima, out vec4 color, out float alpha)

10988  {

10989    ivec2 pix = ivec2(fract(co.xy) * textureSize(ima, 0).xy);

10990    color = safe_color(texelFetch(ima, pix, 0));

10991    alpha = color.a;

10992  }

10993  

10994  /* @arg f: signed distance to texel center. */

10995  void cubic_bspline_coefs(vec2 f, out vec2 w0, out vec2 w1, out vec2 w2, out vec2 w3)

10996  {

10997    vec2 f2 = f * f;

10998    vec2 f3 = f2 * f;

10999    /* Bspline coefs (optimized) */

11000    w3 = f3 / 6.0;

11001    w0 = -w3 + f2 * 0.5 - f * 0.5 + 1.0 / 6.0;

11002    w1 = f3 * 0.5 - f2 * 1.0 + 2.0 / 3.0;

11003    w2 = 1.0 - w0 - w1 - w3;

11004  }

11005  

11006  void node_tex_image_cubic_ex(

11007      vec3 co, sampler2D ima, float do_extend, out vec4 color, out float alpha)

11008  {

11009    vec2 tex_size = vec2(textureSize(ima, 0).xy);

11010  

11011    co.xy *= tex_size;

11012    /* texel center */

11013    vec2 tc = floor(co.xy - 0.5) + 0.5;

11014    vec2 w0, w1, w2, w3;

11015    cubic_bspline_coefs(co.xy - tc, w0, w1, w2, w3);

11016  

11017  #if 1 /* Optimized version using 4 filtered tap. */

11018    vec2 s0 = w0 + w1;

11019    vec2 s1 = w2 + w3;

11020  

11021    vec2 f0 = w1 / (w0 + w1);

11022    vec2 f1 = w3 / (w2 + w3);

11023  

11024    vec4 final_co;

11025    final_co.xy = tc - 1.0 + f0;

11026    final_co.zw = tc + 1.0 + f1;

11027  

11028    if (do_extend == 1.0) {

11029      final_co = clamp(final_co, vec4(0.5), tex_size.xyxy - 0.5);

11030    }

11031    final_co /= tex_size.xyxy;

11032  

11033    color = safe_color(textureLod(ima, final_co.xy, 0.0)) * s0.x * s0.y;

11034    color += safe_color(textureLod(ima, final_co.zy, 0.0)) * s1.x * s0.y;

11035    color += safe_color(textureLod(ima, final_co.xw, 0.0)) * s0.x * s1.y;

11036    color += safe_color(textureLod(ima, final_co.zw, 0.0)) * s1.x * s1.y;

11037  

11038  #else /* Reference bruteforce 16 tap. */

11039    color = texelFetch(ima, ivec2(tc + vec2(-1.0, -1.0)), 0) * w0.x * w0.y;

11040    color += texelFetch(ima, ivec2(tc + vec2(0.0, -1.0)), 0) * w1.x * w0.y;

11041    color += texelFetch(ima, ivec2(tc + vec2(1.0, -1.0)), 0) * w2.x * w0.y;

11042    color += texelFetch(ima, ivec2(tc + vec2(2.0, -1.0)), 0) * w3.x * w0.y;

11043  

11044    color += texelFetch(ima, ivec2(tc + vec2(-1.0, 0.0)), 0) * w0.x * w1.y;

11045    color += texelFetch(ima, ivec2(tc + vec2(0.0, 0.0)), 0) * w1.x * w1.y;

11046    color += texelFetch(ima, ivec2(tc + vec2(1.0, 0.0)), 0) * w2.x * w1.y;

11047    color += texelFetch(ima, ivec2(tc + vec2(2.0, 0.0)), 0) * w3.x * w1.y;

11048  

11049    color += texelFetch(ima, ivec2(tc + vec2(-1.0, 1.0)), 0) * w0.x * w2.y;

11050    color += texelFetch(ima, ivec2(tc + vec2(0.0, 1.0)), 0) * w1.x * w2.y;

11051    color += texelFetch(ima, ivec2(tc + vec2(1.0, 1.0)), 0) * w2.x * w2.y;

11052    color += texelFetch(ima, ivec2(tc + vec2(2.0, 1.0)), 0) * w3.x * w2.y;

11053  

11054    color += texelFetch(ima, ivec2(tc + vec2(-1.0, 2.0)), 0) * w0.x * w3.y;

11055    color += texelFetch(ima, ivec2(tc + vec2(0.0, 2.0)), 0) * w1.x * w3.y;

11056    color += texelFetch(ima, ivec2(tc + vec2(1.0, 2.0)), 0) * w2.x * w3.y;

11057    color += texelFetch(ima, ivec2(tc + vec2(2.0, 2.0)), 0) * w3.x * w3.y;

11058  #endif

11059  

11060    alpha = color.a;

11061  }

11062  

11063  void node_tex_image_cubic(vec3 co, sampler2D ima, out vec4 color, out float alpha)

11064  {

11065    node_tex_image_cubic_ex(co, ima, 0.0, color, alpha);

11066  }

11067  

11068  void node_tex_image_cubic_extend(vec3 co, sampler2D ima, out vec4 color, out float alpha)

11069  {

11070    node_tex_image_cubic_ex(co, ima, 1.0, color, alpha);

11071  }

11072  

11073  void node_tex_image_smart(vec3 co, sampler2D ima, out vec4 color, out float alpha)

11074  {

11075    /* use cubic for now */

11076    node_tex_image_cubic_ex(co, ima, 0.0, color, alpha);

11077  }

11078  

11079  void tex_box_sample_linear(

11080      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11081  {

11082    /* X projection */

11083    vec2 uv = texco.yz;

11084    if (N.x < 0.0) {

11085      uv.x = 1.0 - uv.x;

11086    }

11087    color1 = texture(ima, uv);

11088    /* Y projection */

11089    uv = texco.xz;

11090    if (N.y > 0.0) {

11091      uv.x = 1.0 - uv.x;

11092    }

11093    color2 = texture(ima, uv);

11094    /* Z projection */

11095    uv = texco.yx;

11096    if (N.z > 0.0) {

11097      uv.x = 1.0 - uv.x;

11098    }

11099    color3 = texture(ima, uv);

11100  }

11101  

11102  void tex_box_sample_nearest(

11103      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11104  {

11105    /* X projection */

11106    vec2 uv = texco.yz;

11107    if (N.x < 0.0) {

11108      uv.x = 1.0 - uv.x;

11109    }

11110    ivec2 pix = ivec2(uv.xy * textureSize(ima, 0).xy);

11111    color1 = texelFetch(ima, pix, 0);

11112    /* Y projection */

11113    uv = texco.xz;

11114    if (N.y > 0.0) {

11115      uv.x = 1.0 - uv.x;

11116    }

11117    pix = ivec2(uv.xy * textureSize(ima, 0).xy);

11118    color2 = texelFetch(ima, pix, 0);

11119    /* Z projection */

11120    uv = texco.yx;

11121    if (N.z > 0.0) {

11122      uv.x = 1.0 - uv.x;

11123    }

11124    pix = ivec2(uv.xy * textureSize(ima, 0).xy);

11125    color3 = texelFetch(ima, pix, 0);

11126  }

11127  

11128  void tex_box_sample_cubic(

11129      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11130  {

11131    float alpha;

11132    /* X projection */

11133    vec2 uv = texco.yz;

11134    if (N.x < 0.0) {

11135      uv.x = 1.0 - uv.x;

11136    }

11137    node_tex_image_cubic_ex(uv.xyy, ima, 0.0, color1, alpha);

11138    /* Y projection */

11139    uv = texco.xz;

11140    if (N.y > 0.0) {

11141      uv.x = 1.0 - uv.x;

11142    }

11143    node_tex_image_cubic_ex(uv.xyy, ima, 0.0, color2, alpha);

11144    /* Z projection */

11145    uv = texco.yx;

11146    if (N.z > 0.0) {

11147      uv.x = 1.0 - uv.x;

11148    }

11149    node_tex_image_cubic_ex(uv.xyy, ima, 0.0, color3, alpha);

11150  }

11151  

11152  void tex_box_sample_smart(

11153      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11154  {

11155    tex_box_sample_cubic(texco, N, ima, color1, color2, color3);

11156  }

11157  

11158  void node_tex_image_box(vec3 texco,

11159                          vec3 N,

11160                          vec4 color1,

11161                          vec4 color2,

11162                          vec4 color3,

11163                          sampler2D ima,

11164                          float blend,

11165                          out vec4 color,

11166                          out float alpha)

11167  {

11168    /* project from direction vector to barycentric coordinates in triangles */

11169    N = abs(N);

11170    N /= dot(N, vec3(1.0));

11171  

11172    /* basic idea is to think of this as a triangle, each corner representing

11173     * one of the 3 faces of the cube. in the corners we have single textures,

11174     * in between we blend between two textures, and in the middle we a blend

11175     * between three textures.

11176     *

11177     * the Nxyz values are the barycentric coordinates in an equilateral

11178     * triangle, which in case of blending, in the middle has a smaller

11179     * equilateral triangle where 3 textures blend. this divides things into

11180     * 7 zones, with an if () test for each zone

11181     * EDIT: Now there is only 4 if's. */

11182  

11183    float limit = 0.5 + 0.5 * blend;

11184  

11185    vec3 weight;

11186    weight = N.xyz / (N.xyx + N.yzz);

11187    weight = clamp((weight - 0.5 * (1.0 - blend)) / max(1e-8, blend), 0.0, 1.0);

11188  

11189    /* test for mixes between two textures */

11190    if (N.z < (1.0 - limit) * (N.y + N.x)) {

11191      weight.z = 0.0;

11192      weight.y = 1.0 - weight.x;

11193    }

11194    else if (N.x < (1.0 - limit) * (N.y + N.z)) {

11195      weight.x = 0.0;

11196      weight.z = 1.0 - weight.y;

11197    }

11198    else if (N.y < (1.0 - limit) * (N.x + N.z)) {

11199      weight.y = 0.0;

11200      weight.x = 1.0 - weight.z;

11201    }

11202    else {

11203      /* last case, we have a mix between three */

11204      weight = ((2.0 - limit) * N + (limit - 1.0)) / max(1e-8, blend);

11205    }

11206  

11207    color = weight.x * color1 + weight.y * color2 + weight.z * color3;

11208    alpha = color.a;

11209  }

11210  

11211  void tex_clip_linear(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11212  {

11213    vec2 tex_size = vec2(textureSize(ima, 0).xy);

11214    vec2 minco = min(co.xy, 1.0 - co.xy);

11215    minco = clamp(minco * tex_size + 0.5, 0.0, 1.0);

11216    float fac = minco.x * minco.y;

11217  

11218    color = mix(vec4(0.0), icolor, fac);

11219    alpha = color.a;

11220  }

11221  

11222  void tex_clip_nearest(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11223  {

11224    vec4 minco = vec4(co.xy, 1.0 - co.xy);

11225    color = (any(lessThan(minco, vec4(0.0)))) ? vec4(0.0) : icolor;

11226    alpha = color.a;

11227  }

11228  

11229  void tex_clip_cubic(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11230  {

11231    vec2 tex_size = vec2(textureSize(ima, 0).xy);

11232  

11233    co.xy *= tex_size;

11234    /* texel center */

11235    vec2 tc = floor(co.xy - 0.5) + 0.5;

11236    vec2 w0, w1, w2, w3;

11237    cubic_bspline_coefs(co.xy - tc, w0, w1, w2, w3);

11238  

11239    /* TODO Optimize this part. I'm sure there is a smarter way to do that.

11240     * Could do that when sampling? */

11241  #define CLIP_CUBIC_SAMPLE(samp, size) \

11242    (float(all(greaterThan(samp, vec2(-0.5)))) * float(all(lessThan(ivec2(samp), itex_size))))

11243    ivec2 itex_size = textureSize(ima, 0).xy;

11244    float fac;

11245    fac = CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, -1.0), itex_size) * w0.x * w0.y;

11246    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, -1.0), itex_size) * w1.x * w0.y;

11247    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, -1.0), itex_size) * w2.x * w0.y;

11248    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, -1.0), itex_size) * w3.x * w0.y;

11249  

11250    fac += CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, 0.0), itex_size) * w0.x * w1.y;

11251    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, 0.0), itex_size) * w1.x * w1.y;

11252    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, 0.0), itex_size) * w2.x * w1.y;

11253    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, 0.0), itex_size) * w3.x * w1.y;

11254  

11255    fac += CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, 1.0), itex_size) * w0.x * w2.y;

11256    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, 1.0), itex_size) * w1.x * w2.y;

11257    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, 1.0), itex_size) * w2.x * w2.y;

11258    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, 1.0), itex_size) * w3.x * w2.y;

11259  

11260    fac += CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, 2.0), itex_size) * w0.x * w3.y;

11261    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, 2.0), itex_size) * w1.x * w3.y;

11262    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, 2.0), itex_size) * w2.x * w3.y;

11263    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, 2.0), itex_size) * w3.x * w3.y;

11264  #undef CLIP_CUBIC_SAMPLE

11265  

11266    color = mix(vec4(0.0), icolor, fac);

11267    alpha = color.a;

11268  }

11269  

11270  void tex_clip_smart(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11271  {

11272    tex_clip_cubic(co, ima, icolor, color, alpha);

11273  }

11274  

11275  void node_tex_image_empty(vec3 co, out vec4 color, out float alpha)

11276  {

11277    color = vec4(0.0);

11278    alpha = 0.0;

11279  }

11280  

11281  void node_tex_magic(

11282      vec3 co, float scale, float distortion, float depth, out vec4 color, out float fac)

11283  {

11284    vec3 p = co * scale;

11285    float x = sin((p.x + p.y + p.z) * 5.0);

11286    float y = cos((-p.x + p.y - p.z) * 5.0);

11287    float z = -cos((-p.x - p.y + p.z) * 5.0);

11288  

11289    if (depth > 0) {

11290      x *= distortion;

11291      y *= distortion;

11292      z *= distortion;

11293      y = -cos(x - y + z);

11294      y *= distortion;

11295      if (depth > 1) {

11296        x = cos(x - y - z);

11297        x *= distortion;

11298        if (depth > 2) {

11299          z = sin(-x - y - z);

11300          z *= distortion;

11301          if (depth > 3) {

11302            x = -cos(-x + y - z);

11303            x *= distortion;

11304            if (depth > 4) {

11305              y = -sin(-x + y + z);

11306              y *= distortion;

11307              if (depth > 5) {

11308                y = -cos(-x + y + z);

11309                y *= distortion;

11310                if (depth > 6) {

11311                  x = cos(x + y + z);

11312                  x *= distortion;

11313                  if (depth > 7) {

11314                    z = sin(x + y - z);

11315                    z *= distortion;

11316                    if (depth > 8) {

11317                      x = -cos(-x - y + z);

11318                      x *= distortion;

11319                      if (depth > 9) {

11320                        y = -sin(x - y + z);

11321                        y *= distortion;

11322                      }

11323                    }

11324                  }

11325                }

11326              }

11327            }

11328          }

11329        }

11330      }

11331    }

11332    if (distortion != 0.0) {

11333      distortion *= 2.0;

11334      x /= distortion;

11335      y /= distortion;

11336      z /= distortion;

11337    }

11338  

11339    color = vec4(0.5 - x, 0.5 - y, 0.5 - z, 1.0);

11340    fac = (color.x + color.y + color.z) / 3.0;

11341  }

11342  

11343  float noise_fade(float t)

11344  {

11345    return t * t * t * (t * (t * 6.0 - 15.0) + 10.0);

11346  }

11347  

11348  float noise_scale3(float result)

11349  {

11350    return 0.9820 * result;

11351  }

11352  

11353  float noise_nerp(float t, float a, float b)

11354  {

11355    return (1.0 - t) * a + t * b;

11356  }

11357  

11358  float noise_grad(uint hash, float x, float y, float z)

11359  {

11360    uint h = hash & 15u;

11361    float u = h < 8u ? x : y;

11362    float vt = ((h == 12u) || (h == 14u)) ? x : z;

11363    float v = h < 4u ? y : vt;

11364    return (((h & 1u) != 0u) ? -u : u) + (((h & 2u) != 0u) ? -v : v);

11365  }

11366  

11367  float noise_perlin(float x, float y, float z)

11368  {

11369    int X;

11370    float fx = floorfrac(x, X);

11371    int Y;

11372    float fy = floorfrac(y, Y);

11373    int Z;

11374    float fz = floorfrac(z, Z);

11375  

11376    float u = noise_fade(fx);

11377    float v = noise_fade(fy);

11378    float w = noise_fade(fz);

11379  

11380    float noise_u[2], noise_v[2];

11381  

11382    noise_u[0] = noise_nerp(

11383        u, noise_grad(hash(X, Y, Z), fx, fy, fz), noise_grad(hash(X + 1, Y, Z), fx - 1.0, fy, fz));

11384  

11385    noise_u[1] = noise_nerp(u,

11386                            noise_grad(hash(X, Y + 1, Z), fx, fy - 1.0, fz),

11387                            noise_grad(hash(X + 1, Y + 1, Z), fx - 1.0, fy - 1.0, fz));

11388  

11389    noise_v[0] = noise_nerp(v, noise_u[0], noise_u[1]);

11390  

11391    noise_u[0] = noise_nerp(u,

11392                            noise_grad(hash(X, Y, Z + 1), fx, fy, fz - 1.0),

11393                            noise_grad(hash(X + 1, Y, Z + 1), fx - 1.0, fy, fz - 1.0));

11394  

11395    noise_u[1] = noise_nerp(u,

11396                            noise_grad(hash(X, Y + 1, Z + 1), fx, fy - 1.0, fz - 1.0),

11397                            noise_grad(hash(X + 1, Y + 1, Z + 1), fx - 1.0, fy - 1.0, fz - 1.0));

11398  

11399    noise_v[1] = noise_nerp(v, noise_u[0], noise_u[1]);

11400  

11401    return noise_scale3(noise_nerp(w, noise_v[0], noise_v[1]));

11402  }

11403  

11404  float noise(vec3 p)

11405  {

11406    return 0.5 * noise_perlin(p.x, p.y, p.z) + 0.5;

11407  }

11408  

11409  float snoise(vec3 p)

11410  {

11411    return noise_perlin(p.x, p.y, p.z);

11412  }

11413  

11414  float noise_turbulence(vec3 p, float octaves, int hard)

11415  {

11416    float fscale = 1.0;

11417    float amp = 1.0;

11418    float sum = 0.0;

11419    octaves = clamp(octaves, 0.0, 16.0);

11420    int n = int(octaves);

11421    for (int i = 0; i <= n; i++) {

11422      float t = noise(fscale * p);

11423      if (hard != 0) {

11424        t = abs(2.0 * t - 1.0);

11425      }

11426      sum += t * amp;

11427      amp *= 0.5;

11428      fscale *= 2.0;

11429    }

11430    float rmd = octaves - floor(octaves);

11431    if (rmd != 0.0) {

11432      float t = noise(fscale * p);

11433      if (hard != 0) {

11434        t = abs(2.0 * t - 1.0);

11435      }

11436      float sum2 = sum + t * amp;

11437      sum *= (float(1 << n) / float((1 << (n + 1)) - 1));

11438      sum2 *= (float(1 << (n + 1)) / float((1 << (n + 2)) - 1));

11439      return (1.0 - rmd) * sum + rmd * sum2;

11440    }

11441    else {

11442      sum *= (float(1 << n) / float((1 << (n + 1)) - 1));

11443      return sum;

11444    }

11445  }

11446  

11447  void node_tex_noise(

11448      vec3 co, float scale, float detail, float distortion, out vec4 color, out float fac)

11449  {

11450    vec3 p = co * scale;

11451    int hard = 0;

11452    if (distortion != 0.0) {

11453      vec3 r, offset = vec3(13.5, 13.5, 13.5);

11454      r.x = noise(p + offset) * distortion;

11455      r.y = noise(p) * distortion;

11456      r.z = noise(p - offset) * distortion;

11457      p += r;

11458    }

11459  

11460    fac = noise_turbulence(p, detail, hard);

11461    color = vec4(fac,

11462                 noise_turbulence(vec3(p.y, p.x, p.z), detail, hard),

11463                 noise_turbulence(vec3(p.y, p.z, p.x), detail, hard),

11464                 1);

11465  }

11466  

11467  /* Musgrave fBm

11468   *

11469   * H: fractal increment parameter

11470   * lacunarity: gap between successive frequencies

11471   * octaves: number of frequencies in the fBm

11472   *

11473   * from "Texturing and Modelling: A procedural approach"

11474   */

11475  

11476  float noise_musgrave_fBm(vec3 p, float H, float lacunarity, float octaves)

11477  {

11478    float rmd;

11479    float value = 0.0;

11480    float pwr = 1.0;

11481    float pwHL = pow(lacunarity, -H);

11482  

11483    for (int i = 0; i < int(octaves); i++) {

11484      value += snoise(p) * pwr;

11485      pwr *= pwHL;

11486      p *= lacunarity;

11487    }

11488  

11489    rmd = octaves - floor(octaves);

11490    if (rmd != 0.0)

11491      value += rmd * snoise(p) * pwr;

11492  

11493    return value;

11494  }

11495  

11496  /* Musgrave Multifractal

11497   *

11498   * H: highest fractal dimension

11499   * lacunarity: gap between successive frequencies

11500   * octaves: number of frequencies in the fBm

11501   */

11502  

11503  float noise_musgrave_multi_fractal(vec3 p, float H, float lacunarity, float octaves)

11504  {

11505    float rmd;

11506    float value = 1.0;

11507    float pwr = 1.0;

11508    float pwHL = pow(lacunarity, -H);

11509  

11510    for (int i = 0; i < int(octaves); i++) {

11511      value *= (pwr * snoise(p) + 1.0);

11512      pwr *= pwHL;

11513      p *= lacunarity;

11514    }

11515  

11516    rmd = octaves - floor(octaves);

11517    if (rmd != 0.0)

11518      value *= (rmd * pwr * snoise(p) + 1.0); /* correct? */

11519  

11520    return value;

11521  }

11522  

11523  /* Musgrave Heterogeneous Terrain

11524   *

11525   * H: fractal dimension of the roughest area

11526   * lacunarity: gap between successive frequencies

11527   * octaves: number of frequencies in the fBm

11528   * offset: raises the terrain from `sea level'

11529   */

11530  

11531  float noise_musgrave_hetero_terrain(vec3 p, float H, float lacunarity, float octaves, float offset)

11532  {

11533    float value, increment, rmd;

11534    float pwHL = pow(lacunarity, -H);

11535    float pwr = pwHL;

11536  

11537    /* first unscaled octave of function; later octaves are scaled */

11538    value = offset + snoise(p);

11539    p *= lacunarity;

11540  

11541    for (int i = 1; i < int(octaves); i++) {

11542      increment = (snoise(p) + offset) * pwr * value;

11543      value += increment;

11544      pwr *= pwHL;

11545      p *= lacunarity;

11546    }

11547  

11548    rmd = octaves - floor(octaves);

11549    if (rmd != 0.0) {

11550      increment = (snoise(p) + offset) * pwr * value;

11551      value += rmd * increment;

11552    }

11553  

11554    return value;

11555  }

11556  

11557  /* Hybrid Additive/Multiplicative Multifractal Terrain

11558   *

11559   * H: fractal dimension of the roughest area

11560   * lacunarity: gap between successive frequencies

11561   * octaves: number of frequencies in the fBm

11562   * offset: raises the terrain from `sea level'

11563   */

11564  

11565  float noise_musgrave_hybrid_multi_fractal(

11566      vec3 p, float H, float lacunarity, float octaves, float offset, float gain)

11567  {

11568    float result, signal, weight, rmd;

11569    float pwHL = pow(lacunarity, -H);

11570    float pwr = pwHL;

11571  

11572    result = snoise(p) + offset;

11573    weight = gain * result;

11574    p *= lacunarity;

11575  

11576    for (int i = 1; (weight > 0.001f) && (i < int(octaves)); i++) {

11577      if (weight > 1.0)

11578        weight = 1.0;

11579  

11580      signal = (snoise(p) + offset) * pwr;

11581      pwr *= pwHL;

11582      result += weight * signal;

11583      weight *= gain * signal;

11584      p *= lacunarity;

11585    }

11586  

11587    rmd = octaves - floor(octaves);

11588    if (rmd != 0.0)

11589      result += rmd * ((snoise(p) + offset) * pwr);

11590  

11591    return result;

11592  }

11593  

11594  /* Ridged Multifractal Terrain

11595   *

11596   * H: fractal dimension of the roughest area

11597   * lacunarity: gap between successive frequencies

11598   * octaves: number of frequencies in the fBm

11599   * offset: raises the terrain from `sea level'

11600   */

11601  

11602  float noise_musgrave_ridged_multi_fractal(

11603      vec3 p, float H, float lacunarity, float octaves, float offset, float gain)

11604  {

11605    float result, signal, weight;

11606    float pwHL = pow(lacunarity, -H);

11607    float pwr = pwHL;

11608  

11609    signal = offset - abs(snoise(p));

11610    signal *= signal;

11611    result = signal;

11612    weight = 1.0;

11613  

11614    for (int i = 1; i < int(octaves); i++) {

11615      p *= lacunarity;

11616      weight = clamp(signal * gain, 0.0, 1.0);

11617      signal = offset - abs(snoise(p));

11618      signal *= signal;

11619      signal *= weight;

11620      result += signal * pwr;

11621      pwr *= pwHL;

11622    }

11623  

11624    return result;

11625  }

11626  

11627  float svm_musgrave(int type,

11628                     float dimension,

11629                     float lacunarity,

11630                     float octaves,

11631                     float offset,

11632                     float intensity,

11633                     float gain,

11634                     vec3 p)

11635  {

11636    if (type == 0 /* NODE_MUSGRAVE_MULTIFRACTAL */)

11637      return intensity * noise_musgrave_multi_fractal(p, dimension, lacunarity, octaves);

11638    else if (type == 1 /* NODE_MUSGRAVE_FBM */)

11639      return intensity * noise_musgrave_fBm(p, dimension, lacunarity, octaves);

11640    else if (type == 2 /* NODE_MUSGRAVE_HYBRID_MULTIFRACTAL */)

11641      return intensity *

11642             noise_musgrave_hybrid_multi_fractal(p, dimension, lacunarity, octaves, offset, gain);

11643    else if (type == 3 /* NODE_MUSGRAVE_RIDGED_MULTIFRACTAL */)

11644      return intensity *

11645             noise_musgrave_ridged_multi_fractal(p, dimension, lacunarity, octaves, offset, gain);

11646    else if (type == 4 /* NODE_MUSGRAVE_HETERO_TERRAIN */)

11647      return intensity * noise_musgrave_hetero_terrain(p, dimension, lacunarity, octaves, offset);

11648    return 0.0;

11649  }

11650  

11651  void node_tex_musgrave(vec3 co,

11652                         float scale,

11653                         float detail,

11654                         float dimension,

11655                         float lacunarity,

11656                         float offset,

11657                         float gain,

11658                         float type,

11659                         out vec4 color,

11660                         out float fac)

11661  {

11662    fac = svm_musgrave(int(type), dimension, lacunarity, detail, offset, 1.0, gain, co *scale);

11663  

11664    color = vec4(fac, fac, fac, 1.0);

11665  }

11666  

11667  void node_tex_sky(vec3 co, out vec4 color)

11668  {

11669    color = vec4(1.0);

11670  }

11671  

11672  void node_tex_voronoi(vec3 co,

11673                        float scale,

11674                        float exponent,

11675                        float coloring,

11676                        float metric,

11677                        float feature,

11678                        out vec4 color,

11679                        out float fac)

11680  {

11681    vec3 p = co * scale;

11682    int xx, yy, zz, xi, yi, zi;

11683    vec4 da = vec4(1e10);

11684    vec3 pa[4] = vec3[4](vec3(0.0), vec3(0.0), vec3(0.0), vec3(0.0));

11685  

11686    xi = floor_to_int(p[0]);

11687    yi = floor_to_int(p[1]);

11688    zi = floor_to_int(p[2]);

11689  

11690    for (xx = xi - 1; xx <= xi + 1; xx++) {

11691      for (yy = yi - 1; yy <= yi + 1; yy++) {

11692        for (zz = zi - 1; zz <= zi + 1; zz++) {

11693          vec3 ip = vec3(xx, yy, zz);

11694          vec3 vp = cellnoise_color(ip);

11695          vec3 pd = p - (vp + ip);

11696  

11697          float d = 0.0;

11698          if (metric == 0.0) { /* SHD_VORONOI_DISTANCE 0 */

11699            d = dot(pd, pd);

11700          }

11701          else if (metric == 1.0) { /* SHD_VORONOI_MANHATTAN 1 */

11702            d = abs(pd[0]) + abs(pd[1]) + abs(pd[2]);

11703          }

11704          else if (metric == 2.0) { /* SHD_VORONOI_CHEBYCHEV 2 */

11705            d = max(abs(pd[0]), max(abs(pd[1]), abs(pd[2])));

11706          }

11707          else if (metric == 3.0) { /* SHD_VORONOI_MINKOWSKI 3 */

11708            d = pow(pow(abs(pd[0]), exponent) + pow(abs(pd[1]), exponent) +

11709                        pow(abs(pd[2]), exponent),

11710                    1.0 / exponent);

11711          }

11712  

11713          vp += vec3(xx, yy, zz);

11714          if (d < da[0]) {

11715            da.yzw = da.xyz;

11716            da[0] = d;

11717  

11718            pa[3] = pa[2];

11719            pa[2] = pa[1];

11720            pa[1] = pa[0];

11721            pa[0] = vp;

11722          }

11723          else if (d < da[1]) {

11724            da.zw = da.yz;

11725            da[1] = d;

11726  

11727            pa[3] = pa[2];

11728            pa[2] = pa[1];

11729            pa[1] = vp;

11730          }

11731          else if (d < da[2]) {

11732            da[3] = da[2];

11733            da[2] = d;

11734  

11735            pa[3] = pa[2];

11736            pa[2] = vp;

11737          }

11738          else if (d < da[3]) {

11739            da[3] = d;

11740            pa[3] = vp;

11741          }

11742        }

11743      }

11744    }

11745  

11746    if (coloring == 0.0) {

11747      /* Intensity output */

11748      if (feature == 0.0) { /* F1 */

11749        fac = abs(da[0]);

11750      }

11751      else if (feature == 1.0) { /* F2 */

11752        fac = abs(da[1]);

11753      }

11754      else if (feature == 2.0) { /* F3 */

11755        fac = abs(da[2]);

11756      }

11757      else if (feature == 3.0) { /* F4 */

11758        fac = abs(da[3]);

11759      }

11760      else if (feature == 4.0) { /* F2F1 */

11761        fac = abs(da[1] - da[0]);

11762      }

11763      color = vec4(fac, fac, fac, 1.0);

11764    }

11765    else {

11766      /* Color output */

11767      vec3 col = vec3(fac, fac, fac);

11768      if (feature == 0.0) { /* F1 */

11769        col = pa[0];

11770      }

11771      else if (feature == 1.0) { /* F2 */

11772        col = pa[1];

11773      }

11774      else if (feature == 2.0) { /* F3 */

11775        col = pa[2];

11776      }

11777      else if (feature == 3.0) { /* F4 */

11778        col = pa[3];

11779      }

11780      else if (feature == 4.0) { /* F2F1 */

11781        col = abs(pa[1] - pa[0]);

11782      }

11783  

11784      color = vec4(cellnoise_color(col), 1.0);

11785      fac = (color.x + color.y + color.z) * (1.0 / 3.0);

11786    }

11787  }

11788  

11789  float calc_wave(

11790      vec3 p, float distortion, float detail, float detail_scale, int wave_type, int wave_profile)

11791  {

11792    float n;

11793  

11794    if (wave_type == 0) /* type bands */

11795      n = (p.x + p.y + p.z) * 10.0;

11796    else /* type rings */

11797      n = length(p) * 20.0;

11798  

11799    if (distortion != 0.0)

11800      n += distortion * noise_turbulence(p * detail_scale, detail, 0);

11801  

11802    if (wave_profile == 0) { /* profile sin */

11803      return 0.5 + 0.5 * sin(n);

11804    }

11805    else { /* profile saw */

11806      n /= 2.0 * M_PI;

11807      n -= int(n);

11808      return (n < 0.0) ? n + 1.0 : n;

11809    }

11810  }

11811  

11812  void node_tex_wave(vec3 co,

11813                     float scale,

11814                     float distortion,

11815                     float detail,

11816                     float detail_scale,

11817                     float wave_type,

11818                     float wave_profile,

11819                     out vec4 color,

11820                     out float fac)

11821  {

11822    float f;

11823    f = calc_wave(co * scale, distortion, detail, detail_scale, int(wave_type), int(wave_profile));

11824  

11825    color = vec4(f, f, f, 1.0);

11826    fac = f;

11827  }

11828  

11829  /* light path */

11830  

11831  void node_light_path(out float is_camera_ray,

11832                       out float is_shadow_ray,

11833                       out float is_diffuse_ray,

11834                       out float is_glossy_ray,

11835                       out float is_singular_ray,

11836                       out float is_reflection_ray,

11837                       out float is_transmission_ray,

11838                       out float ray_length,

11839                       out float ray_depth,

11840                       out float diffuse_depth,

11841                       out float glossy_depth,

11842                       out float transparent_depth,

11843                       out float transmission_depth)

11844  {

11845    /* Supported. */

11846    is_camera_ray = (rayType == EEVEE_RAY_CAMERA) ? 1.0 : 0.0;

11847    is_shadow_ray = (rayType == EEVEE_RAY_SHADOW) ? 1.0 : 0.0;

11848    is_diffuse_ray = (rayType == EEVEE_RAY_DIFFUSE) ? 1.0 : 0.0;

11849    is_glossy_ray = (rayType == EEVEE_RAY_GLOSSY) ? 1.0 : 0.0;

11850    /* Kind of supported. */

11851    is_singular_ray = is_glossy_ray;

11852    is_reflection_ray = is_glossy_ray;

11853    is_transmission_ray = is_glossy_ray;

11854    ray_depth = rayDepth;

11855    diffuse_depth = (is_diffuse_ray == 1.0) ? rayDepth : 0.0;

11856    glossy_depth = (is_glossy_ray == 1.0) ? rayDepth : 0.0;

11857    transmission_depth = (is_transmission_ray == 1.0) ? glossy_depth : 0.0;

11858    /* Not supported. */

11859    ray_length = 1.0;

11860    transparent_depth = 0.0;

11861  }

11862  

11863  void node_light_falloff(

11864      float strength, float tsmooth, out float quadratic, out float linear, out float constant)

11865  {

11866    quadratic = strength;

11867    linear = strength;

11868    constant = strength;

11869  }

11870  

11871  void node_object_info(mat4 obmat,

11872                        vec4 info,

11873                        out vec3 location,

11874                        out float object_index,

11875                        out float material_index,

11876                        out float random)

11877  {

11878    location = obmat[3].xyz;

11879    object_index = info.x;

11880    material_index = info.y;

11881    random = info.z;

11882  }

11883  

11884  void node_normal_map(vec4 info, vec4 tangent, vec3 normal, vec3 texnormal, out vec3 outnormal)

11885  {

11886    if (all(equal(tangent, vec4(0.0, 0.0, 0.0, 1.0)))) {

11887      outnormal = normal;

11888      return;

11889    }

11890    tangent *= (gl_FrontFacing ? 1.0 : -1.0);

11891    vec3 B = tangent.w * cross(normal, tangent.xyz) * info.w;

11892  

11893    outnormal = texnormal.x * tangent.xyz + texnormal.y * B + texnormal.z * normal;

11894    outnormal = normalize(outnormal);

11895  }

11896  

11897  void node_bump(

11898      float strength, float dist, float height, vec3 N, vec3 surf_pos, float invert, out vec3 result)

11899  {

11900    N = mat3(ViewMatrix) * normalize(N);

11901    dist *= invert;

11902  

11903    vec3 dPdx = dFdx(surf_pos);

11904    vec3 dPdy = dFdy(surf_pos);

11905  

11906    /* Get surface tangents from normal. */

11907    vec3 Rx = cross(dPdy, N);

11908    vec3 Ry = cross(N, dPdx);

11909  

11910    /* Compute surface gradient and determinant. */

11911    float det = dot(dPdx, Rx);

11912  

11913    float dHdx = dFdx(height);

11914    float dHdy = dFdy(height);

11915    vec3 surfgrad = dHdx * Rx + dHdy * Ry;

11916  

11917    strength = max(strength, 0.0);

11918  

11919    result = normalize(abs(det) * N - dist * sign(det) * surfgrad);

11920    result = normalize(mix(N, result, strength));

11921  

11922    result = mat3(ViewMatrixInverse) * result;

11923  }

11924  

11925  void node_bevel(float radius, vec3 N, out vec3 result)

11926  {

11927    result = N;

11928  }

11929  

11930  void node_hair_info(out float is_strand,

11931                      out float intercept,

11932                      out float thickness,

11933                      out vec3 tangent,

11934                      out float random)

11935  {

11936  #ifdef HAIR_SHADER

11937    is_strand = 1.0;

11938    intercept = hairTime;

11939    thickness = hairThickness;

11940    tangent = normalize(hairTangent);

11941    random = wang_hash_noise(

11942        uint(hairStrandID)); /* TODO: could be precomputed per strand instead. */

11943  #else

11944    is_strand = 0.0;

11945    intercept = 0.0;

11946    thickness = 0.0;

11947    tangent = vec3(1.0);

11948    random = 0.0;

11949  #endif

11950  }

11951  

11952  void node_displacement_object(

11953      float height, float midlevel, float scale, vec3 N, mat4 obmat, out vec3 result)

11954  {

11955    N = (vec4(N, 0.0) * obmat).xyz;

11956    result = (height - midlevel) * scale * normalize(N);

11957    result = (obmat * vec4(result, 0.0)).xyz;

11958  }

11959  

11960  void node_displacement_world(float height, float midlevel, float scale, vec3 N, out vec3 result)

11961  {

11962    result = (height - midlevel) * scale * normalize(N);

11963  }

11964  

11965  void node_vector_displacement_tangent(vec4 vector,

11966                                        float midlevel,

11967                                        float scale,

11968                                        vec4 tangent,

11969                                        vec3 normal,

11970                                        mat4 obmat,

11971                                        mat4 viewmat,

11972                                        out vec3 result)

11973  {

11974    vec3 N_object = normalize(((vec4(normal, 0.0) * viewmat) * obmat).xyz);

11975    vec3 T_object = normalize(((vec4(tangent.xyz, 0.0) * viewmat) * obmat).xyz);

11976    vec3 B_object = tangent.w * normalize(cross(N_object, T_object));

11977  

11978    vec3 offset = (vector.xyz - vec3(midlevel)) * scale;

11979    result = offset.x * T_object + offset.y * N_object + offset.z * B_object;

11980    result = (obmat * vec4(result, 0.0)).xyz;

11981  }

11982  

11983  void node_vector_displacement_object(

11984      vec4 vector, float midlevel, float scale, mat4 obmat, out vec3 result)

11985  {

11986    result = (vector.xyz - vec3(midlevel)) * scale;

11987    result = (obmat * vec4(result, 0.0)).xyz;

11988  }

11989  

11990  void node_vector_displacement_world(vec4 vector, float midlevel, float scale, out vec3 result)

11991  {

11992    result = (vector.xyz - vec3(midlevel)) * scale;

11993  }

11994  

11995  /* output */

11996  

11997  void node_output_material(Closure surface, Closure volume, vec3 displacement, out Closure result)

11998  {

11999  #ifdef VOLUMETRICS

12000    result = volume;

12001  #else

12002    result = surface;

12003  #endif

12004  }

12005  

12006  uniform float backgroundAlpha;

12007  

12008  void node_output_world(Closure surface, Closure volume, out Closure result)

12009  {

12010  #ifndef VOLUMETRICS

12011    result.radiance = surface.radiance * backgroundAlpha;

12012    result.opacity = backgroundAlpha;

12013  #else

12014    result = volume;

12015  #endif /* VOLUMETRICS */

12016  }

12017  

12018  #ifndef VOLUMETRICS

12019  /* TODO : clean this ifdef mess */

12020  /* EEVEE output */

12021  void world_normals_get(out vec3 N)

12022  {

12023  #  ifdef HAIR_SHADER

12024    vec3 B = normalize(cross(worldNormal, hairTangent));

12025    float cos_theta;

12026    if (hairThicknessRes == 1) {

12027      vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

12028      /* Random cosine normal distribution on the hair surface. */

12029      cos_theta = rand.x * 2.0 - 1.0;

12030    }

12031    else {

12032      /* Shade as a cylinder. */

12033      cos_theta = hairThickTime / hairThickness;

12034    }

12035    float sin_theta = sqrt(max(0.0, 1.0f - cos_theta * cos_theta));

12036    N = normalize(worldNormal * sin_theta + B * cos_theta);

12037  #  else

12038    N = gl_FrontFacing ? worldNormal : -worldNormal;

12039  #  endif

12040  }

12041  

12042  void node_eevee_specular(vec4 diffuse,

12043                           vec4 specular,

12044                           float roughness,

12045                           vec4 emissive,

12046                           float transp,

12047                           vec3 normal,

12048                           float clearcoat,

12049                           float clearcoat_roughness,

12050                           vec3 clearcoat_normal,

12051                           float occlusion,

12052                           float ssr_id,

12053                           out Closure result)

12054  {

12055    vec3 out_diff, out_spec, ssr_spec;

12056    eevee_closure_default(normal,

12057                          diffuse.rgb,

12058                          specular.rgb,

12059                          int(ssr_id),

12060                          roughness,

12061                          occlusion,

12062                          out_diff,

12063                          out_spec,

12064                          ssr_spec);

12065  

12066    vec3 vN = normalize(mat3(ViewMatrix) * normal);

12067    result = CLOSURE_DEFAULT;

12068    result.radiance = out_diff * diffuse.rgb + out_spec + emissive.rgb;

12069    result.opacity = 1.0 - transp;

12070    result.ssr_data = vec4(ssr_spec, roughness);

12071    result.ssr_normal = normal_encode(vN, viewCameraVec);

12072    result.ssr_id = int(ssr_id);

12073  }

12074  

12075  void node_shader_to_rgba(Closure cl, out vec4 outcol, out float outalpha)

12076  {

12077    vec4 spec_accum = vec4(0.0);

12078    if (ssrToggle && cl.ssr_id == outputSsrId) {

12079      vec3 V = cameraVec;

12080      vec3 vN = normal_decode(cl.ssr_normal, viewCameraVec);

12081      vec3 N = transform_direction(ViewMatrixInverse, vN);

12082      float roughness = cl.ssr_data.a;

12083      float roughnessSquared = max(1e-3, roughness * roughness);

12084      fallback_cubemap(N, V, worldPosition, viewPosition, roughness, roughnessSquared, spec_accum);

12085    }

12086  

12087    outalpha = cl.opacity;

12088    outcol = vec4((spec_accum.rgb * cl.ssr_data.rgb) + cl.radiance, 1.0);

12089  

12090  #  ifdef USE_SSS

12091  #    ifdef USE_SSS_ALBEDO

12092    outcol.rgb += cl.sss_data.rgb * cl.sss_albedo;

12093  #    else

12094    outcol.rgb += cl.sss_data.rgb;

12095  #    endif

12096  #  endif

12097  }

12098  

12099  #endif /* VOLUMETRICS */

12100  Closure strct5 = CLOSURE_DEFAULT;
12101  
12102  layout (std140) uniform nodeTree {
12103  	vec4 unf1;
12104  	float unf2;
12105  };
12106  
12107  Closure nodetree_exec(void)
12108  {
12109  	Closure tmp3;
12110  	Closure tmp6;
12111  
12112  	node_background(unf1, unf2, tmp3);
12113  	node_output_world(tmp3, strct5, tmp6);
12114  
12115  	return tmp6;
12116  }
12117  #ifndef NODETREE_EXEC
12118  out vec4 fragColor;
12119  void main()
12120  {
12121  	Closure cl = nodetree_exec();
12122  	fragColor = vec4(cl.radiance, cl.opacity);
12123  }
12124  #endif
12125  
0(973) : error C0105: Syntax error in #if
0(973) : error C0105: Syntax error in #if
0(974) : error C0000: syntax error, unexpected '!' at token "!"

GPUShader: compile error:
===== shader string 1 ====
 1  #version 330
===== shader string 2 ====
 2  #define GPU_FRAGMENT_SHADER
===== shader string 3 ====
 3  #extension GL_ARB_texture_gather: enable
 4  #define GPU_ARB_texture_gather
 5  #extension GL_ARB_texture_query_lod: enable
===== shader string 4 ====
 6  #define GPU_NVIDIA
 7  #define OS_WIN
===== shader string 5 ====
 8  #define EEVEE_ENGINE
 9  #define MAX_PROBE 128
10  #define MAX_GRID 64
11  #define MAX_PLANAR 16
12  #define MAX_LIGHT 128
13  #define MAX_SHADOW 256
14  #define MAX_SHADOW_CUBE (256 - 4 * 8)
15  #define MAX_SHADOW_CASCADE 8
16  #define MAX_CASCADE_NUM 4
17  #define IRRADIANCE_HL2
18  #define WORLD_BACKGROUND
===== shader string 6 ====
19  /* keep in sync with DRWManager.view_data */

20  layout(std140) uniform viewBlock

21  {

22    /* Same order as DRWViewportMatrixType */

23    mat4 ViewProjectionMatrix;

24    mat4 ViewProjectionMatrixInverse;

25    mat4 ViewMatrix;

26    mat4 ViewMatrixInverse;

27    mat4 ProjectionMatrix;

28    mat4 ProjectionMatrixInverse;

29  

30    vec4 CameraTexCoFactors;

31  

32    vec4 clipPlanes[2];

33  };

34  

35  layout(std140) uniform common_block

36  {

37    mat4 pastViewProjectionMatrix;

38    vec4 viewVecs[2];

39    vec2 mipRatio[10]; /* To correct mip level texel mis-alignement */

40    /* Ambient Occlusion */

41    vec4 aoParameters[2];

42    /* Volumetric */

43    ivec4 volTexSize;

44    vec4 volDepthParameters; /* Parameters to the volume Z equation */

45    vec4 volInvTexSize;

46    vec4 volJitter;

47    vec4 volCoordScale; /* To convert volume uvs to screen uvs */

48    float volHistoryAlpha;

49    float volLightClamp;

50    float volShadowSteps;

51    bool volUseLights;

52    /* Screen Space Reflections */

53    vec4 ssrParameters;

54    float ssrBorderFac;

55    float ssrMaxRoughness;

56    float ssrFireflyFac;

57    float ssrBrdfBias;

58    bool ssrToggle;

59    /* SubSurface Scattering */

60    float sssJitterThreshold;

61    bool sssToggle;

62    /* Specular */

63    bool specToggle;

64    /* Lights */

65    int laNumLight;

66    /* Probes */

67    int prbNumPlanar;

68    int prbNumRenderCube;

69    int prbNumRenderGrid;

70    int prbIrradianceVisSize;

71    float prbIrradianceSmooth;

72    float prbLodCubeMax;

73    float prbLodPlanarMax;

74    /* Misc*/

75    int hizMipOffset;

76    int rayType;

77    float rayDepth;

78  };

79  

80  /* rayType (keep in sync with ray_type) */

81  #define EEVEE_RAY_CAMERA 0

82  #define EEVEE_RAY_SHADOW 1

83  #define EEVEE_RAY_DIFFUSE 2

84  #define EEVEE_RAY_GLOSSY 3

85  

86  /* aoParameters */

87  #define aoDistance aoParameters[0].x

88  #define aoSamples aoParameters[0].y /* UNUSED */

89  #define aoFactor aoParameters[0].z

90  #define aoInvSamples aoParameters[0].w /* UNUSED */

91  

92  #define aoOffset aoParameters[1].x /* UNUSED */

93  #define aoBounceFac aoParameters[1].y

94  #define aoQuality aoParameters[1].z

95  #define aoSettings aoParameters[1].w

96  

97  /* ssrParameters */

98  #define ssrQuality ssrParameters.x

99  #define ssrThickness ssrParameters.y

100  #define ssrPixelSize ssrParameters.zw

101  

102  #define M_PI 3.14159265358979323846     /* pi */

103  #define M_2PI 6.28318530717958647692    /* 2*pi */

104  #define M_PI_2 1.57079632679489661923   /* pi/2 */

105  #define M_1_PI 0.318309886183790671538  /* 1/pi */

106  #define M_1_2PI 0.159154943091895335768 /* 1/(2*pi) */

107  #define M_1_PI2 0.101321183642337771443 /* 1/(pi^2) */

108  

109  #define LUT_SIZE 64

110  

111  /* Buffers */

112  uniform sampler2D colorBuffer;

113  uniform sampler2D depthBuffer;

114  uniform sampler2D maxzBuffer;

115  uniform sampler2D minzBuffer;

116  uniform sampler2DArray planarDepth;

117  

118  #define cameraForward normalize(ViewMatrixInverse[2].xyz)

119  #define cameraPos ViewMatrixInverse[3].xyz

120  #define cameraVec \

121    ((ProjectionMatrix[3][3] == 0.0) ? normalize(cameraPos - worldPosition) : cameraForward)

122  #define viewCameraVec \

123    ((ProjectionMatrix[3][3] == 0.0) ? normalize(-viewPosition) : vec3(0.0, 0.0, 1.0))

124  

125  /* ------- Structures -------- */

126  

127  /* ------ Lights ----- */

128  struct LightData {

129    vec4 position_influence;     /* w : InfluenceRadius (inversed and squared) */

130    vec4 color_spec;             /* w : Spec Intensity */

131    vec4 spotdata_radius_shadow; /* x : spot size, y : spot blend, z : radius, w: shadow id */

132    vec4 rightvec_sizex;         /* xyz: Normalized up vector, w: area size X or spot scale X */

133    vec4 upvec_sizey;            /* xyz: Normalized right vector, w: area size Y or spot scale Y */

134    vec4 forwardvec_type;        /* xyz: Normalized forward vector, w: Light Type */

135  };

136  

137  /* convenience aliases */

138  #define l_color color_spec.rgb

139  #define l_spec color_spec.a

140  #define l_position position_influence.xyz

141  #define l_influence position_influence.w

142  #define l_sizex rightvec_sizex.w

143  #define l_sizey upvec_sizey.w

144  #define l_right rightvec_sizex.xyz

145  #define l_up upvec_sizey.xyz

146  #define l_forward forwardvec_type.xyz

147  #define l_type forwardvec_type.w

148  #define l_spot_size spotdata_radius_shadow.x

149  #define l_spot_blend spotdata_radius_shadow.y

150  #define l_radius spotdata_radius_shadow.z

151  #define l_shadowid spotdata_radius_shadow.w

152  

153  /* ------ Shadows ----- */

154  #ifndef MAX_CASCADE_NUM

155  #  define MAX_CASCADE_NUM 4

156  #endif

157  

158  struct ShadowData {

159    vec4 near_far_bias_exp;

160    vec4 shadow_data_start_end;

161    vec4 contact_shadow_data;

162  };

163  

164  struct ShadowCubeData {

165    vec4 position;

166  };

167  

168  struct ShadowCascadeData {

169    mat4 shadowmat[MAX_CASCADE_NUM];

170    vec4 split_start_distances;

171    vec4 split_end_distances;

172  };

173  

174  /* convenience aliases */

175  #define sh_near near_far_bias_exp.x

176  #define sh_far near_far_bias_exp.y

177  #define sh_bias near_far_bias_exp.z

178  #define sh_exp near_far_bias_exp.w

179  #define sh_bleed near_far_bias_exp.w

180  #define sh_tex_start shadow_data_start_end.x

181  #define sh_data_start shadow_data_start_end.y

182  #define sh_multi_nbr shadow_data_start_end.z

183  #define sh_blur shadow_data_start_end.w

184  #define sh_contact_dist contact_shadow_data.x

185  #define sh_contact_offset contact_shadow_data.y

186  #define sh_contact_spread contact_shadow_data.z

187  #define sh_contact_thickness contact_shadow_data.w

188  

189  /* ------- Convenience functions --------- */

190  

191  vec3 mul(mat3 m, vec3 v)

192  {

193    return m * v;

194  }

195  mat3 mul(mat3 m1, mat3 m2)

196  {

197    return m1 * m2;

198  }

199  vec3 transform_direction(mat4 m, vec3 v)

200  {

201    return mat3(m) * v;

202  }

203  vec3 transform_point(mat4 m, vec3 v)

204  {

205    return (m * vec4(v, 1.0)).xyz;

206  }

207  vec3 project_point(mat4 m, vec3 v)

208  {

209    vec4 tmp = m * vec4(v, 1.0);

210    return tmp.xyz / tmp.w;

211  }

212  

213  #define min3(a, b, c) min(a, min(b, c))

214  #define min4(a, b, c, d) min(a, min3(b, c, d))

215  #define min5(a, b, c, d, e) min(a, min4(b, c, d, e))

216  #define min6(a, b, c, d, e, f) min(a, min5(b, c, d, e, f))

217  #define min7(a, b, c, d, e, f, g) min(a, min6(b, c, d, e, f, g))

218  #define min8(a, b, c, d, e, f, g, h) min(a, min7(b, c, d, e, f, g, h))

219  #define min9(a, b, c, d, e, f, g, h, i) min(a, min8(b, c, d, e, f, g, h, i))

220  

221  #define max3(a, b, c) max(a, max(b, c))

222  #define max4(a, b, c, d) max(a, max3(b, c, d))

223  #define max5(a, b, c, d, e) max(a, max4(b, c, d, e))

224  #define max6(a, b, c, d, e, f) max(a, max5(b, c, d, e, f))

225  #define max7(a, b, c, d, e, f, g) max(a, max6(b, c, d, e, f, g))

226  #define max8(a, b, c, d, e, f, g, h) max(a, max7(b, c, d, e, f, g, h))

227  #define max9(a, b, c, d, e, f, g, h, i) max(a, max8(b, c, d, e, f, g, h, i))

228  

229  #define avg3(a, b, c) (a + b + c) * (1.0 / 3.0)

230  #define avg4(a, b, c, d) (a + b + c + d) * (1.0 / 4.0)

231  #define avg5(a, b, c, d, e) (a + b + c + d + e) * (1.0 / 5.0)

232  #define avg6(a, b, c, d, e, f) (a + b + c + d + e + f) * (1.0 / 6.0)

233  #define avg7(a, b, c, d, e, f, g) (a + b + c + d + e + f + g) * (1.0 / 7.0)

234  #define avg8(a, b, c, d, e, f, g, h) (a + b + c + d + e + f + g + h) * (1.0 / 8.0)

235  #define avg9(a, b, c, d, e, f, g, h, i) (a + b + c + d + e + f + g + h + i) * (1.0 / 9.0)

236  

237  float min_v2(vec2 v)

238  {

239    return min(v.x, v.y);

240  }

241  float min_v3(vec3 v)

242  {

243    return min(v.x, min(v.y, v.z));

244  }

245  float max_v2(vec2 v)

246  {

247    return max(v.x, v.y);

248  }

249  float max_v3(vec3 v)

250  {

251    return max(v.x, max(v.y, v.z));

252  }

253  

254  float sum(vec2 v)

255  {

256    return dot(vec2(1.0), v);

257  }

258  float sum(vec3 v)

259  {

260    return dot(vec3(1.0), v);

261  }

262  float sum(vec4 v)

263  {

264    return dot(vec4(1.0), v);

265  }

266  

267  float saturate(float a)

268  {

269    return clamp(a, 0.0, 1.0);

270  }

271  vec2 saturate(vec2 a)

272  {

273    return clamp(a, 0.0, 1.0);

274  }

275  vec3 saturate(vec3 a)

276  {

277    return clamp(a, 0.0, 1.0);

278  }

279  vec4 saturate(vec4 a)

280  {

281    return clamp(a, 0.0, 1.0);

282  }

283  

284  float distance_squared(vec2 a, vec2 b)

285  {

286    a -= b;

287    return dot(a, a);

288  }

289  float distance_squared(vec3 a, vec3 b)

290  {

291    a -= b;

292    return dot(a, a);

293  }

294  float len_squared(vec3 a)

295  {

296    return dot(a, a);

297  }

298  

299  float inverse_distance(vec3 V)

300  {

301    return max(1 / length(V), 1e-8);

302  }

303  

304  vec2 mip_ratio_interp(float mip)

305  {

306    float low_mip = floor(mip);

307    return mix(mipRatio[int(low_mip)], mipRatio[int(low_mip + 1.0)], mip - low_mip);

308  }

309  

310  /* ------- RNG ------- */

311  

312  float wang_hash_noise(uint s)

313  {

314    s = (s ^ 61u) ^ (s >> 16u);

315    s *= 9u;

316    s = s ^ (s >> 4u);

317    s *= 0x27d4eb2du;

318    s = s ^ (s >> 15u);

319  

320    return fract(float(s) / 4294967296.0);

321  }

322  

323  /* ------- Fast Math ------- */

324  

325  /* [Drobot2014a] Low Level Optimizations for GCN */

326  float fast_sqrt(float v)

327  {

328    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

329  }

330  

331  vec2 fast_sqrt(vec2 v)

332  {

333    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

334  }

335  

336  /* [Eberly2014] GPGPU Programming for Games and Science */

337  float fast_acos(float v)

338  {

339    float res = -0.156583 * abs(v) + M_PI_2;

340    res *= fast_sqrt(1.0 - abs(v));

341    return (v >= 0) ? res : M_PI - res;

342  }

343  

344  vec2 fast_acos(vec2 v)

345  {

346    vec2 res = -0.156583 * abs(v) + M_PI_2;

347    res *= fast_sqrt(1.0 - abs(v));

348    v.x = (v.x >= 0) ? res.x : M_PI - res.x;

349    v.y = (v.y >= 0) ? res.y : M_PI - res.y;

350    return v;

351  }

352  

353  float point_plane_projection_dist(vec3 lineorigin, vec3 planeorigin, vec3 planenormal)

354  {

355    return dot(planenormal, planeorigin - lineorigin);

356  }

357  

358  float line_plane_intersect_dist(vec3 lineorigin,

359                                  vec3 linedirection,

360                                  vec3 planeorigin,

361                                  vec3 planenormal)

362  {

363    return dot(planenormal, planeorigin - lineorigin) / dot(planenormal, linedirection);

364  }

365  

366  float line_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec4 plane)

367  {

368    vec3 plane_co = plane.xyz * (-plane.w / len_squared(plane.xyz));

369    vec3 h = lineorigin - plane_co;

370    return -dot(plane.xyz, h) / dot(plane.xyz, linedirection);

371  }

372  

373  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin, vec3 planenormal)

374  {

375    float dist = line_plane_intersect_dist(lineorigin, linedirection, planeorigin, planenormal);

376    return lineorigin + linedirection * dist;

377  }

378  

379  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec4 plane)

380  {

381    float dist = line_plane_intersect_dist(lineorigin, linedirection, plane);

382    return lineorigin + linedirection * dist;

383  }

384  

385  float line_aligned_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

386  {

387    /* aligned plane normal */

388    vec3 L = planeorigin - lineorigin;

389    float diskdist = length(L);

390    vec3 planenormal = -normalize(L);

391    return -diskdist / dot(planenormal, linedirection);

392  }

393  

394  vec3 line_aligned_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

395  {

396    float dist = line_aligned_plane_intersect_dist(lineorigin, linedirection, planeorigin);

397    if (dist < 0) {

398      /* if intersection is behind we fake the intersection to be

399       * really far and (hopefully) not inside the radius of interest */

400      dist = 1e16;

401    }

402    return lineorigin + linedirection * dist;

403  }

404  

405  float line_unit_sphere_intersect_dist(vec3 lineorigin, vec3 linedirection)

406  {

407    float a = dot(linedirection, linedirection);

408    float b = dot(linedirection, lineorigin);

409    float c = dot(lineorigin, lineorigin) - 1;

410  

411    float dist = 1e15;

412    float determinant = b * b - a * c;

413    if (determinant >= 0) {

414      dist = (sqrt(determinant) - b) / a;

415    }

416  

417    return dist;

418  }

419  

420  float line_unit_box_intersect_dist(vec3 lineorigin, vec3 linedirection)

421  {

422    /* https://seblagarde.wordpress.com/2012/09/29/image-based-lighting-approaches-and-parallax-corrected-cubemap/ */

423    vec3 firstplane = (vec3(1.0) - lineorigin) / linedirection;

424    vec3 secondplane = (vec3(-1.0) - lineorigin) / linedirection;

425    vec3 furthestplane = max(firstplane, secondplane);

426  

427    return min_v3(furthestplane);

428  }

429  

430  /* Return texture coordinates to sample Surface LUT */

431  vec2 lut_coords(float cosTheta, float roughness)

432  {

433    float theta = acos(cosTheta);

434    vec2 coords = vec2(roughness, theta / M_PI_2);

435  

436    /* scale and bias coordinates, for correct filtered lookup */

437    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

438  }

439  

440  vec2 lut_coords_ltc(float cosTheta, float roughness)

441  {

442    vec2 coords = vec2(roughness, sqrt(1.0 - cosTheta));

443  

444    /* scale and bias coordinates, for correct filtered lookup */

445    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

446  }

447  

448  /* -- Tangent Space conversion -- */

449  vec3 tangent_to_world(vec3 vector, vec3 N, vec3 T, vec3 B)

450  {

451    return T * vector.x + B * vector.y + N * vector.z;

452  }

453  

454  vec3 world_to_tangent(vec3 vector, vec3 N, vec3 T, vec3 B)

455  {

456    return vec3(dot(T, vector), dot(B, vector), dot(N, vector));

457  }

458  

459  void make_orthonormal_basis(vec3 N, out vec3 T, out vec3 B)

460  {

461    vec3 UpVector = abs(N.z) < 0.99999 ? vec3(0.0, 0.0, 1.0) : vec3(1.0, 0.0, 0.0);

462    T = normalize(cross(UpVector, N));

463    B = cross(N, T);

464  }

465  

466  /* ---- Opengl Depth conversion ---- */

467  

468  float linear_depth(bool is_persp, float z, float zf, float zn)

469  {

470    if (is_persp) {

471      return (zn * zf) / (z * (zn - zf) + zf);

472    }

473    else {

474      return (z * 2.0 - 1.0) * zf;

475    }

476  }

477  

478  float buffer_depth(bool is_persp, float z, float zf, float zn)

479  {

480    if (is_persp) {

481      return (zf * (zn - z)) / (z * (zn - zf));

482    }

483    else {

484      return (z / (zf * 2.0)) + 0.5;

485    }

486  }

487  

488  float get_view_z_from_depth(float depth)

489  {

490    if (ProjectionMatrix[3][3] == 0.0) {

491      float d = 2.0 * depth - 1.0;

492      return -ProjectionMatrix[3][2] / (d + ProjectionMatrix[2][2]);

493    }

494    else {

495      return viewVecs[0].z + depth * viewVecs[1].z;

496    }

497  }

498  

499  float get_depth_from_view_z(float z)

500  {

501    if (ProjectionMatrix[3][3] == 0.0) {

502      float d = (-ProjectionMatrix[3][2] / z) - ProjectionMatrix[2][2];

503      return d * 0.5 + 0.5;

504    }

505    else {

506      return (z - viewVecs[0].z) / viewVecs[1].z;

507    }

508  }

509  

510  vec2 get_uvs_from_view(vec3 view)

511  {

512    vec3 ndc = project_point(ProjectionMatrix, view);

513    return ndc.xy * 0.5 + 0.5;

514  }

515  

516  vec3 get_view_space_from_depth(vec2 uvcoords, float depth)

517  {

518    if (ProjectionMatrix[3][3] == 0.0) {

519      return vec3(viewVecs[0].xy + uvcoords * viewVecs[1].xy, 1.0) * get_view_z_from_depth(depth);

520    }

521    else {

522      return viewVecs[0].xyz + vec3(uvcoords, depth) * viewVecs[1].xyz;

523    }

524  }

525  

526  vec3 get_world_space_from_depth(vec2 uvcoords, float depth)

527  {

528    return (ViewMatrixInverse * vec4(get_view_space_from_depth(uvcoords, depth), 1.0)).xyz;

529  }

530  

531  vec3 get_specular_reflection_dominant_dir(vec3 N, vec3 V, float roughness)

532  {

533    vec3 R = -reflect(V, N);

534    float smoothness = 1.0 - roughness;

535    float fac = smoothness * (sqrt(smoothness) + roughness);

536    return normalize(mix(N, R, fac));

537  }

538  

539  float specular_occlusion(float NV, float AO, float roughness)

540  {

541    return saturate(pow(NV + AO, roughness) - 1.0 + AO);

542  }

543  

544  /* --- Refraction utils --- */

545  

546  float ior_from_f0(float f0)

547  {

548    float f = sqrt(f0);

549    return (-f - 1.0) / (f - 1.0);

550  }

551  

552  float f0_from_ior(float eta)

553  {

554    float A = (eta - 1.0) / (eta + 1.0);

555    return A * A;

556  }

557  

558  vec3 get_specular_refraction_dominant_dir(vec3 N, vec3 V, float roughness, float ior)

559  {

560    /* TODO: This a bad approximation. Better approximation should fit

561     * the refracted vector and roughness into the best prefiltered reflection

562     * lobe. */

563    /* Correct the IOR for ior < 1.0 to not see the abrupt delimitation or the TIR */

564    ior = (ior < 1.0) ? mix(ior, 1.0, roughness) : ior;

565    float eta = 1.0 / ior;

566  

567    float NV = dot(N, -V);

568  

569    /* Custom Refraction. */

570    float k = 1.0 - eta * eta * (1.0 - NV * NV);

571    k = max(0.0, k); /* Only this changes. */

572    vec3 R = eta * -V - (eta * NV + sqrt(k)) * N;

573  

574    return R;

575  }

576  

577  float get_btdf_lut(sampler2DArray btdf_lut_tex, float NV, float roughness, float ior)

578  {

579    const vec3 lut_scale_bias_texel_size = vec3((LUT_SIZE - 1.0), 0.5, 1.5) / LUT_SIZE;

580  

581    vec3 coords;

582    /* Try to compensate for the low resolution and interpolation error. */

583    coords.x = (ior > 1.0) ? (0.9 + lut_scale_bias_texel_size.z) +

584                                 (0.1 - lut_scale_bias_texel_size.z) * f0_from_ior(ior) :

585                             (0.9 + lut_scale_bias_texel_size.z) * ior * ior;

586    coords.y = 1.0 - saturate(NV);

587    coords.xy *= lut_scale_bias_texel_size.x;

588    coords.xy += lut_scale_bias_texel_size.y;

589  

590    const float lut_lvl_ofs = 4.0;    /* First texture lvl of roughness. */

591    const float lut_lvl_scale = 16.0; /* How many lvl of roughness in the lut. */

592  

593    float mip = roughness * lut_lvl_scale;

594    float mip_floor = floor(mip);

595  

596    coords.z = lut_lvl_ofs + mip_floor + 1.0;

597    float btdf_high = textureLod(btdf_lut_tex, coords, 0.0).r;

598  

599    coords.z -= 1.0;

600    float btdf_low = textureLod(btdf_lut_tex, coords, 0.0).r;

601  

602    float btdf = (ior == 1.0) ? 1.0 : mix(btdf_low, btdf_high, mip - coords.z);

603  

604    return btdf;

605  }

606  

607  /* ---- Encode / Decode Normal buffer data ---- */

608  /* From http://aras-p.info/texts/CompactNormalStorage.html

609   * Using Method #4: Spheremap Transform */

610  vec2 normal_encode(vec3 n, vec3 view)

611  {

612    float p = sqrt(n.z * 8.0 + 8.0);

613    return n.xy / p + 0.5;

614  }

615  

616  vec3 normal_decode(vec2 enc, vec3 view)

617  {

618    vec2 fenc = enc * 4.0 - 2.0;

619    float f = dot(fenc, fenc);

620    float g = sqrt(1.0 - f / 4.0);

621    vec3 n;

622    n.xy = fenc * g;

623    n.z = 1 - f / 2;

624    return n;

625  }

626  

627  /* ---- RGBM (shared multiplier) encoding ---- */

628  /* From http://iwasbeingirony.blogspot.fr/2010/06/difference-between-rgbm-and-rgbd.html */

629  

630  /* Higher RGBM_MAX_RANGE gives imprecision issues in low intensity. */

631  #define RGBM_MAX_RANGE 512.0

632  

633  vec4 rgbm_encode(vec3 rgb)

634  {

635    float maxRGB = max_v3(rgb);

636    float M = maxRGB / RGBM_MAX_RANGE;

637    M = ceil(M * 255.0) / 255.0;

638    return vec4(rgb / (M * RGBM_MAX_RANGE), M);

639  }

640  

641  vec3 rgbm_decode(vec4 data)

642  {

643    return data.rgb * (data.a * RGBM_MAX_RANGE);

644  }

645  

646  /* ---- RGBE (shared exponent) encoding ---- */

647  vec4 rgbe_encode(vec3 rgb)

648  {

649    float maxRGB = max_v3(rgb);

650    float fexp = ceil(log2(maxRGB));

651    return vec4(rgb / exp2(fexp), (fexp + 128.0) / 255.0);

652  }

653  

654  vec3 rgbe_decode(vec4 data)

655  {

656    float fexp = data.a * 255.0 - 128.0;

657    return data.rgb * exp2(fexp);

658  }

659  

660  #if 1

661  #  define irradiance_encode rgbe_encode

662  #  define irradiance_decode rgbe_decode

663  #else /* No ecoding (when using floating point format) */

664  #  define irradiance_encode(X) (X).rgbb

665  #  define irradiance_decode(X) (X).rgb

666  #endif

667  

668  /* Irradiance Visibility Encoding */

669  #if 1

670  vec4 visibility_encode(vec2 accum, float range)

671  {

672    accum /= range;

673  

674    vec4 data;

675    data.x = fract(accum.x);

676    data.y = floor(accum.x) / 255.0;

677    data.z = fract(accum.y);

678    data.w = floor(accum.y) / 255.0;

679  

680    return data;

681  }

682  

683  vec2 visibility_decode(vec4 data, float range)

684  {

685    return (data.xz + data.yw * 255.0) * range;

686  }

687  #else /* No ecoding (when using floating point format) */

688  vec4 visibility_encode(vec2 accum, float range)

689  {

690    return accum.xyxy;

691  }

692  

693  vec2 visibility_decode(vec4 data, float range)

694  {

695    return data.xy;

696  }

697  #endif

698  

699  /* Fresnel monochromatic, perfect mirror */

700  float F_eta(float eta, float cos_theta)

701  {

702    /* compute fresnel reflectance without explicitly computing

703     * the refracted direction */

704    float c = abs(cos_theta);

705    float g = eta * eta - 1.0 + c * c;

706    float result;

707  

708    if (g > 0.0) {

709      g = sqrt(g);

710      vec2 g_c = vec2(g) + vec2(c, -c);

711      float A = g_c.y / g_c.x;

712      A *= A;

713      g_c *= c;

714      float B = (g_c.y - 1.0) / (g_c.x + 1.0);

715      B *= B;

716      result = 0.5 * A * (1.0 + B);

717    }

718    else {

719      result = 1.0; /* TIR (no refracted component) */

720    }

721  

722    return result;

723  }

724  

725  /* Fresnel color blend base on fresnel factor */

726  vec3 F_color_blend(float eta, float fresnel, vec3 f0_color)

727  {

728    float f0 = F_eta(eta, 1.0);

729    float fac = saturate((fresnel - f0) / max(1e-8, 1.0 - f0));

730    return mix(f0_color, vec3(1.0), fac);

731  }

732  

733  /* Fresnel */

734  vec3 F_schlick(vec3 f0, float cos_theta)

735  {

736    float fac = 1.0 - cos_theta;

737    float fac2 = fac * fac;

738    fac = fac2 * fac2 * fac;

739  

740    /* Unreal specular matching : if specular color is below 2% intensity,

741     * (using green channel for intensity) treat as shadowning */

742    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * fac + (1.0 - fac) * f0;

743  }

744  

745  /* Fresnel approximation for LTC area lights (not MRP) */

746  vec3 F_area(vec3 f0, vec2 lut)

747  {

748    /* Unreal specular matching : if specular color is below 2% intensity,

749     * treat as shadowning */

750    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

751  }

752  

753  /* Fresnel approximation for IBL */

754  vec3 F_ibl(vec3 f0, vec2 lut)

755  {

756    /* Unreal specular matching : if specular color is below 2% intensity,

757     * treat as shadowning */

758    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

759  }

760  

761  /* GGX */

762  float D_ggx_opti(float NH, float a2)

763  {

764    float tmp = (NH * a2 - NH) * NH + 1.0;

765    return M_PI * tmp * tmp; /* Doing RCP and mul a2 at the end */

766  }

767  

768  float G1_Smith_GGX(float NX, float a2)

769  {

770    /* Using Brian Karis approach and refactoring by NX/NX

771     * this way the (2*NL)*(2*NV) in G = G1(V) * G1(L) gets canceled by the brdf denominator 4*NL*NV

772     * Rcp is done on the whole G later

773     * Note that this is not convenient for the transmission formula */

774    return NX + sqrt(NX * (NX - NX * a2) + a2);

775    /* return 2 / (1 + sqrt(1 + a2 * (1 - NX*NX) / (NX*NX) ) ); /* Reference function */

776  }

777  

778  float bsdf_ggx(vec3 N, vec3 L, vec3 V, float roughness)

779  {

780    float a = roughness;

781    float a2 = a * a;

782  

783    vec3 H = normalize(L + V);

784    float NH = max(dot(N, H), 1e-8);

785    float NL = max(dot(N, L), 1e-8);

786    float NV = max(dot(N, V), 1e-8);

787  

788    float G = G1_Smith_GGX(NV, a2) * G1_Smith_GGX(NL, a2); /* Doing RCP at the end */

789    float D = D_ggx_opti(NH, a2);

790  

791    /* Denominator is canceled by G1_Smith */

792    /* bsdf = D * G / (4.0 * NL * NV); /* Reference function */

793    return NL * a2 / (D * G); /* NL to Fit cycles Equation : line. 345 in bsdf_microfacet.h */

794  }

795  

796  void accumulate_light(vec3 light, float fac, inout vec4 accum)

797  {

798    accum += vec4(light, 1.0) * min(fac, (1.0 - accum.a));

799  }

800  

801  /* ----------- Cone Aperture Approximation --------- */

802  

803  /* Return a fitted cone angle given the input roughness */

804  float cone_cosine(float r)

805  {

806    /* Using phong gloss

807     * roughness = sqrt(2/(gloss+2)) */

808    float gloss = -2 + 2 / (r * r);

809    /* Drobot 2014 in GPUPro5 */

810    // return cos(2.0 * sqrt(2.0 / (gloss + 2)));

811    /* Uludag 2014 in GPUPro5 */

812    // return pow(0.244, 1 / (gloss + 1));

813    /* Jimenez 2016 in Practical Realtime Strategies for Accurate Indirect Occlusion*/

814    return exp2(-3.32193 * r * r);

815  }

816  

817  /* --------- Closure ---------- */

818  #ifdef VOLUMETRICS

819  

820  struct Closure {

821    vec3 absorption;

822    vec3 scatter;

823    vec3 emission;

824    float anisotropy;

825  };

826  

827  #  define CLOSURE_DEFAULT Closure(vec3(0.0), vec3(0.0), vec3(0.0), 0.0)

828  

829  Closure closure_mix(Closure cl1, Closure cl2, float fac)

830  {

831    Closure cl;

832    cl.absorption = mix(cl1.absorption, cl2.absorption, fac);

833    cl.scatter = mix(cl1.scatter, cl2.scatter, fac);

834    cl.emission = mix(cl1.emission, cl2.emission, fac);

835    cl.anisotropy = mix(cl1.anisotropy, cl2.anisotropy, fac);

836    return cl;

837  }

838  

839  Closure closure_add(Closure cl1, Closure cl2)

840  {

841    Closure cl;

842    cl.absorption = cl1.absorption + cl2.absorption;

843    cl.scatter = cl1.scatter + cl2.scatter;

844    cl.emission = cl1.emission + cl2.emission;

845    cl.anisotropy = (cl1.anisotropy + cl2.anisotropy) / 2.0; /* Average phase (no multi lobe) */

846    return cl;

847  }

848  

849  Closure closure_emission(vec3 rgb)

850  {

851    Closure cl = CLOSURE_DEFAULT;

852    cl.emission = rgb;

853    return cl;

854  }

855  

856  #else /* VOLUMETRICS */

857  

858  struct Closure {

859    vec3 radiance;

860    float opacity;

861  #  ifdef USE_SSS

862    vec4 sss_data;

863  #    ifdef USE_SSS_ALBEDO

864    vec3 sss_albedo;

865  #    endif

866  #  endif

867    vec4 ssr_data;

868    vec2 ssr_normal;

869    int ssr_id;

870  };

871  

872  /* This is hacking ssr_id to tag transparent bsdf */

873  #  define TRANSPARENT_CLOSURE_FLAG -2

874  #  define REFRACT_CLOSURE_FLAG -3

875  #  define NO_SSR -999

876  

877  #  ifdef USE_SSS

878  #    ifdef USE_SSS_ALBEDO

879  #      define CLOSURE_DEFAULT \

880          Closure(vec3(0.0), 1.0, vec4(0.0), vec3(0.0), vec4(0.0), vec2(0.0), -1)

881  #    else

882  #      define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec4(0.0), vec2(0.0), -1)

883  #    endif

884  #  else

885  #    define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec2(0.0), -1)

886  #  endif

887  

888  uniform int outputSsrId;

889  

890  Closure closure_mix(Closure cl1, Closure cl2, float fac)

891  {

892    Closure cl;

893  

894    if (cl1.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

895      cl1.ssr_normal = cl2.ssr_normal;

896      cl1.ssr_data = cl2.ssr_data;

897      cl1.ssr_id = cl2.ssr_id;

898  #  ifdef USE_SSS

899      cl1.sss_data = cl2.sss_data;

900  #    ifdef USE_SSS_ALBEDO

901      cl1.sss_albedo = cl2.sss_albedo;

902  #    endif

903  #  endif

904    }

905    if (cl2.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

906      cl2.ssr_normal = cl1.ssr_normal;

907      cl2.ssr_data = cl1.ssr_data;

908      cl2.ssr_id = cl1.ssr_id;

909  #  ifdef USE_SSS

910      cl2.sss_data = cl1.sss_data;

911  #    ifdef USE_SSS_ALBEDO

912      cl2.sss_albedo = cl1.sss_albedo;

913  #    endif

914  #  endif

915    }

916  

917    /* When mixing SSR don't blend roughness.

918     *

919     * It makes no sense to mix them really, so we take either one of them and

920     * tone down its specularity (ssr_data.xyz) while keeping its roughness (ssr_data.w).

921     */

922    if (cl1.ssr_id == outputSsrId) {

923      cl.ssr_data = mix(cl1.ssr_data.xyzw, vec4(vec3(0.0), cl1.ssr_data.w), fac);

924      cl.ssr_normal = cl1.ssr_normal;

925      cl.ssr_id = cl1.ssr_id;

926    }

927    else {

928      cl.ssr_data = mix(vec4(vec3(0.0), cl2.ssr_data.w), cl2.ssr_data.xyzw, fac);

929      cl.ssr_normal = cl2.ssr_normal;

930      cl.ssr_id = cl2.ssr_id;

931    }

932  

933    cl.opacity = mix(cl1.opacity, cl2.opacity, fac);

934    cl.radiance = mix(cl1.radiance * cl1.opacity, cl2.radiance * cl2.opacity, fac);

935    cl.radiance /= max(1e-8, cl.opacity);

936  

937  #  ifdef USE_SSS

938    cl.sss_data.rgb = mix(cl1.sss_data.rgb, cl2.sss_data.rgb, fac);

939    cl.sss_data.a = (cl1.sss_data.a > 0.0) ? cl1.sss_data.a : cl2.sss_data.a;

940  #    ifdef USE_SSS_ALBEDO

941    /* TODO Find a solution to this. Dither? */

942    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

943  #    endif

944  #  endif

945  

946    return cl;

947  }

948  

949  Closure closure_add(Closure cl1, Closure cl2)

950  {

951    Closure cl = (cl1.ssr_id == outputSsrId) ? cl1 : cl2;

952    cl.radiance = cl1.radiance + cl2.radiance;

953  #  ifdef USE_SSS

954    cl.sss_data = (cl1.sss_data.a > 0.0) ? cl1.sss_data : cl2.sss_data;

955    /* Add radiance that was supposed to be filtered but was rejected. */

956    cl.radiance += (cl1.sss_data.a > 0.0) ? cl2.sss_data.rgb : cl1.sss_data.rgb;

957  #    ifdef USE_SSS_ALBEDO

958    /* TODO Find a solution to this. Dither? */

959    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

960  #    endif

961  #  endif

962    cl.opacity = saturate(cl1.opacity + cl2.opacity);

963    return cl;

964  }

965  

966  Closure closure_emission(vec3 rgb)

967  {

968    Closure cl = CLOSURE_DEFAULT;

969    cl.radiance = rgb;

970    return cl;

971  }

972  

973  #  if defined(MESH_SHADER) && !defined(USE_ALPHA_HASH) && !defined(USE_ALPHA_CLIP) && \

974        !defined(SHADOW_SHADER) && !defined(USE_MULTIPLY)

975  layout(location = 0) out vec4 fragColor;

976  layout(location = 1) out vec4 ssrNormals;

977  layout(location = 2) out vec4 ssrData;

978  #    ifdef USE_SSS

979  layout(location = 3) out vec4 sssData;

980  #      ifdef USE_SSS_ALBEDO

981  layout(location = 4) out vec4 sssAlbedo;

982  #      endif /* USE_SSS_ALBEDO */

983  #    endif   /* USE_SSS */

984  

985  Closure nodetree_exec(void); /* Prototype */

986  

987  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

988  /* Prototype because this file is included before volumetric_lib.glsl */

989  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth);

990  #    endif

991  

992  #    define NODETREE_EXEC

993  void main()

994  {

995    Closure cl = nodetree_exec();

996  #    ifndef USE_ALPHA_BLEND

997    /* Prevent alpha hash material writing into alpha channel. */

998    cl.opacity = 1.0;

999  #    endif

1000  

1001  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

1002    /* XXX fragile, better use real viewport resolution */

1003    vec2 uvs = gl_FragCoord.xy / vec2(2 * textureSize(maxzBuffer, 0).xy);

1004    fragColor.rgb = volumetric_resolve(vec4(cl.radiance, cl.opacity), uvs, gl_FragCoord.z).rgb;

1005    fragColor.a = cl.opacity;

1006  #    else

1007    fragColor = vec4(cl.radiance, cl.opacity);

1008  #    endif

1009  

1010    ssrNormals = cl.ssr_normal.xyyy;

1011    ssrData = cl.ssr_data;

1012  #    ifdef USE_SSS

1013    sssData = cl.sss_data;

1014  #      ifdef USE_SSS_ALBEDO

1015    sssAlbedo = cl.sss_albedo.rgbb;

1016  #      endif

1017  #    endif

1018  

1019    /* For Probe capture */

1020  #    ifdef USE_SSS

1021  #      ifdef USE_SSS_ALBEDO

1022    fragColor.rgb += cl.sss_data.rgb * cl.sss_albedo.rgb * float(!sssToggle);

1023  #      else

1024    fragColor.rgb += cl.sss_data.rgb * float(!sssToggle);

1025  #      endif

1026  #    endif

1027  }

1028  

1029  #  endif /* MESH_SHADER && !SHADOW_SHADER */

1030  

1031  #endif /* VOLUMETRICS */

1032  

1033  Closure nodetree_exec(void); /* Prototype */

1034  

1035  /* TODO find a better place */

1036  #ifdef USE_MULTIPLY

1037  

1038  out vec4 fragColor;

1039  

1040  #  define NODETREE_EXEC

1041  void main()

1042  {

1043    Closure cl = nodetree_exec();

1044    fragColor = vec4(mix(vec3(1.0), cl.radiance, cl.opacity), 1.0);

1045  }

1046  #endif

1047  

1048  uniform sampler1D texHammersley;

1049  uniform sampler2D texJitter;

1050  uniform float sampleCount;

1051  uniform float invSampleCount;

1052  

1053  vec2 jitternoise = vec2(0.0);

1054  

1055  #ifndef UTIL_TEX

1056  #  define UTIL_TEX

1057  uniform sampler2DArray utilTex;

1058  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1059  #endif /* UTIL_TEX */

1060  

1061  void setup_noise(void)

1062  {

1063    jitternoise = texelfetch_noise_tex(gl_FragCoord.xy).rg; /* Global variable */

1064  }

1065  

1066  #ifdef HAMMERSLEY_SIZE

1067  vec3 hammersley_3d(float i, float invsamplenbr)

1068  {

1069    vec3 Xi; /* Theta, cos(Phi), sin(Phi) */

1070  

1071    Xi.x = i * invsamplenbr; /* i/samples */

1072    Xi.x = fract(Xi.x + jitternoise.x);

1073  

1074    int u = int(mod(i + jitternoise.y * HAMMERSLEY_SIZE, HAMMERSLEY_SIZE));

1075  

1076    Xi.yz = texelFetch(texHammersley, u, 0).rg;

1077  

1078    return Xi;

1079  }

1080  

1081  vec3 hammersley_3d(float i)

1082  {

1083    return hammersley_3d(i, invSampleCount);

1084  }

1085  #endif

1086  

1087  /* -------------- BSDFS -------------- */

1088  

1089  float pdf_ggx_reflect(float NH, float a2)

1090  {

1091    return NH * a2 / D_ggx_opti(NH, a2);

1092  }

1093  

1094  float pdf_hemisphere()

1095  {

1096    return 0.5 * M_1_PI;

1097  }

1098  

1099  vec3 sample_ggx(vec3 rand, float a2)

1100  {

1101    /* Theta is the aperture angle of the cone */

1102    float z = sqrt((1.0 - rand.x) / (1.0 + a2 * rand.x - rand.x)); /* cos theta */

1103    float r = sqrt(max(0.0, 1.0f - z * z));                        /* sin theta */

1104    float x = r * rand.y;

1105    float y = r * rand.z;

1106  

1107    /* Microfacet Normal */

1108    return vec3(x, y, z);

1109  }

1110  

1111  vec3 sample_ggx(vec3 rand, float a2, vec3 N, vec3 T, vec3 B, out float NH)

1112  {

1113    vec3 Ht = sample_ggx(rand, a2);

1114    NH = Ht.z;

1115    return tangent_to_world(Ht, N, T, B);

1116  }

1117  

1118  #ifdef HAMMERSLEY_SIZE

1119  vec3 sample_ggx(float nsample, float a2, vec3 N, vec3 T, vec3 B)

1120  {

1121    vec3 Xi = hammersley_3d(nsample);

1122    vec3 Ht = sample_ggx(Xi, a2);

1123    return tangent_to_world(Ht, N, T, B);

1124  }

1125  

1126  vec3 sample_hemisphere(float nsample, vec3 N, vec3 T, vec3 B)

1127  {

1128    vec3 Xi = hammersley_3d(nsample);

1129  

1130    float z = Xi.x;                         /* cos theta */

1131    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1132    float x = r * Xi.y;

1133    float y = r * Xi.z;

1134  

1135    vec3 Ht = vec3(x, y, z);

1136  

1137    return tangent_to_world(Ht, N, T, B);

1138  }

1139  

1140  vec3 sample_cone(float nsample, float angle, vec3 N, vec3 T, vec3 B)

1141  {

1142    vec3 Xi = hammersley_3d(nsample);

1143  

1144    float z = cos(angle * Xi.x);            /* cos theta */

1145    float r = sqrt(max(0.0, 1.0f - z * z)); /* sin theta */

1146    float x = r * Xi.y;

1147    float y = r * Xi.z;

1148  

1149    vec3 Ht = vec3(x, y, z);

1150  

1151    return tangent_to_world(Ht, N, T, B);

1152  }

1153  #endif

1154  

1155  /* Based on Practical Realtime Strategies for Accurate Indirect Occlusion

1156   * http://blog.selfshadow.com/publications/s2016-shading-course/activision/s2016_pbs_activision_occlusion.pdf

1157   * http://blog.selfshadow.com/publications/s2016-shading-course/activision/s2016_pbs_activision_occlusion.pptx */

1158  

1159  #if defined(MESH_SHADER)

1160  #  if !defined(USE_ALPHA_HASH)

1161  #    if !defined(USE_ALPHA_CLIP)

1162  #      if !defined(SHADOW_SHADER)

1163  #        if !defined(USE_MULTIPLY)

1164  #          if !defined(USE_ALPHA_BLEND)

1165  #            define ENABLE_DEFERED_AO

1166  #          endif

1167  #        endif

1168  #      endif

1169  #    endif

1170  #  endif

1171  #endif

1172  

1173  #ifndef ENABLE_DEFERED_AO

1174  #  if defined(STEP_RESOLVE)

1175  #    define ENABLE_DEFERED_AO

1176  #  endif

1177  #endif

1178  

1179  #define MAX_PHI_STEP 32

1180  #define MAX_SEARCH_ITER 32

1181  #define MAX_LOD 6.0

1182  

1183  #ifndef UTIL_TEX

1184  #  define UTIL_TEX

1185  uniform sampler2DArray utilTex;

1186  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

1187  #endif /* UTIL_TEX */

1188  

1189  uniform sampler2D horizonBuffer;

1190  

1191  /* aoSettings flags */

1192  #define USE_AO 1

1193  #define USE_BENT_NORMAL 2

1194  #define USE_DENOISE 4

1195  

1196  vec4 pack_horizons(vec4 v)

1197  {

1198    return v * 0.5 + 0.5;

1199  }

1200  vec4 unpack_horizons(vec4 v)

1201  {

1202    return v * 2.0 - 1.0;

1203  }

1204  

1205  /* Returns maximum screen distance an AO ray can travel for a given view depth */

1206  vec2 get_max_dir(float view_depth)

1207  {

1208    float homcco = ProjectionMatrix[2][3] * view_depth + ProjectionMatrix[3][3];

1209    float max_dist = aoDistance / homcco;

1210    return vec2(ProjectionMatrix[0][0], ProjectionMatrix[1][1]) * max_dist;

1211  }

1212  

1213  vec2 get_ao_dir(float jitter)

1214  {

1215    /* Only half a turn because we integrate in slices. */

1216    jitter *= M_PI;

1217    return vec2(cos(jitter), sin(jitter));

1218  }

1219  

1220  void get_max_horizon_grouped(vec4 co1, vec4 co2, vec3 x, float lod, inout float h)

1221  {

1222    int mip = int(lod) + hizMipOffset;

1223    co1 *= mipRatio[mip].xyxy;

1224    co2 *= mipRatio[mip].xyxy;

1225  

1226    float depth1 = textureLod(maxzBuffer, co1.xy, floor(lod)).r;

1227    float depth2 = textureLod(maxzBuffer, co1.zw, floor(lod)).r;

1228    float depth3 = textureLod(maxzBuffer, co2.xy, floor(lod)).r;

1229    float depth4 = textureLod(maxzBuffer, co2.zw, floor(lod)).r;

1230  

1231    vec4 len, s_h;

1232  

1233    vec3 s1 = get_view_space_from_depth(co1.xy, depth1); /* s View coordinate */

1234    vec3 omega_s1 = s1 - x;

1235    len.x = length(omega_s1);

1236    s_h.x = omega_s1.z / len.x;

1237  

1238    vec3 s2 = get_view_space_from_depth(co1.zw, depth2); /* s View coordinate */

1239    vec3 omega_s2 = s2 - x;

1240    len.y = length(omega_s2);

1241    s_h.y = omega_s2.z / len.y;

1242  

1243    vec3 s3 = get_view_space_from_depth(co2.xy, depth3); /* s View coordinate */

1244    vec3 omega_s3 = s3 - x;

1245    len.z = length(omega_s3);

1246    s_h.z = omega_s3.z / len.z;

1247  

1248    vec3 s4 = get_view_space_from_depth(co2.zw, depth4); /* s View coordinate */

1249    vec3 omega_s4 = s4 - x;

1250    len.w = length(omega_s4);

1251    s_h.w = omega_s4.z / len.w;

1252  

1253    /* Blend weight after half the aoDistance to fade artifacts */

1254    vec4 blend = saturate((1.0 - len / aoDistance) * 2.0);

1255  

1256    h = mix(h, max(h, s_h.x), blend.x);

1257    h = mix(h, max(h, s_h.y), blend.y);

1258    h = mix(h, max(h, s_h.z), blend.z);

1259    h = mix(h, max(h, s_h.w), blend.w);

1260  }

1261  

1262  vec2 search_horizon_sweep(vec2 t_phi, vec3 pos, vec2 uvs, float jitter, vec2 max_dir)

1263  {

1264    max_dir *= max_v2(abs(t_phi));

1265  

1266    /* Convert to pixel space. */

1267    t_phi /= vec2(textureSize(maxzBuffer, 0));

1268  

1269    /* Avoid division by 0 */

1270    t_phi += vec2(1e-5);

1271  

1272    jitter *= 0.25;

1273  

1274    /* Compute end points */

1275    vec2 corner1 = min(vec2(1.0) - uvs, max_dir);  /* Top right */

1276    vec2 corner2 = max(vec2(0.0) - uvs, -max_dir); /* Bottom left */

1277    vec2 iter1 = corner1 / t_phi;

1278    vec2 iter2 = corner2 / t_phi;

1279  

1280    vec2 min_iter = max(-iter1, -iter2);

1281    vec2 max_iter = max(iter1, iter2);

1282  

1283    vec2 times = vec2(-min_v2(min_iter), min_v2(max_iter));

1284  

1285    vec2 h = vec2(-1.0); /* init at cos(pi) */

1286  

1287    /* This is freaking sexy optimized. */

1288    for (float i = 0.0, ofs = 4.0, time = -1.0; i < MAX_SEARCH_ITER && time > times.x;

1289         i++, time -= ofs, ofs = min(exp2(MAX_LOD) * 4.0, ofs + ofs * aoQuality)) {

1290      vec4 t = max(times.xxxx, vec4(time) - (vec4(0.25, 0.5, 0.75, 1.0) - jitter) * ofs);

1291      vec4 cos1 = uvs.xyxy + t_phi.xyxy * t.xxyy;

1292      vec4 cos2 = uvs.xyxy + t_phi.xyxy * t.zzww;

1293      float lod = min(MAX_LOD, max(i - jitter * 4.0, 0.0) * aoQuality);

1294      get_max_horizon_grouped(cos1, cos2, pos, lod, h.y);

1295    }

1296  

1297    for (float i = 0.0, ofs = 4.0, time = 1.0; i < MAX_SEARCH_ITER && time < times.y;

1298         i++, time += ofs, ofs = min(exp2(MAX_LOD) * 4.0, ofs + ofs * aoQuality)) {

1299      vec4 t = min(times.yyyy, vec4(time) + (vec4(0.25, 0.5, 0.75, 1.0) - jitter) * ofs);

1300      vec4 cos1 = uvs.xyxy + t_phi.xyxy * t.xxyy;

1301      vec4 cos2 = uvs.xyxy + t_phi.xyxy * t.zzww;

1302      float lod = min(MAX_LOD, max(i - jitter * 4.0, 0.0) * aoQuality);

1303      get_max_horizon_grouped(cos1, cos2, pos, lod, h.x);

1304    }

1305  

1306    return h;

1307  }

1308  

1309  void integrate_slice(

1310      vec3 normal, vec2 t_phi, vec2 horizons, inout float visibility, inout vec3 bent_normal)

1311  {

1312    /* Projecting Normal to Plane P defined by t_phi and omega_o */

1313    vec3 np = vec3(t_phi.y, -t_phi.x, 0.0); /* Normal vector to Integration plane */

1314    vec3 t = vec3(-t_phi, 0.0);

1315    vec3 n_proj = normal - np * dot(np, normal);

1316    float n_proj_len = max(1e-16, length(n_proj));

1317  

1318    float cos_n = clamp(n_proj.z / n_proj_len, -1.0, 1.0);

1319    float n = sign(dot(n_proj, t)) * fast_acos(cos_n); /* Angle between view vec and normal */

1320  

1321    /* (Slide 54) */

1322    vec2 h = fast_acos(horizons);

1323    h.x = -h.x;

1324  

1325    /* Clamping thetas (slide 58) */

1326    h.x = n + max(h.x - n, -M_PI_2);

1327    h.y = n + min(h.y - n, M_PI_2);

1328  

1329    /* Solving inner integral */

1330    vec2 h_2 = 2.0 * h;

1331    vec2 vd = -cos(h_2 - n) + cos_n + h_2 * sin(n);

1332    float vis = (vd.x + vd.y) * 0.25 * n_proj_len;

1333  

1334    visibility += vis;

1335  

1336    /* O. Klehm, T. Ritschel, E. Eisemann, H.-P. Seidel

1337     * Bent Normals and Cones in Screen-space

1338     * Sec. 3.1 : Bent normals */

1339    float b_angle = (h.x + h.y) * 0.5;

1340    bent_normal += vec3(sin(b_angle) * -t_phi, cos(b_angle)) * vis;

1341  }

1342  

1343  void gtao_deferred(

1344      vec3 normal, vec4 noise, float frag_depth, out float visibility, out vec3 bent_normal)

1345  {

1346    /* Fetch early, hide latency! */

1347    vec4 horizons = texelFetch(horizonBuffer, ivec2(gl_FragCoord.xy), 0);

1348  

1349    vec4 dirs;

1350    dirs.xy = get_ao_dir(noise.x * 0.5);

1351    dirs.zw = get_ao_dir(noise.x * 0.5 + 0.5);

1352  

1353    bent_normal = vec3(0.0);

1354    visibility = 0.0;

1355  

1356    horizons = unpack_horizons(horizons);

1357  

1358    integrate_slice(normal, dirs.xy, horizons.xy, visibility, bent_normal);

1359    integrate_slice(normal, dirs.zw, horizons.zw, visibility, bent_normal);

1360  

1361    bent_normal = normalize(bent_normal / visibility);

1362  

1363    visibility *= 0.5; /* We integrated 2 slices. */

1364  }

1365  

1366  void gtao(vec3 normal, vec3 position, vec4 noise, out float visibility, out vec3 bent_normal)

1367  {

1368    vec2 uvs = get_uvs_from_view(position);

1369    vec2 max_dir = get_max_dir(position.z);

1370    vec2 dir = get_ao_dir(noise.x);

1371  

1372    bent_normal = vec3(0.0);

1373    visibility = 0.0;

1374  

1375    /* Only trace in 2 directions. May lead to a darker result but since it's mostly for

1376     * alpha blended objects that will have overdraw, we limit the performance impact. */

1377    vec2 horizons = search_horizon_sweep(dir, position, uvs, noise.y, max_dir);

1378    integrate_slice(normal, dir, horizons, visibility, bent_normal);

1379  

1380    bent_normal = normalize(bent_normal / visibility);

1381  }

1382  

1383  /* Multibounce approximation base on surface albedo.

1384   * Page 78 in the .pdf version. */

1385  float gtao_multibounce(float visibility, vec3 albedo)

1386  {

1387    if (aoBounceFac == 0.0)

1388      return visibility;

1389  

1390    /* Median luminance. Because Colored multibounce looks bad. */

1391    float lum = dot(albedo, vec3(0.3333));

1392  

1393    float a = 2.0404 * lum - 0.3324;

1394    float b = -4.7951 * lum + 0.6417;

1395    float c = 2.7552 * lum + 0.6903;

1396  

1397    float x = visibility;

1398    return max(x, ((x * a + b) * x + c) * x);

1399  }

1400  

1401  /* Use the right occlusion  */

1402  float occlusion_compute(vec3 N, vec3 vpos, float user_occlusion, vec4 rand, out vec3 bent_normal)

1403  {

1404  #ifndef USE_REFRACTION

1405    if ((int(aoSettings) & USE_AO) != 0) {

1406      float visibility;

1407      vec3 vnor = mat3(ViewMatrix) * N;

1408  

1409  #  ifdef ENABLE_DEFERED_AO

1410      gtao_deferred(vnor, rand, gl_FragCoord.z, visibility, bent_normal);

1411  #  else

1412      gtao(vnor, vpos, rand, visibility, bent_normal);

1413  #  endif

1414  

1415      /* Prevent some problems down the road. */

1416      visibility = max(1e-3, visibility);

1417  

1418      if ((int(aoSettings) & USE_BENT_NORMAL) != 0) {

1419        /* The bent normal will show the facet look of the mesh. Try to minimize this. */

1420        float mix_fac = visibility * visibility * visibility;

1421        bent_normal = normalize(mix(bent_normal, vnor, mix_fac));

1422  

1423        bent_normal = transform_direction(ViewMatrixInverse, bent_normal);

1424      }

1425      else {

1426        bent_normal = N;

1427      }

1428  

1429      /* Scale by user factor */

1430      visibility = pow(visibility, aoFactor);

1431  

1432      return min(visibility, user_occlusion);

1433    }

1434  #endif

1435  

1436    bent_normal = N;

1437    return user_occlusion;

1438  }

1439  #define MAX_STEP 256

1440  

1441  float sample_depth(vec2 uv, int index, float lod)

1442  {

1443  #ifdef PLANAR_PROBE_RAYTRACE

1444    if (index > -1) {

1445      return textureLod(planarDepth, vec3(uv, index), 0.0).r;

1446    }

1447    else {

1448  #endif

1449      /* Correct UVs for mipmaping mis-alignment */

1450      uv *= mipRatio[int(lod) + hizMipOffset];

1451      return textureLod(maxzBuffer, uv, lod).r;

1452  #ifdef PLANAR_PROBE_RAYTRACE

1453    }

1454  #endif

1455  }

1456  

1457  vec4 sample_depth_grouped(vec4 uv1, vec4 uv2, int index, float lod)

1458  {

1459    vec4 depths;

1460  #ifdef PLANAR_PROBE_RAYTRACE

1461    if (index > -1) {

1462      depths.x = textureLod(planarDepth, vec3(uv1.xy, index), 0.0).r;

1463      depths.y = textureLod(planarDepth, vec3(uv1.zw, index), 0.0).r;

1464      depths.z = textureLod(planarDepth, vec3(uv2.xy, index), 0.0).r;

1465      depths.w = textureLod(planarDepth, vec3(uv2.zw, index), 0.0).r;

1466    }

1467    else {

1468  #endif

1469      depths.x = textureLod(maxzBuffer, uv1.xy, lod).r;

1470      depths.y = textureLod(maxzBuffer, uv1.zw, lod).r;

1471      depths.z = textureLod(maxzBuffer, uv2.xy, lod).r;

1472      depths.w = textureLod(maxzBuffer, uv2.zw, lod).r;

1473  #ifdef PLANAR_PROBE_RAYTRACE

1474    }

1475  #endif

1476    return depths;

1477  }

1478  

1479  float refine_isect(float prev_delta, float curr_delta)

1480  {

1481    /**

1482     * Simplification of 2D intersection :

1483     * r0 = (0.0, prev_ss_ray.z);

1484     * r1 = (1.0, curr_ss_ray.z);

1485     * d0 = (0.0, prev_hit_depth_sample);

1486     * d1 = (1.0, curr_hit_depth_sample);

1487     * vec2 r = r1 - r0;

1488     * vec2 d = d1 - d0;

1489     * vec2 isect = ((d * cross(r1, r0)) - (r * cross(d1, d0))) / cross(r,d);

1490     *

1491     * We only want isect.x to know how much stride we need. So it simplifies :

1492     *

1493     * isect_x = (cross(r1, r0) - cross(d1, d0)) / cross(r,d);

1494     * isect_x = (prev_ss_ray.z - prev_hit_depth_sample.z) / cross(r,d);

1495     */

1496    return saturate(prev_delta / (prev_delta - curr_delta));

1497  }

1498  

1499  void prepare_raycast(vec3 ray_origin,

1500                       vec3 ray_dir,

1501                       float thickness,

1502                       int index,

1503                       out vec4 ss_step,

1504                       out vec4 ss_ray,

1505                       out float max_time)

1506  {

1507    /* Negate the ray direction if it goes towards the camera.

1508     * This way we don't need to care if the projected point

1509     * is behind the near plane. */

1510    float z_sign = -sign(ray_dir.z);

1511    vec3 ray_end = ray_origin + z_sign * ray_dir;

1512  

1513    /* Project into screen space. */

1514    vec4 ss_start, ss_end;

1515    ss_start.xyz = project_point(ProjectionMatrix, ray_origin);

1516    ss_end.xyz = project_point(ProjectionMatrix, ray_end);

1517  

1518    /* We interpolate the ray Z + thickness values to check if depth is within threshold. */

1519    ray_origin.z -= thickness;

1520    ray_end.z -= thickness;

1521    ss_start.w = project_point(ProjectionMatrix, ray_origin).z;

1522    ss_end.w = project_point(ProjectionMatrix, ray_end).z;

1523  

1524    /* XXX This is a hack a better method is welcome ! */

1525    /* We take the delta between the offseted depth and the depth and substract it from the ray depth.

1526     * This will change the world space thickness appearance a bit but we can have negative

1527     * values without worries. We cannot do this in viewspace because of the perspective division. */

1528    ss_start.w = 2.0 * ss_start.z - ss_start.w;

1529    ss_end.w = 2.0 * ss_end.z - ss_end.w;

1530  

1531    ss_step = ss_end - ss_start;

1532    max_time = length(ss_step.xyz);

1533    ss_step = z_sign * ss_step / length(ss_step.xyz);

1534  

1535    /* If the line is degenerate, make it cover at least one pixel

1536     * to not have to handle zero-pixel extent as a special case later */

1537    ss_step.xy += vec2((dot(ss_step.xy, ss_step.xy) < 0.00001) ? 0.001 : 0.0);

1538  

1539    /* Make ss_step cover one pixel. */

1540    ss_step /= max(abs(ss_step.x), abs(ss_step.y));

1541    ss_step *= (abs(ss_step.x) > abs(ss_step.y)) ? ssrPixelSize.x : ssrPixelSize.y;

1542  

1543    /* Clip to segment's end. */

1544    max_time /= length(ss_step.xyz);

1545  

1546    /* Clipping to frustum sides. */

1547    max_time = min(max_time, line_unit_box_intersect_dist(ss_start.xyz, ss_step.xyz));

1548  

1549    /* Convert to texture coords. Z component included

1550     * since this is how it's stored in the depth buffer.

1551     * 4th component how far we are on the ray */

1552  #ifdef PLANAR_PROBE_RAYTRACE

1553    /* Planar Reflections have X mirrored. */

1554    vec2 m = (index > -1) ? vec2(-0.5, 0.5) : vec2(0.5);

1555  #else

1556    const vec2 m = vec2(0.5);

1557  #endif

1558    ss_ray = ss_start * m.xyyy + 0.5;

1559    ss_step *= m.xyyy;

1560  

1561    ss_ray.xy += m * ssrPixelSize * 2.0; /* take the center of the texel. * 2 because halfres. */

1562  }

1563  

1564  /* See times_and_deltas. */

1565  #define curr_time times_and_deltas.x

1566  #define prev_time times_and_deltas.y

1567  #define curr_delta times_and_deltas.z

1568  #define prev_delta times_and_deltas.w

1569  

1570  // #define GROUPED_FETCHES /* is still slower, need to see where is the bottleneck. */

1571  /* Return the hit position, and negate the z component (making it positive) if not hit occurred. */

1572  /* __ray_dir__ is the ray direction premultiplied by it's maximum length */

1573  vec3 raycast(int index,

1574               vec3 ray_origin,

1575               vec3 ray_dir,

1576               float thickness,

1577               float ray_jitter,

1578               float trace_quality,

1579               float roughness,

1580               const bool discard_backface)

1581  {

1582    vec4 ss_step, ss_start;

1583    float max_time;

1584    prepare_raycast(ray_origin, ray_dir, thickness, index, ss_step, ss_start, max_time);

1585  

1586    float max_trace_time = max(0.01, max_time - 0.01);

1587  

1588  #ifdef GROUPED_FETCHES

1589    ray_jitter *= 0.25;

1590  #endif

1591  

1592    /* x : current_time, y: previous_time, z: current_delta, w: previous_delta */

1593    vec4 times_and_deltas = vec4(0.0);

1594  

1595    float ray_time = 0.0;

1596    float depth_sample = sample_depth(ss_start.xy, index, 0.0);

1597    curr_delta = depth_sample - ss_start.z;

1598  

1599    float lod_fac = saturate(fast_sqrt(roughness) * 2.0 - 0.4);

1600    bool hit = false;

1601    float iter;

1602    for (iter = 1.0; !hit && (ray_time < max_time) && (iter < MAX_STEP); iter++) {

1603      /* Minimum stride of 2 because we are using half res minmax zbuffer. */

1604      float stride = max(1.0, iter * trace_quality) * 2.0;

1605      float lod = log2(stride * 0.5 * trace_quality) * lod_fac;

1606      ray_time += stride;

1607  

1608      /* Save previous values. */

1609      times_and_deltas.xyzw = times_and_deltas.yxwz;

1610  

1611  #ifdef GROUPED_FETCHES

1612      stride *= 4.0;

1613      vec4 jit_stride = mix(vec4(2.0), vec4(stride), vec4(0.0, 0.25, 0.5, 0.75) + ray_jitter);

1614  

1615      vec4 times = min(vec4(ray_time) + jit_stride, vec4(max_trace_time));

1616  

1617      vec4 uv1 = ss_start.xyxy + ss_step.xyxy * times.xxyy;

1618      vec4 uv2 = ss_start.xyxy + ss_step.xyxy * times.zzww;

1619  

1620      vec4 depth_samples = sample_depth_grouped(uv1, uv2, index, lod);

1621  

1622      vec4 ray_z = ss_start.zzzz + ss_step.zzzz * times.xyzw;

1623      vec4 ray_w = ss_start.wwww + ss_step.wwww * vec4(prev_time, times.xyz);

1624  

1625      vec4 deltas = depth_samples - ray_z;

1626      /* Same as component wise (curr_delta <= 0.0) && (prev_w <= depth_sample). */

1627      bvec4 test = equal(step(deltas, vec4(0.0)) * step(ray_w, depth_samples), vec4(1.0));

1628      hit = any(test);

1629  

1630      if (hit) {

1631        vec2 m = vec2(1.0, 0.0); /* Mask */

1632  

1633        vec4 ret_times_and_deltas = times.wzzz * m.xxyy + deltas.wwwz * m.yyxx;

1634        ret_times_and_deltas = (test.z) ? times.zyyy * m.xxyy + deltas.zzzy * m.yyxx :

1635                                          ret_times_and_deltas;

1636        ret_times_and_deltas = (test.y) ? times.yxxx * m.xxyy + deltas.yyyx * m.yyxx :

1637                                          ret_times_and_deltas;

1638        times_and_deltas = (test.x) ? times.xxxx * m.xyyy + deltas.xxxx * m.yyxy +

1639                                          times_and_deltas.yyww * m.yxyx :

1640                                      ret_times_and_deltas;

1641  

1642        depth_sample = depth_samples.w;

1643        depth_sample = (test.z) ? depth_samples.z : depth_sample;

1644        depth_sample = (test.y) ? depth_samples.y : depth_sample;

1645        depth_sample = (test.x) ? depth_samples.x : depth_sample;

1646      }

1647      else {

1648        curr_time = times.w;

1649        curr_delta = deltas.w;

1650      }

1651  #else

1652      float jit_stride = mix(2.0, stride, ray_jitter);

1653  

1654      curr_time = min(ray_time + jit_stride, max_trace_time);

1655      vec4 ss_ray = ss_start + ss_step * curr_time;

1656  

1657      depth_sample = sample_depth(ss_ray.xy, index, lod);

1658  

1659      float prev_w = ss_start.w + ss_step.w * prev_time;

1660      curr_delta = depth_sample - ss_ray.z;

1661      hit = (curr_delta <= 0.0) && (prev_w <= depth_sample);

1662  #endif

1663    }

1664  

1665    if (discard_backface) {

1666      /* Discard backface hits */

1667      hit = hit && (prev_delta > 0.0);

1668    }

1669  

1670    /* Reject hit if background. */

1671    hit = hit && (depth_sample != 1.0);

1672  

1673    curr_time = (hit) ? mix(prev_time, curr_time, refine_isect(prev_delta, curr_delta)) : curr_time;

1674    ray_time = (hit) ? curr_time : ray_time;

1675  

1676    /* Clip to frustum. */

1677    ray_time = max(0.001, min(ray_time, max_time - 1.5));

1678  

1679    vec4 ss_ray = ss_start + ss_step * ray_time;

1680  

1681    /* Tag Z if ray failed. */

1682    ss_ray.z *= (hit) ? 1.0 : -1.0;

1683    return ss_ray.xyz;

1684  }

1685  

1686  float screen_border_mask(vec2 hit_co)

1687  {

1688    const float margin = 0.003;

1689    float atten = ssrBorderFac + margin; /* Screen percentage */

1690    hit_co = smoothstep(margin, atten, hit_co) * (1 - smoothstep(1.0 - atten, 1.0 - margin, hit_co));

1691  

1692    float screenfade = hit_co.x * hit_co.y;

1693  

1694    return screenfade;

1695  }

1696  /* ------------ Refraction ------------ */

1697  

1698  #define BTDF_BIAS 0.85

1699  

1700  vec4 screen_space_refraction(

1701      vec3 viewPosition, vec3 N, vec3 V, float ior, float roughnessSquared, vec4 rand)

1702  {

1703    float a2 = max(5e-6, roughnessSquared * roughnessSquared);

1704  

1705    /* Importance sampling bias */

1706    rand.x = mix(rand.x, 0.0, BTDF_BIAS);

1707  

1708    vec3 T, B;

1709    float NH;

1710    make_orthonormal_basis(N, T, B);

1711    vec3 H = sample_ggx(rand.xzw, a2, N, T, B, NH); /* Microfacet normal */

1712    float pdf = pdf_ggx_reflect(NH, a2);

1713  

1714    /* If ray is bad (i.e. going below the plane) regenerate. */

1715    if (F_eta(ior, dot(H, V)) < 1.0) {

1716      H = sample_ggx(rand.xzw * vec3(1.0, -1.0, -1.0), a2, N, T, B, NH); /* Microfacet normal */

1717      pdf = pdf_ggx_reflect(NH, a2);

1718    }

1719  

1720    vec3 vV = viewCameraVec;

1721    float eta = 1.0 / ior;

1722    if (dot(H, V) < 0.0) {

1723      H = -H;

1724      eta = ior;

1725    }

1726  

1727    vec3 R = refract(-V, H, 1.0 / ior);

1728  

1729    R = transform_direction(ViewMatrix, R);

1730  

1731    vec3 hit_pos = raycast(

1732        -1, viewPosition, R * 1e16, ssrThickness, rand.y, ssrQuality, roughnessSquared, false);

1733  

1734    if ((hit_pos.z > 0.0) && (F_eta(ior, dot(H, V)) < 1.0)) {

1735      hit_pos = get_view_space_from_depth(hit_pos.xy, hit_pos.z);

1736      float hit_dist = distance(hit_pos, viewPosition);

1737  

1738      float cone_cos = cone_cosine(roughnessSquared);

1739      float cone_tan = sqrt(1 - cone_cos * cone_cos) / cone_cos;

1740  

1741      /* Empirical fit for refraction. */

1742      /* TODO find a better fit or precompute inside the LUT. */

1743      cone_tan *= 0.5 * fast_sqrt(f0_from_ior((ior < 1.0) ? 1.0 / ior : ior));

1744  

1745      float cone_footprint = hit_dist * cone_tan;

1746  

1747      /* find the offset in screen space by multiplying a point

1748       * in camera space at the depth of the point by the projection matrix. */

1749      float homcoord = ProjectionMatrix[2][3] * hit_pos.z + ProjectionMatrix[3][3];

1750      /* UV space footprint */

1751      cone_footprint = BTDF_BIAS * 0.5 * max(ProjectionMatrix[0][0], ProjectionMatrix[1][1]) *

1752                       cone_footprint / homcoord;

1753  

1754      vec2 hit_uvs = project_point(ProjectionMatrix, hit_pos).xy * 0.5 + 0.5;

1755  

1756      /* Texel footprint */

1757      vec2 texture_size = vec2(textureSize(colorBuffer, 0).xy);

1758      float mip = clamp(log2(cone_footprint * max(texture_size.x, texture_size.y)), 0.0, 9.0);

1759  

1760      /* Correct UVs for mipmaping mis-alignment */

1761      hit_uvs *= mip_ratio_interp(mip);

1762  

1763      vec3 spec = textureLod(colorBuffer, hit_uvs, mip).xyz;

1764      float mask = screen_border_mask(hit_uvs);

1765  

1766      return vec4(spec, mask);

1767    }

1768  

1769    return vec4(0.0);

1770  }

1771  

1772  vec2 mapping_octahedron(vec3 cubevec, vec2 texel_size)

1773  {

1774    /* projection onto octahedron */

1775    cubevec /= dot(vec3(1.0), abs(cubevec));

1776  

1777    /* out-folding of the downward faces */

1778    if (cubevec.z < 0.0) {

1779      vec2 cubevec_sign = step(0.0, cubevec.xy) * 2.0 - 1.0;

1780      cubevec.xy = (1.0 - abs(cubevec.yx)) * cubevec_sign;

1781    }

1782  

1783    /* mapping to [0;1]ˆ2 texture space */

1784    vec2 uvs = cubevec.xy * (0.5) + 0.5;

1785  

1786    /* edge filtering fix */

1787    uvs = (1.0 - 2.0 * texel_size) * uvs + texel_size;

1788  

1789    return uvs;

1790  }

1791  

1792  vec4 textureLod_octahedron(sampler2DArray tex, vec4 cubevec, float lod, float lod_max)

1793  {

1794    vec2 texelSize = 1.0 / vec2(textureSize(tex, int(lod_max)));

1795  

1796    vec2 uvs = mapping_octahedron(cubevec.xyz, texelSize);

1797  

1798    return textureLod(tex, vec3(uvs, cubevec.w), lod);

1799  }

1800  

1801  vec4 texture_octahedron(sampler2DArray tex, vec4 cubevec)

1802  {

1803    vec2 texelSize = 1.0 / vec2(textureSize(tex, 0));

1804  

1805    vec2 uvs = mapping_octahedron(cubevec.xyz, texelSize);

1806  

1807    return texture(tex, vec3(uvs, cubevec.w));

1808  }

1809  

1810  uniform sampler2DArray irradianceGrid;

1811  

1812  #define IRRADIANCE_LIB

1813  

1814  #ifdef IRRADIANCE_CUBEMAP

1815  struct IrradianceData {

1816    vec3 color;

1817  };

1818  #elif defined(IRRADIANCE_SH_L2)

1819  struct IrradianceData {

1820    vec3 shcoefs[9];

1821  };

1822  #else /* defined(IRRADIANCE_HL2) */

1823  struct IrradianceData {

1824    vec3 cubesides[3];

1825  };

1826  #endif

1827  

1828  IrradianceData load_irradiance_cell(int cell, vec3 N)

1829  {

1830    /* Keep in sync with diffuse_filter_probe() */

1831  

1832  #if defined(IRRADIANCE_CUBEMAP)

1833  

1834  #  define AMBIANT_CUBESIZE 8

1835    ivec2 cell_co = ivec2(AMBIANT_CUBESIZE);

1836    int cell_per_row = textureSize(irradianceGrid, 0).x / cell_co.x;

1837    cell_co.x *= cell % cell_per_row;

1838    cell_co.y *= cell / cell_per_row;

1839  

1840    vec2 texelSize = 1.0 / vec2(AMBIANT_CUBESIZE);

1841  

1842    vec2 uvs = mapping_octahedron(N, texelSize);

1843    uvs *= vec2(AMBIANT_CUBESIZE) / vec2(textureSize(irradianceGrid, 0));

1844    uvs += vec2(cell_co) / vec2(textureSize(irradianceGrid, 0));

1845  

1846    IrradianceData ir;

1847    ir.color = texture(irradianceGrid, vec3(uvs, 0.0)).rgb;

1848  

1849  #elif defined(IRRADIANCE_SH_L2)

1850  

1851    ivec2 cell_co = ivec2(3, 3);

1852    int cell_per_row = textureSize(irradianceGrid, 0).x / cell_co.x;

1853    cell_co.x *= cell % cell_per_row;

1854    cell_co.y *= cell / cell_per_row;

1855  

1856    ivec3 ofs = ivec3(0, 1, 2);

1857  

1858    IrradianceData ir;

1859    ir.shcoefs[0] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.xx, 0), 0).rgb;

1860    ir.shcoefs[1] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.yx, 0), 0).rgb;

1861    ir.shcoefs[2] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.zx, 0), 0).rgb;

1862    ir.shcoefs[3] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.xy, 0), 0).rgb;

1863    ir.shcoefs[4] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.yy, 0), 0).rgb;

1864    ir.shcoefs[5] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.zy, 0), 0).rgb;

1865    ir.shcoefs[6] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.xz, 0), 0).rgb;

1866    ir.shcoefs[7] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.yz, 0), 0).rgb;

1867    ir.shcoefs[8] = texelFetch(irradianceGrid, ivec3(cell_co + ofs.zz, 0), 0).rgb;

1868  

1869  #else /* defined(IRRADIANCE_HL2) */

1870  

1871    ivec2 cell_co = ivec2(3, 2);

1872    int cell_per_row = textureSize(irradianceGrid, 0).x / cell_co.x;

1873    cell_co.x *= cell % cell_per_row;

1874    cell_co.y *= cell / cell_per_row;

1875  

1876    ivec3 is_negative = ivec3(step(0.0, -N));

1877  

1878    IrradianceData ir;

1879    ir.cubesides[0] = irradiance_decode(

1880        texelFetch(irradianceGrid, ivec3(cell_co + ivec2(0, is_negative.x), 0), 0));

1881    ir.cubesides[1] = irradiance_decode(

1882        texelFetch(irradianceGrid, ivec3(cell_co + ivec2(1, is_negative.y), 0), 0));

1883    ir.cubesides[2] = irradiance_decode(

1884        texelFetch(irradianceGrid, ivec3(cell_co + ivec2(2, is_negative.z), 0), 0));

1885  

1886  #endif

1887  

1888    return ir;

1889  }

1890  

1891  float load_visibility_cell(int cell, vec3 L, float dist, float bias, float bleed_bias, float range)

1892  {

1893    /* Keep in sync with diffuse_filter_probe() */

1894    ivec2 cell_co = ivec2(prbIrradianceVisSize);

1895    ivec2 cell_per_row_col = textureSize(irradianceGrid, 0).xy / prbIrradianceVisSize;

1896    cell_co.x *= (cell % cell_per_row_col.x);

1897    cell_co.y *= (cell / cell_per_row_col.x) % cell_per_row_col.y;

1898    float layer = 1.0 + float((cell / cell_per_row_col.x) / cell_per_row_col.y);

1899  

1900    vec2 texel_size = 1.0 / vec2(textureSize(irradianceGrid, 0).xy);

1901    vec2 co = vec2(cell_co) * texel_size;

1902  

1903    vec2 uv = mapping_octahedron(-L, vec2(1.0 / float(prbIrradianceVisSize)));

1904    uv *= vec2(prbIrradianceVisSize) * texel_size;

1905  

1906    vec4 data = texture(irradianceGrid, vec3(co + uv, layer));

1907  

1908    /* Decoding compressed data */

1909    vec2 moments = visibility_decode(data, range);

1910  

1911    /* Doing chebishev test */

1912    float variance = abs(moments.x * moments.x - moments.y);

1913    variance = max(variance, bias / 10.0);

1914  

1915    float d = dist - moments.x;

1916    float p_max = variance / (variance + d * d);

1917  

1918    /* Increase contrast in the weight by squaring it */

1919    p_max *= p_max;

1920  

1921    /* Now reduce light-bleeding by removing the [0, x] tail and linearly rescaling (x, 1] */

1922    p_max = clamp((p_max - bleed_bias) / (1.0 - bleed_bias), 0.0, 1.0);

1923  

1924    return (dist <= moments.x) ? 1.0 : p_max;

1925  }

1926  

1927  /* http://seblagarde.wordpress.com/2012/01/08/pi-or-not-to-pi-in-game-lighting-equation/ */

1928  vec3 spherical_harmonics_L1(vec3 N, vec3 shcoefs[4])

1929  {

1930    vec3 sh = vec3(0.0);

1931  

1932    sh += 0.282095 * shcoefs[0];

1933  

1934    sh += -0.488603 * N.z * shcoefs[1];

1935    sh += 0.488603 * N.y * shcoefs[2];

1936    sh += -0.488603 * N.x * shcoefs[3];

1937  

1938    return sh;

1939  }

1940  

1941  vec3 spherical_harmonics_L2(vec3 N, vec3 shcoefs[9])

1942  {

1943    vec3 sh = vec3(0.0);

1944  

1945    sh += 0.282095 * shcoefs[0];

1946  

1947    sh += -0.488603 * N.z * shcoefs[1];

1948    sh += 0.488603 * N.y * shcoefs[2];

1949    sh += -0.488603 * N.x * shcoefs[3];

1950  

1951    sh += 1.092548 * N.x * N.z * shcoefs[4];

1952    sh += -1.092548 * N.z * N.y * shcoefs[5];

1953    sh += 0.315392 * (3.0 * N.y * N.y - 1.0) * shcoefs[6];

1954    sh += -1.092548 * N.x * N.y * shcoefs[7];

1955    sh += 0.546274 * (N.x * N.x - N.z * N.z) * shcoefs[8];

1956  

1957    return sh;

1958  }

1959  

1960  vec3 hl2_basis(vec3 N, vec3 cubesides[3])

1961  {

1962    vec3 irradiance = vec3(0.0);

1963  

1964    vec3 n_squared = N * N;

1965  

1966    irradiance += n_squared.x * cubesides[0];

1967    irradiance += n_squared.y * cubesides[1];

1968    irradiance += n_squared.z * cubesides[2];

1969  

1970    return irradiance;

1971  }

1972  

1973  vec3 compute_irradiance(vec3 N, IrradianceData ird)

1974  {

1975  #if defined(IRRADIANCE_CUBEMAP)

1976    return ird.color;

1977  #elif defined(IRRADIANCE_SH_L2)

1978    return spherical_harmonics_L2(N, ird.shcoefs);

1979  #else /* defined(IRRADIANCE_HL2) */

1980    return hl2_basis(N, ird.cubesides);

1981  #endif

1982  }

1983  

1984  vec3 irradiance_from_cell_get(int cell, vec3 ir_dir)

1985  {

1986    IrradianceData ir_data = load_irradiance_cell(cell, ir_dir);

1987    return compute_irradiance(ir_dir, ir_data);

1988  }

1989  /* ----------- Uniforms --------- */

1990  

1991  uniform sampler2DArray probePlanars;

1992  uniform sampler2DArray probeCubes;

1993  

1994  /* ----------- Structures --------- */

1995  

1996  struct CubeData {

1997    vec4 position_type;

1998    vec4 attenuation_fac_type;

1999    mat4 influencemat;

2000    mat4 parallaxmat;

2001  };

2002  

2003  #define PROBE_PARALLAX_BOX 1.0

2004  #define PROBE_ATTENUATION_BOX 1.0

2005  

2006  #define p_position position_type.xyz

2007  #define p_parallax_type position_type.w

2008  #define p_atten_fac attenuation_fac_type.x

2009  #define p_atten_type attenuation_fac_type.y

2010  

2011  struct PlanarData {

2012    vec4 plane_equation;

2013    vec4 clip_vec_x_fade_scale;

2014    vec4 clip_vec_y_fade_bias;

2015    vec4 clip_edges;

2016    vec4 facing_scale_bias;

2017    mat4 reflectionmat; /* transform world space into reflection texture space */

2018    mat4 unused;

2019  };

2020  

2021  #define pl_plane_eq plane_equation

2022  #define pl_normal plane_equation.xyz

2023  #define pl_facing_scale facing_scale_bias.x

2024  #define pl_facing_bias facing_scale_bias.y

2025  #define pl_fade_scale clip_vec_x_fade_scale.w

2026  #define pl_fade_bias clip_vec_y_fade_bias.w

2027  #define pl_clip_pos_x clip_vec_x_fade_scale.xyz

2028  #define pl_clip_pos_y clip_vec_y_fade_bias.xyz

2029  #define pl_clip_edges clip_edges

2030  

2031  struct GridData {

2032    mat4 localmat;

2033    ivec4 resolution_offset;

2034    vec4 ws_corner_atten_scale;     /* world space corner position */

2035    vec4 ws_increment_x_atten_bias; /* world space vector between 2 opposite cells */

2036    vec4 ws_increment_y_lvl_bias;

2037    vec4 ws_increment_z;

2038    vec4 vis_bias_bleed_range;

2039  };

2040  

2041  #define g_corner ws_corner_atten_scale.xyz

2042  #define g_atten_scale ws_corner_atten_scale.w

2043  #define g_atten_bias ws_increment_x_atten_bias.w

2044  #define g_level_bias ws_increment_y_lvl_bias.w

2045  #define g_increment_x ws_increment_x_atten_bias.xyz

2046  #define g_increment_y ws_increment_y_lvl_bias.xyz

2047  #define g_increment_z ws_increment_z.xyz

2048  #define g_resolution resolution_offset.xyz

2049  #define g_offset resolution_offset.w

2050  #define g_vis_bias vis_bias_bleed_range.x

2051  #define g_vis_bleed vis_bias_bleed_range.y

2052  #define g_vis_range vis_bias_bleed_range.z

2053  

2054  #ifndef MAX_PROBE

2055  #  define MAX_PROBE 1

2056  #endif

2057  #ifndef MAX_GRID

2058  #  define MAX_GRID 1

2059  #endif

2060  #ifndef MAX_PLANAR

2061  #  define MAX_PLANAR 1

2062  #endif

2063  

2064  #ifndef UTIL_TEX

2065  #  define UTIL_TEX

2066  uniform sampler2DArray utilTex;

2067  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

2068  #endif /* UTIL_TEX */

2069  

2070  layout(std140) uniform probe_block

2071  {

2072    CubeData probes_data[MAX_PROBE];

2073  };

2074  

2075  layout(std140) uniform grid_block

2076  {

2077    GridData grids_data[MAX_GRID];

2078  };

2079  

2080  layout(std140) uniform planar_block

2081  {

2082    PlanarData planars_data[MAX_PLANAR];

2083  };

2084  

2085  /* ----------- Functions --------- */

2086  

2087  float probe_attenuation_cube(int pd_id, vec3 W)

2088  {

2089    vec3 localpos = transform_point(probes_data[pd_id].influencemat, W);

2090  

2091    float probe_atten_fac = probes_data[pd_id].p_atten_fac;

2092    float fac;

2093    if (probes_data[pd_id].p_atten_type == PROBE_ATTENUATION_BOX) {

2094      vec3 axes_fac = saturate(probe_atten_fac - probe_atten_fac * abs(localpos));

2095      fac = min_v3(axes_fac);

2096    }

2097    else {

2098      fac = saturate(probe_atten_fac - probe_atten_fac * length(localpos));

2099    }

2100  

2101    return fac;

2102  }

2103  

2104  float probe_attenuation_planar(PlanarData pd, vec3 W, vec3 N, float roughness)

2105  {

2106    /* Normal Facing */

2107    float fac = saturate(dot(pd.pl_normal, N) * pd.pl_facing_scale + pd.pl_facing_bias);

2108  

2109    /* Distance from plane */

2110    fac *= saturate(abs(dot(pd.pl_plane_eq, vec4(W, 1.0))) * pd.pl_fade_scale + pd.pl_fade_bias);

2111  

2112    /* Fancy fast clipping calculation */

2113    vec2 dist_to_clip;

2114    dist_to_clip.x = dot(pd.pl_clip_pos_x, W);

2115    dist_to_clip.y = dot(pd.pl_clip_pos_y, W);

2116    /* compare and add all tests */

2117    fac *= step(2.0, dot(step(pd.pl_clip_edges, dist_to_clip.xxyy), vec2(-1.0, 1.0).xyxy));

2118  

2119    /* Decrease influence for high roughness */

2120    fac *= saturate(1.0 - roughness * 10.0);

2121  

2122    return fac;

2123  }

2124  

2125  float probe_attenuation_grid(GridData gd, mat4 localmat, vec3 W, out vec3 localpos)

2126  {

2127    localpos = transform_point(localmat, W);

2128    vec3 pos_to_edge = max(vec3(0.0), abs(localpos) - 1.0);

2129    float fade = length(pos_to_edge);

2130    return saturate(-fade * gd.g_atten_scale + gd.g_atten_bias);

2131  }

2132  

2133  vec3 probe_evaluate_cube(int pd_id, vec3 W, vec3 R, float roughness)

2134  {

2135    /* Correct reflection ray using parallax volume intersection. */

2136    vec3 localpos = transform_point(probes_data[pd_id].parallaxmat, W);

2137    vec3 localray = transform_direction(probes_data[pd_id].parallaxmat, R);

2138  

2139    float dist;

2140    if (probes_data[pd_id].p_parallax_type == PROBE_PARALLAX_BOX) {

2141      dist = line_unit_box_intersect_dist(localpos, localray);

2142    }

2143    else {

2144      dist = line_unit_sphere_intersect_dist(localpos, localray);

2145    }

2146  

2147    /* Use Distance in WS directly to recover intersection */

2148    vec3 intersection = W + R * dist - probes_data[pd_id].p_position;

2149  

2150    /* From Frostbite PBR Course

2151     * Distance based roughness

2152     * http://www.frostbite.com/wp-content/uploads/2014/11/course_notes_moving_frostbite_to_pbr.pdf */

2153    float original_roughness = roughness;

2154    float linear_roughness = sqrt(roughness);

2155    float distance_roughness = saturate(dist * linear_roughness / length(intersection));

2156    linear_roughness = mix(distance_roughness, linear_roughness, linear_roughness);

2157    roughness = linear_roughness * linear_roughness;

2158  

2159    float fac = saturate(original_roughness * 2.0 - 1.0);

2160    R = mix(intersection, R, fac * fac);

2161  

2162    return textureLod_octahedron(

2163               probeCubes, vec4(R, float(pd_id)), roughness * prbLodCubeMax, prbLodCubeMax)

2164        .rgb;

2165  }

2166  

2167  vec3 probe_evaluate_world_spec(vec3 R, float roughness)

2168  {

2169    return textureLod_octahedron(probeCubes, vec4(R, 0.0), roughness * prbLodCubeMax, prbLodCubeMax)

2170        .rgb;

2171  }

2172  

2173  vec3 probe_evaluate_planar(

2174      float id, PlanarData pd, vec3 W, vec3 N, vec3 V, float roughness, inout float fade)

2175  {

2176    /* Find view vector / reflection plane intersection. */

2177    vec3 point_on_plane = line_plane_intersect(W, V, pd.pl_plane_eq);

2178  

2179    /* How far the pixel is from the plane. */

2180    float ref_depth = 1.0; /* TODO parameter */

2181  

2182    /* Compute distorded reflection vector based on the distance to the reflected object.

2183     * In other words find intersection between reflection vector and the sphere center

2184     * around point_on_plane. */

2185    vec3 proj_ref = reflect(reflect(-V, N) * ref_depth, pd.pl_normal);

2186  

2187    /* Final point in world space. */

2188    vec3 ref_pos = point_on_plane + proj_ref;

2189  

2190    /* Reproject to find texture coords. */

2191    vec4 refco = ViewProjectionMatrix * vec4(ref_pos, 1.0);

2192    refco.xy /= refco.w;

2193  

2194    /* TODO: If we support non-ssr planar reflection, we should blur them with gaussian

2195     * and chose the right mip depending on the cone footprint after projection */

2196    /* NOTE: X is inverted here to compensate inverted drawing.  */

2197    vec3 sample = textureLod(probePlanars, vec3(refco.xy * vec2(-0.5, 0.5) + 0.5, id), 0.0).rgb;

2198  

2199    return sample;

2200  }

2201  

2202  void fallback_cubemap(vec3 N,

2203                        vec3 V,

2204                        vec3 W,

2205                        vec3 viewPosition,

2206                        float roughness,

2207                        float roughnessSquared,

2208                        inout vec4 spec_accum)

2209  {

2210    /* Specular probes */

2211    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

2212  

2213  #ifdef SSR_AO

2214    vec4 rand = texelfetch_noise_tex(gl_FragCoord.xy);

2215    vec3 bent_normal;

2216    float final_ao = occlusion_compute(N, viewPosition, 1.0, rand, bent_normal);

2217    final_ao = specular_occlusion(dot(N, V), final_ao, roughness);

2218  #else

2219    const float final_ao = 1.0;

2220  #endif

2221  

2222    /* Starts at 1 because 0 is world probe */

2223    for (int i = 1; i < MAX_PROBE && i < prbNumRenderCube && spec_accum.a < 0.999; ++i) {

2224      float fade = probe_attenuation_cube(i, W);

2225  

2226      if (fade > 0.0) {

2227        vec3 spec = final_ao * probe_evaluate_cube(i, W, spec_dir, roughness);

2228        accumulate_light(spec, fade, spec_accum);

2229      }

2230    }

2231  

2232    /* World Specular */

2233    if (spec_accum.a < 0.999) {

2234      vec3 spec = final_ao * probe_evaluate_world_spec(spec_dir, roughness);

2235      accumulate_light(spec, 1.0, spec_accum);

2236    }

2237  }

2238  

2239  #ifdef IRRADIANCE_LIB

2240  vec3 probe_evaluate_grid(GridData gd, vec3 W, vec3 N, vec3 localpos)

2241  {

2242    localpos = localpos * 0.5 + 0.5;

2243    localpos = localpos * vec3(gd.g_resolution) - 0.5;

2244  

2245    vec3 localpos_floored = floor(localpos);

2246    vec3 trilinear_weight = fract(localpos);

2247  

2248    float weight_accum = 0.0;

2249    vec3 irradiance_accum = vec3(0.0);

2250  

2251    /* For each neighboor cells */

2252    for (int i = 0; i < 8; ++i) {

2253      ivec3 offset = ivec3(i, i >> 1, i >> 2) & ivec3(1);

2254      vec3 cell_cos = clamp(localpos_floored + vec3(offset), vec3(0.0), vec3(gd.g_resolution) - 1.0);

2255  

2256      /* Keep in sync with update_irradiance_probe */

2257      ivec3 icell_cos = ivec3(gd.g_level_bias * floor(cell_cos / gd.g_level_bias));

2258      int cell = gd.g_offset + icell_cos.z + icell_cos.y * gd.g_resolution.z +

2259                 icell_cos.x * gd.g_resolution.z * gd.g_resolution.y;

2260  

2261      vec3 color = irradiance_from_cell_get(cell, N);

2262  

2263      /* We need this because we render probes in world space (so we need light vector in WS).

2264       * And rendering them in local probe space is too much problem. */

2265      vec3 ws_cell_location = gd.g_corner +

2266                              (gd.g_increment_x * cell_cos.x + gd.g_increment_y * cell_cos.y +

2267                               gd.g_increment_z * cell_cos.z);

2268  

2269      vec3 ws_point_to_cell = ws_cell_location - W;

2270      float ws_dist_point_to_cell = length(ws_point_to_cell);

2271      vec3 ws_light = ws_point_to_cell / ws_dist_point_to_cell;

2272  

2273      /* Smooth backface test */

2274      float weight = saturate(dot(ws_light, N));

2275  

2276      /* Precomputed visibility */

2277      weight *= load_visibility_cell(

2278          cell, ws_light, ws_dist_point_to_cell, gd.g_vis_bias, gd.g_vis_bleed, gd.g_vis_range);

2279  

2280      /* Smoother transition */

2281      weight += prbIrradianceSmooth;

2282  

2283      /* Trilinear weights */

2284      vec3 trilinear = mix(1.0 - trilinear_weight, trilinear_weight, offset);

2285      weight *= trilinear.x * trilinear.y * trilinear.z;

2286  

2287      /* Avoid zero weight */

2288      weight = max(0.00001, weight);

2289  

2290      weight_accum += weight;

2291      irradiance_accum += color * weight;

2292    }

2293  

2294    return irradiance_accum / weight_accum;

2295  }

2296  

2297  vec3 probe_evaluate_world_diff(vec3 N)

2298  {

2299    return irradiance_from_cell_get(0, N);

2300  }

2301  

2302  #endif /* IRRADIANCE_LIB */

2303  /**

2304   * Adapted from :

2305   * Real-Time Polygonal-Light Shading with Linearly Transformed Cosines.

2306   * Eric Heitz, Jonathan Dupuy, Stephen Hill and David Neubelt.

2307   * ACM Transactions on Graphics (Proceedings of ACM SIGGRAPH 2016) 35(4), 2016.

2308   * Project page: https://eheitzresearch.wordpress.com/415-2/

2309   */

2310  

2311  #define USE_LTC

2312  

2313  #ifndef UTIL_TEX

2314  #  define UTIL_TEX

2315  uniform sampler2DArray utilTex;

2316  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

2317  #endif /* UTIL_TEX */

2318  

2319  /* Diffuse *clipped* sphere integral. */

2320  float diffuse_sphere_integral(float avg_dir_z, float form_factor)

2321  {

2322  #if 1

2323    /* use tabulated horizon-clipped sphere */

2324    vec2 uv = vec2(avg_dir_z * 0.5 + 0.5, form_factor);

2325    uv = uv * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

2326  

2327    return texture(utilTex, vec3(uv, 3.0)).x;

2328  #else

2329    /* Cheap approximation. Less smooth and have energy issues. */

2330    return max((form_factor * form_factor + avg_dir_z) / (form_factor + 1.0), 0.0);

2331  #endif

2332  }

2333  

2334  /**

2335   * An extended version of the implementation from

2336   * "How to solve a cubic equation, revisited"

2337   * http://momentsingraphics.de/?p=105

2338   */

2339  vec3 solve_cubic(vec4 coefs)

2340  {

2341    /* Normalize the polynomial */

2342    coefs.xyz /= coefs.w;

2343    /* Divide middle coefficients by three */

2344    coefs.yz /= 3.0;

2345  

2346    float A = coefs.w;

2347    float B = coefs.z;

2348    float C = coefs.y;

2349    float D = coefs.x;

2350  

2351    /* Compute the Hessian and the discriminant */

2352    vec3 delta = vec3(-coefs.z * coefs.z + coefs.y,

2353                      -coefs.y * coefs.z + coefs.x,

2354                      dot(vec2(coefs.z, -coefs.y), coefs.xy));

2355  

2356    /* Discriminant */

2357    float discr = dot(vec2(4.0 * delta.x, -delta.y), delta.zy);

2358  

2359    vec2 xlc, xsc;

2360  

2361    /* Algorithm A */

2362    {

2363      float A_a = 1.0;

2364      float C_a = delta.x;

2365      float D_a = -2.0 * B * delta.x + delta.y;

2366  

2367      /* Take the cubic root of a normalized complex number */

2368      float theta = atan(sqrt(discr), -D_a) / 3.0;

2369  

2370      float x_1a = 2.0 * sqrt(-C_a) * cos(theta);

2371      float x_3a = 2.0 * sqrt(-C_a) * cos(theta + (2.0 / 3.0) * M_PI);

2372  

2373      float xl;

2374      if ((x_1a + x_3a) > 2.0 * B) {

2375        xl = x_1a;

2376      }

2377      else {

2378        xl = x_3a;

2379      }

2380  

2381      xlc = vec2(xl - B, A);

2382    }

2383  

2384    /* Algorithm D */

2385    {

2386      float A_d = D;

2387      float C_d = delta.z;

2388      float D_d = -D * delta.y + 2.0 * C * delta.z;

2389  

2390      /* Take the cubic root of a normalized complex number */

2391      float theta = atan(D * sqrt(discr), -D_d) / 3.0;

2392  

2393      float x_1d = 2.0 * sqrt(-C_d) * cos(theta);

2394      float x_3d = 2.0 * sqrt(-C_d) * cos(theta + (2.0 / 3.0) * M_PI);

2395  

2396      float xs;

2397      if (x_1d + x_3d < 2.0 * C) {

2398        xs = x_1d;

2399      }

2400      else {

2401        xs = x_3d;

2402      }

2403  

2404      xsc = vec2(-D, xs + C);

2405    }

2406  

2407    float E = xlc.y * xsc.y;

2408    float F = -xlc.x * xsc.y - xlc.y * xsc.x;

2409    float G = xlc.x * xsc.x;

2410  

2411    vec2 xmc = vec2(C * F - B * G, -B * F + C * E);

2412  

2413    vec3 root = vec3(xsc.x / xsc.y, xmc.x / xmc.y, xlc.x / xlc.y);

2414  

2415    if (root.x < root.y && root.x < root.z) {

2416      root.xyz = root.yxz;

2417    }

2418    else if (root.z < root.x && root.z < root.y) {

2419      root.xyz = root.xzy;

2420    }

2421  

2422    return root;

2423  }

2424  

2425  /* from Real-Time Area Lighting: a Journey from Research to Production

2426   * Stephen Hill and Eric Heitz */

2427  vec3 edge_integral_vec(vec3 v1, vec3 v2)

2428  {

2429    float x = dot(v1, v2);

2430    float y = abs(x);

2431  

2432    float a = 0.8543985 + (0.4965155 + 0.0145206 * y) * y;

2433    float b = 3.4175940 + (4.1616724 + y) * y;

2434    float v = a / b;

2435  

2436    float theta_sintheta = (x > 0.0) ? v : 0.5 * inversesqrt(max(1.0 - x * x, 1e-7)) - v;

2437  

2438    return cross(v1, v2) * theta_sintheta;

2439  }

2440  

2441  mat3 ltc_matrix(vec4 lut)

2442  {

2443    /* load inverse matrix */

2444    mat3 Minv = mat3(vec3(lut.x, 0, lut.y), vec3(0, 1, 0), vec3(lut.z, 0, lut.w));

2445  

2446    return Minv;

2447  }

2448  

2449  void ltc_transform_quad(vec3 N, vec3 V, mat3 Minv, inout vec3 corners[4])

2450  {

2451    /* Avoid dot(N, V) == 1 in ortho mode, leading T1 normalize to fail. */

2452    V = normalize(V + 1e-8);

2453  

2454    /* construct orthonormal basis around N */

2455    vec3 T1, T2;

2456    T1 = normalize(V - N * dot(N, V));

2457    T2 = cross(N, T1);

2458  

2459    /* rotate area light in (T1, T2, R) basis */

2460    Minv = Minv * transpose(mat3(T1, T2, N));

2461  

2462    /* Apply LTC inverse matrix. */

2463    corners[0] = normalize(Minv * corners[0]);

2464    corners[1] = normalize(Minv * corners[1]);

2465    corners[2] = normalize(Minv * corners[2]);

2466    corners[3] = normalize(Minv * corners[3]);

2467  }

2468  

2469  /* If corners have already pass through ltc_transform_quad(), then N **MUST** be vec3(0.0, 0.0, 1.0),

2470   * corresponding to the Up axis of the shading basis. */

2471  float ltc_evaluate_quad(vec3 corners[4], vec3 N)

2472  {

2473    /* Approximation using a sphere of the same solid angle than the quad.

2474     * Finding the clipped sphere diffuse integral is easier than clipping the quad. */

2475    vec3 avg_dir;

2476    avg_dir = edge_integral_vec(corners[0], corners[1]);

2477    avg_dir += edge_integral_vec(corners[1], corners[2]);

2478    avg_dir += edge_integral_vec(corners[2], corners[3]);

2479    avg_dir += edge_integral_vec(corners[3], corners[0]);

2480  

2481    float form_factor = length(avg_dir);

2482    float avg_dir_z = dot(N, avg_dir / form_factor);

2483    return form_factor * diffuse_sphere_integral(avg_dir_z, form_factor);

2484  }

2485  

2486  /* If disk does not need to be transformed and is already front facing. */

2487  float ltc_evaluate_disk_simple(float disk_radius, float NL)

2488  {

2489    float r_sqr = disk_radius * disk_radius;

2490    float one_r_sqr = 1.0 + r_sqr;

2491    float form_factor = r_sqr * inversesqrt(one_r_sqr * one_r_sqr);

2492    return form_factor * diffuse_sphere_integral(NL, form_factor);

2493  }

2494  

2495  /* disk_points are WS vectors from the shading point to the disk "bounding domain" */

2496  float ltc_evaluate_disk(vec3 N, vec3 V, mat3 Minv, vec3 disk_points[3])

2497  {

2498    /* Avoid dot(N, V) == 1 in ortho mode, leading T1 normalize to fail. */

2499    V = normalize(V + 1e-8);

2500  

2501    /* construct orthonormal basis around N */

2502    vec3 T1, T2;

2503    T1 = normalize(V - N * dot(V, N));

2504    T2 = cross(N, T1);

2505  

2506    /* rotate area light in (T1, T2, R) basis */

2507    mat3 R = transpose(mat3(T1, T2, N));

2508  

2509    /* Intermediate step: init ellipse. */

2510    vec3 L_[3];

2511    L_[0] = mul(R, disk_points[0]);

2512    L_[1] = mul(R, disk_points[1]);

2513    L_[2] = mul(R, disk_points[2]);

2514  

2515    vec3 C = 0.5 * (L_[0] + L_[2]);

2516    vec3 V1 = 0.5 * (L_[1] - L_[2]);

2517    vec3 V2 = 0.5 * (L_[1] - L_[0]);

2518  

2519    /* Transform ellipse by Minv. */

2520    C = Minv * C;

2521    V1 = Minv * V1;

2522    V2 = Minv * V2;

2523  

2524    /* Compute eigenvectors of new ellipse. */

2525  

2526    float d11 = dot(V1, V1);

2527    float d22 = dot(V2, V2);

2528    float d12 = dot(V1, V2);

2529    float a, b;                     /* Eigenvalues */

2530    const float threshold = 0.0007; /* Can be adjusted. Fix artifacts. */

2531    if (abs(d12) / sqrt(d11 * d22) > threshold) {

2532      float tr = d11 + d22;

2533      float det = -d12 * d12 + d11 * d22;

2534  

2535      /* use sqrt matrix to solve for eigenvalues */

2536      det = sqrt(det);

2537      float u = 0.5 * sqrt(tr - 2.0 * det);

2538      float v = 0.5 * sqrt(tr + 2.0 * det);

2539      float e_max = (u + v);

2540      float e_min = (u - v);

2541      e_max *= e_max;

2542      e_min *= e_min;

2543  

2544      vec3 V1_, V2_;

2545      if (d11 > d22) {

2546        V1_ = d12 * V1 + (e_max - d11) * V2;

2547        V2_ = d12 * V1 + (e_min - d11) * V2;

2548      }

2549      else {

2550        V1_ = d12 * V2 + (e_max - d22) * V1;

2551        V2_ = d12 * V2 + (e_min - d22) * V1;

2552      }

2553  

2554      a = 1.0 / e_max;

2555      b = 1.0 / e_min;

2556      V1 = normalize(V1_);

2557      V2 = normalize(V2_);

2558    }

2559    else {

2560      a = 1.0 / d11;

2561      b = 1.0 / d22;

2562      V1 *= sqrt(a);

2563      V2 *= sqrt(b);

2564    }

2565  

2566    /* Now find front facing ellipse with same solid angle. */

2567  

2568    vec3 V3 = normalize(cross(V1, V2));

2569    if (dot(C, V3) < 0.0) {

2570      V3 *= -1.0;

2571    }

2572  

2573    float L = dot(V3, C);

2574    float x0 = dot(V1, C) / L;

2575    float y0 = dot(V2, C) / L;

2576  

2577    a *= L * L;

2578    b *= L * L;

2579  

2580    float c0 = a * b;

2581    float c1 = a * b * (1.0 + x0 * x0 + y0 * y0) - a - b;

2582    float c2 = 1.0 - a * (1.0 + x0 * x0) - b * (1.0 + y0 * y0);

2583    float c3 = 1.0;

2584  

2585    vec3 roots = solve_cubic(vec4(c0, c1, c2, c3));

2586    float e1 = roots.x;

2587    float e2 = roots.y;

2588    float e3 = roots.z;

2589  

2590    vec3 avg_dir = vec3(a * x0 / (a - e2), b * y0 / (b - e2), 1.0);

2591  

2592    mat3 rotate = mat3(V1, V2, V3);

2593  

2594    avg_dir = rotate * avg_dir;

2595    avg_dir = normalize(avg_dir);

2596  

2597    /* L1, L2 are the extends of the front facing ellipse. */

2598    float L1 = sqrt(-e2 / e3);

2599    float L2 = sqrt(-e2 / e1);

2600  

2601    /* Find the sphere and compute lighting. */

2602    float form_factor = max(0.0, L1 * L2 * inversesqrt((1.0 + L1 * L1) * (1.0 + L2 * L2)));

2603    return form_factor * diffuse_sphere_integral(avg_dir.z, form_factor);

2604  }

2605  

2606  uniform sampler2DArray shadowCubeTexture;

2607  uniform sampler2DArray shadowCascadeTexture;

2608  

2609  #define LAMPS_LIB

2610  

2611  layout(std140) uniform shadow_block

2612  {

2613    ShadowData shadows_data[MAX_SHADOW];

2614    ShadowCubeData shadows_cube_data[MAX_SHADOW_CUBE];

2615    ShadowCascadeData shadows_cascade_data[MAX_SHADOW_CASCADE];

2616  };

2617  

2618  layout(std140) uniform light_block

2619  {

2620    LightData lights_data[MAX_LIGHT];

2621  };

2622  

2623  /* type */

2624  #define POINT 0.0

2625  #define SUN 1.0

2626  #define SPOT 2.0

2627  #define AREA_RECT 4.0

2628  /* Used to define the area light shape, doesn't directly correspond to a Blender light type. */

2629  #define AREA_ELLIPSE 100.0

2630  

2631  #if defined(SHADOW_VSM)

2632  #  define ShadowSample vec2

2633  #  define sample_cube(vec, id) texture_octahedron(shadowCubeTexture, vec4(vec, id)).rg

2634  #  define sample_cascade(vec, id) texture(shadowCascadeTexture, vec3(vec, id)).rg

2635  #elif defined(SHADOW_ESM)

2636  #  define ShadowSample float

2637  #  define sample_cube(vec, id) texture_octahedron(shadowCubeTexture, vec4(vec, id)).r

2638  #  define sample_cascade(vec, id) texture(shadowCascadeTexture, vec3(vec, id)).r

2639  #else

2640  #  define ShadowSample float

2641  #  define sample_cube(vec, id) texture_octahedron(shadowCubeTexture, vec4(vec, id)).r

2642  #  define sample_cascade(vec, id) texture(shadowCascadeTexture, vec3(vec, id)).r

2643  #endif

2644  

2645  #if defined(SHADOW_VSM)

2646  #  define get_depth_delta(dist, s) (dist - s.x)

2647  #else

2648  #  define get_depth_delta(dist, s) (dist - s)

2649  #endif

2650  

2651    /* ----------------------------------------------------------- */

2652    /* ----------------------- Shadow tests ---------------------- */

2653    /* ----------------------------------------------------------- */

2654  

2655  #if defined(SHADOW_VSM)

2656  

2657  float shadow_test(ShadowSample moments, float dist, ShadowData sd)

2658  {

2659    float p = 0.0;

2660  

2661    if (dist <= moments.x) {

2662      p = 1.0;

2663    }

2664  

2665    float variance = moments.y - (moments.x * moments.x);

2666    variance = max(variance, sd.sh_bias / 10.0);

2667  

2668    float d = moments.x - dist;

2669    float p_max = variance / (variance + d * d);

2670  

2671    /* Now reduce light-bleeding by removing the [0, x] tail and linearly rescaling (x, 1] */

2672    p_max = clamp((p_max - sd.sh_bleed) / (1.0 - sd.sh_bleed), 0.0, 1.0);

2673  

2674    return max(p, p_max);

2675  }

2676  

2677  #elif defined(SHADOW_ESM)

2678  

2679  float shadow_test(ShadowSample z, float dist, ShadowData sd)

2680  {

2681    return saturate(exp(sd.sh_exp * (z - dist + sd.sh_bias)));

2682  }

2683  

2684  #else

2685  

2686  float shadow_test(ShadowSample z, float dist, ShadowData sd)

2687  {

2688    return step(0, z - dist + sd.sh_bias);

2689  }

2690  

2691  #endif

2692  

2693  /* ----------------------------------------------------------- */

2694  /* ----------------------- Shadow types ---------------------- */

2695  /* ----------------------------------------------------------- */

2696  

2697  float shadow_cubemap(ShadowData sd, ShadowCubeData scd, float texid, vec3 W)

2698  {

2699    vec3 cubevec = W - scd.position.xyz;

2700    float dist = length(cubevec);

2701  

2702    cubevec /= dist;

2703  

2704    ShadowSample s = sample_cube(cubevec, texid);

2705    return shadow_test(s, dist, sd);

2706  }

2707  

2708  float evaluate_cascade(ShadowData sd, mat4 shadowmat, vec3 W, float range, float texid)

2709  {

2710    vec4 shpos = shadowmat * vec4(W, 1.0);

2711    float dist = shpos.z * range;

2712  

2713    ShadowSample s = sample_cascade(shpos.xy, texid);

2714    float vis = shadow_test(s, dist, sd);

2715  

2716    /* If fragment is out of shadowmap range, do not occlude */

2717    if (shpos.z < 1.0 && shpos.z > 0.0) {

2718      return vis;

2719    }

2720    else {

2721      return 1.0;

2722    }

2723  }

2724  

2725  float shadow_cascade(ShadowData sd, int scd_id, float texid, vec3 W)

2726  {

2727    vec4 view_z = vec4(dot(W - cameraPos, cameraForward));

2728    vec4 weights = smoothstep(shadows_cascade_data[scd_id].split_end_distances,

2729                              shadows_cascade_data[scd_id].split_start_distances.yzwx,

2730                              view_z);

2731  

2732    weights.yzw -= weights.xyz;

2733  

2734    vec4 vis = vec4(1.0);

2735    float range = abs(sd.sh_far - sd.sh_near); /* Same factor as in get_cascade_world_distance(). */

2736  

2737    /* Branching using (weights > 0.0) is reaally slooow on intel so avoid it for now. */

2738    /* TODO OPTI: Only do 2 samples and blend. */

2739    vis.x = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[0], W, range, texid + 0);

2740    vis.y = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[1], W, range, texid + 1);

2741    vis.z = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[2], W, range, texid + 2);

2742    vis.w = evaluate_cascade(sd, shadows_cascade_data[scd_id].shadowmat[3], W, range, texid + 3);

2743  

2744    float weight_sum = dot(vec4(1.0), weights);

2745    if (weight_sum > 0.9999) {

2746      float vis_sum = dot(vec4(1.0), vis * weights);

2747      return vis_sum / weight_sum;

2748    }

2749    else {

2750      float vis_sum = dot(vec4(1.0), vis * step(0.001, weights));

2751      return mix(1.0, vis_sum, weight_sum);

2752    }

2753  }

2754  

2755  /* ----------------------------------------------------------- */

2756  /* --------------------- Light Functions --------------------- */

2757  /* ----------------------------------------------------------- */

2758  

2759  /* From Frostbite PBR Course

2760   * Distance based attenuation

2761   * http://www.frostbite.com/wp-content/uploads/2014/11/course_notes_moving_frostbite_to_pbr.pdf */

2762  float distance_attenuation(float dist_sqr, float inv_sqr_influence)

2763  {

2764    float factor = dist_sqr * inv_sqr_influence;

2765    float fac = saturate(1.0 - factor * factor);

2766    return fac * fac;

2767  }

2768  

2769  float spot_attenuation(LightData ld, vec3 l_vector)

2770  {

2771    float z = dot(ld.l_forward, l_vector.xyz);

2772    vec3 lL = l_vector.xyz / z;

2773    float x = dot(ld.l_right, lL) / ld.l_sizex;

2774    float y = dot(ld.l_up, lL) / ld.l_sizey;

2775    float ellipse = inversesqrt(1.0 + x * x + y * y);

2776    float spotmask = smoothstep(0.0, 1.0, (ellipse - ld.l_spot_size) / ld.l_spot_blend);

2777    return spotmask;

2778  }

2779  

2780  float light_visibility(LightData ld,

2781                         vec3 W,

2782  #ifndef VOLUMETRICS

2783                         vec3 viewPosition,

2784                         vec3 viewNormal,

2785  #endif

2786                         vec4 l_vector)

2787  {

2788    float vis = 1.0;

2789  

2790    if (ld.l_type == SPOT) {

2791      vis *= spot_attenuation(ld, l_vector.xyz);

2792    }

2793    if (ld.l_type >= SPOT) {

2794      vis *= step(0.0, -dot(l_vector.xyz, ld.l_forward));

2795    }

2796    if (ld.l_type != SUN) {

2797      vis *= distance_attenuation(l_vector.w * l_vector.w, ld.l_influence);

2798    }

2799  

2800  #if !defined(VOLUMETRICS) || defined(VOLUME_SHADOW)

2801    /* shadowing */

2802    if (ld.l_shadowid >= 0.0 && vis > 0.001) {

2803      ShadowData data = shadows_data[int(ld.l_shadowid)];

2804  

2805      if (ld.l_type == SUN) {

2806        vis *= shadow_cascade(data, int(data.sh_data_start), data.sh_tex_start, W);

2807      }

2808      else {

2809        vis *= shadow_cubemap(

2810            data, shadows_cube_data[int(data.sh_data_start)], data.sh_tex_start, W);

2811      }

2812  

2813  #  ifndef VOLUMETRICS

2814      /* Only compute if not already in shadow. */

2815      if (data.sh_contact_dist > 0.0) {

2816        vec4 L = (ld.l_type != SUN) ? l_vector : vec4(-ld.l_forward, 1.0);

2817        float trace_distance = (ld.l_type != SUN) ? min(data.sh_contact_dist, l_vector.w) :

2818                                                    data.sh_contact_dist;

2819  

2820        vec3 T, B;

2821        make_orthonormal_basis(L.xyz / L.w, T, B);

2822  

2823        vec4 rand = texelfetch_noise_tex(gl_FragCoord.xy);

2824        rand.zw *= fast_sqrt(rand.y) * data.sh_contact_spread;

2825  

2826        /* We use the full l_vector.xyz so that the spread is minimize

2827         * if the shading point is further away from the light source */

2828        vec3 ray_dir = L.xyz + T * rand.z + B * rand.w;

2829        ray_dir = transform_direction(ViewMatrix, ray_dir);

2830        ray_dir = normalize(ray_dir);

2831  

2832        vec3 ray_ori = viewPosition;

2833  

2834        if (dot(viewNormal, ray_dir) <= 0.0) {

2835          return vis;

2836        }

2837  

2838        float bias = 0.5;                            /* Constant Bias */

2839        bias += 1.0 - abs(dot(viewNormal, ray_dir)); /* Angle dependent bias */

2840        bias *= gl_FrontFacing ? data.sh_contact_offset : -data.sh_contact_offset;

2841  

2842        vec3 nor_bias = viewNormal * bias;

2843        ray_ori += nor_bias;

2844  

2845        ray_dir *= trace_distance;

2846        ray_dir -= nor_bias;

2847  

2848        vec3 hit_pos = raycast(

2849            -1, ray_ori, ray_dir, data.sh_contact_thickness, rand.x, 0.1, 0.001, false);

2850  

2851        if (hit_pos.z > 0.0) {

2852          hit_pos = get_view_space_from_depth(hit_pos.xy, hit_pos.z);

2853          float hit_dist = distance(viewPosition, hit_pos);

2854          float dist_ratio = hit_dist / trace_distance;

2855          return vis * saturate(dist_ratio * dist_ratio * dist_ratio);

2856        }

2857      }

2858  #  endif

2859    }

2860  #endif

2861  

2862    return vis;

2863  }

2864  

2865  #ifdef USE_LTC

2866  float light_diffuse(LightData ld, vec3 N, vec3 V, vec4 l_vector)

2867  {

2868    if (ld.l_type == AREA_RECT) {

2869      vec3 corners[4];

2870      corners[0] = normalize((l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * ld.l_sizey);

2871      corners[1] = normalize((l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * -ld.l_sizey);

2872      corners[2] = normalize((l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * -ld.l_sizey);

2873      corners[3] = normalize((l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * ld.l_sizey);

2874  

2875      return ltc_evaluate_quad(corners, N);

2876    }

2877    else if (ld.l_type == AREA_ELLIPSE) {

2878      vec3 points[3];

2879      points[0] = (l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * -ld.l_sizey;

2880      points[1] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * -ld.l_sizey;

2881      points[2] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * ld.l_sizey;

2882  

2883      return ltc_evaluate_disk(N, V, mat3(1.0), points);

2884    }

2885    else {

2886      float radius = ld.l_radius;

2887      radius /= (ld.l_type == SUN) ? 1.0 : l_vector.w;

2888      vec3 L = (ld.l_type == SUN) ? -ld.l_forward : (l_vector.xyz / l_vector.w);

2889  

2890      return ltc_evaluate_disk_simple(radius, dot(N, L));

2891    }

2892  }

2893  

2894  float light_specular(LightData ld, vec4 ltc_mat, vec3 N, vec3 V, vec4 l_vector)

2895  {

2896    if (ld.l_type == AREA_RECT) {

2897      vec3 corners[4];

2898      corners[0] = (l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * ld.l_sizey;

2899      corners[1] = (l_vector.xyz + ld.l_right * -ld.l_sizex) + ld.l_up * -ld.l_sizey;

2900      corners[2] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * -ld.l_sizey;

2901      corners[3] = (l_vector.xyz + ld.l_right * ld.l_sizex) + ld.l_up * ld.l_sizey;

2902  

2903      ltc_transform_quad(N, V, ltc_matrix(ltc_mat), corners);

2904  

2905      return ltc_evaluate_quad(corners, vec3(0.0, 0.0, 1.0));

2906    }

2907    else {

2908      bool is_ellipse = (ld.l_type == AREA_ELLIPSE);

2909      float radius_x = is_ellipse ? ld.l_sizex : ld.l_radius;

2910      float radius_y = is_ellipse ? ld.l_sizey : ld.l_radius;

2911  

2912      vec3 L = (ld.l_type == SUN) ? -ld.l_forward : l_vector.xyz;

2913      vec3 Px = ld.l_right;

2914      vec3 Py = ld.l_up;

2915  

2916      if (ld.l_type == SPOT || ld.l_type == POINT) {

2917        make_orthonormal_basis(l_vector.xyz / l_vector.w, Px, Py);

2918      }

2919  

2920      vec3 points[3];

2921      points[0] = (L + Px * -radius_x) + Py * -radius_y;

2922      points[1] = (L + Px * radius_x) + Py * -radius_y;

2923      points[2] = (L + Px * radius_x) + Py * radius_y;

2924  

2925      return ltc_evaluate_disk(N, V, ltc_matrix(ltc_mat), points);

2926    }

2927  }

2928  #endif

2929  

2930  #define MAX_SSS_SAMPLES 65

2931  #define SSS_LUT_SIZE 64.0

2932  #define SSS_LUT_SCALE ((SSS_LUT_SIZE - 1.0) / float(SSS_LUT_SIZE))

2933  #define SSS_LUT_BIAS (0.5 / float(SSS_LUT_SIZE))

2934  

2935  #ifdef USE_TRANSLUCENCY

2936  layout(std140) uniform sssProfile

2937  {

2938    vec4 kernel[MAX_SSS_SAMPLES];

2939    vec4 radii_max_radius;

2940    int sss_samples;

2941  };

2942  

2943  uniform sampler1D sssTexProfile;

2944  

2945  vec3 sss_profile(float s)

2946  {

2947    s /= radii_max_radius.w;

2948    return texture(sssTexProfile, saturate(s) * SSS_LUT_SCALE + SSS_LUT_BIAS).rgb;

2949  }

2950  #endif

2951  

2952  vec3 light_translucent(LightData ld, vec3 W, vec3 N, vec4 l_vector, float scale)

2953  {

2954  #if !defined(USE_TRANSLUCENCY) || defined(VOLUMETRICS)

2955    return vec3(0.0);

2956  #else

2957    vec3 vis = vec3(1.0);

2958  

2959    if (ld.l_type == SPOT) {

2960      vis *= spot_attenuation(ld, l_vector.xyz);

2961    }

2962    if (ld.l_type >= SPOT) {

2963      vis *= step(0.0, -dot(l_vector.xyz, ld.l_forward));

2964    }

2965    if (ld.l_type != SUN) {

2966      vis *= distance_attenuation(l_vector.w * l_vector.w, ld.l_influence);

2967    }

2968  

2969    /* Only shadowed light can produce translucency */

2970    if (ld.l_shadowid >= 0.0 && vis.x > 0.001) {

2971      ShadowData data = shadows_data[int(ld.l_shadowid)];

2972      float delta;

2973  

2974      vec4 L = (ld.l_type != SUN) ? l_vector : vec4(-ld.l_forward, 1.0);

2975  

2976      vec3 T, B;

2977      make_orthonormal_basis(L.xyz / L.w, T, B);

2978  

2979      vec4 rand = texelfetch_noise_tex(gl_FragCoord.xy);

2980      rand.zw *= fast_sqrt(rand.y) * data.sh_blur;

2981  

2982      /* We use the full l_vector.xyz so that the spread is minimize

2983       * if the shading point is further away from the light source */

2984      W = W + T * rand.z + B * rand.w;

2985  

2986      if (ld.l_type == SUN) {

2987        int scd_id = int(data.sh_data_start);

2988        vec4 view_z = vec4(dot(W - cameraPos, cameraForward));

2989  

2990        vec4 weights = step(shadows_cascade_data[scd_id].split_end_distances, view_z);

2991        float id = abs(4.0 - dot(weights, weights));

2992  

2993        if (id > 3.0) {

2994          return vec3(0.0);

2995        }

2996  

2997        float range = abs(data.sh_far -

2998                          data.sh_near); /* Same factor as in get_cascade_world_distance(). */

2999  

3000        vec4 shpos = shadows_cascade_data[scd_id].shadowmat[int(id)] * vec4(W, 1.0);

3001        float dist = shpos.z * range;

3002  

3003        if (shpos.z > 1.0 || shpos.z < 0.0) {

3004          return vec3(0.0);

3005        }

3006  

3007        ShadowSample s = sample_cascade(shpos.xy, data.sh_tex_start + id);

3008        delta = get_depth_delta(dist, s);

3009      }

3010      else {

3011        vec3 cubevec = W - shadows_cube_data[int(data.sh_data_start)].position.xyz;

3012        float dist = length(cubevec);

3013        cubevec /= dist;

3014  

3015        ShadowSample s = sample_cube(cubevec, data.sh_tex_start);

3016        delta = get_depth_delta(dist, s);

3017      }

3018  

3019      /* XXX : Removing Area Power. */

3020      /* TODO : put this out of the shader. */

3021      float falloff;

3022      if (ld.l_type == AREA_RECT || ld.l_type == AREA_ELLIPSE) {

3023        vis *= (ld.l_sizex * ld.l_sizey * 4.0 * M_PI) * (1.0 / 80.0);

3024        if (ld.l_type == AREA_ELLIPSE) {

3025          vis *= M_PI * 0.25;

3026        }

3027        vis *= 0.3 * 20.0 *

3028               max(0.0, dot(-ld.l_forward, l_vector.xyz / l_vector.w)); /* XXX ad hoc, empirical */

3029        vis /= (l_vector.w * l_vector.w);

3030        falloff = dot(N, l_vector.xyz / l_vector.w);

3031      }

3032      else if (ld.l_type == SUN) {

3033        vis /= 1.0f + (ld.l_radius * ld.l_radius * 0.5f);

3034        vis *= ld.l_radius * ld.l_radius * M_PI; /* Removing area light power*/

3035        vis *= M_2PI * 0.78;                     /* Matching cycles with point light. */

3036        vis *= 0.082;                            /* XXX ad hoc, empirical */

3037        falloff = dot(N, -ld.l_forward);

3038      }

3039      else {

3040        vis *= (4.0 * ld.l_radius * ld.l_radius) * (1.0 / 10.0);

3041        vis *= 1.5; /* XXX ad hoc, empirical */

3042        vis /= (l_vector.w * l_vector.w);

3043        falloff = dot(N, l_vector.xyz / l_vector.w);

3044      }

3045      // vis *= M_1_PI; /* Normalize */

3046  

3047      /* Applying profile */

3048      vis *= sss_profile(abs(delta) / scale);

3049  

3050      /* No transmittance at grazing angle (hide artifacts) */

3051      vis *= saturate(falloff * 2.0);

3052    }

3053    else {

3054      vis = vec3(0.0);

3055    }

3056  

3057    return vis;

3058  #endif

3059  }

3060  

3061  #ifndef LIT_SURFACE_UNIFORM

3062  #define LIT_SURFACE_UNIFORM

3063  

3064  uniform float refractionDepth;

3065  

3066  #ifndef UTIL_TEX

3067  #  define UTIL_TEX

3068  uniform sampler2DArray utilTex;

3069  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

3070  #endif /* UTIL_TEX */

3071  

3072  in vec3 worldPosition;

3073  in vec3 viewPosition;

3074  

3075  #ifdef USE_FLAT_NORMAL

3076  flat in vec3 worldNormal;

3077  flat in vec3 viewNormal;

3078  #else

3079  in vec3 worldNormal;

3080  in vec3 viewNormal;

3081  #endif

3082  

3083  #ifdef HAIR_SHADER

3084  in vec3 hairTangent; /* world space */

3085  in float hairThickTime;

3086  in float hairThickness;

3087  in float hairTime;

3088  flat in int hairStrandID;

3089  

3090  uniform int hairThicknessRes = 1;

3091  #endif

3092  

3093  #endif /* LIT_SURFACE_UNIFORM */

3094  

3095  /** AUTO CONFIG

3096   * We include the file multiple times each time with a different configuration.

3097   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

3098   */

3099  #if !defined(SURFACE_DEFAULT)

3100  #define SURFACE_DEFAULT

3101  #define CLOSURE_NAME eevee_closure_default

3102  #define CLOSURE_DIFFUSE

3103  #define CLOSURE_GLOSSY

3104  #endif /* SURFACE_DEFAULT */

3105  

3106  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

3107  #define SURFACE_PRINCIPLED

3108  #define CLOSURE_NAME eevee_closure_principled

3109  #define CLOSURE_DIFFUSE

3110  #define CLOSURE_GLOSSY

3111  #define CLOSURE_CLEARCOAT

3112  #define CLOSURE_REFRACTION

3113  #define CLOSURE_SUBSURFACE

3114  #endif /* SURFACE_PRINCIPLED */

3115  

3116  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

3117  #define SURFACE_CLEARCOAT

3118  #define CLOSURE_NAME eevee_closure_clearcoat

3119  #define CLOSURE_GLOSSY

3120  #define CLOSURE_CLEARCOAT

3121  #endif /* SURFACE_CLEARCOAT */

3122  

3123  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

3124  #define SURFACE_DIFFUSE

3125  #define CLOSURE_NAME eevee_closure_diffuse

3126  #define CLOSURE_DIFFUSE

3127  #endif /* SURFACE_DIFFUSE */

3128  

3129  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

3130  #define SURFACE_SUBSURFACE

3131  #define CLOSURE_NAME eevee_closure_subsurface

3132  #define CLOSURE_DIFFUSE

3133  #define CLOSURE_SUBSURFACE

3134  #endif /* SURFACE_SUBSURFACE */

3135  

3136  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

3137  #define SURFACE_SKIN

3138  #define CLOSURE_NAME eevee_closure_skin

3139  #define CLOSURE_DIFFUSE

3140  #define CLOSURE_SUBSURFACE

3141  #define CLOSURE_GLOSSY

3142  #endif /* SURFACE_SKIN */

3143  

3144  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

3145  #define SURFACE_GLOSSY

3146  #define CLOSURE_NAME eevee_closure_glossy

3147  #define CLOSURE_GLOSSY

3148  #endif /* SURFACE_GLOSSY */

3149  

3150  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

3151  #define SURFACE_REFRACT

3152  #define CLOSURE_NAME eevee_closure_refraction

3153  #define CLOSURE_REFRACTION

3154  #endif /* SURFACE_REFRACT */

3155  

3156  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

3157  #define SURFACE_GLASS

3158  #define CLOSURE_NAME eevee_closure_glass

3159  #define CLOSURE_GLOSSY

3160  #define CLOSURE_REFRACTION

3161  #endif /* SURFACE_GLASS */

3162  

3163  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

3164  #ifdef CLOSURE_CLEARCOAT

3165  #ifndef CLOSURE_GLOSSY

3166  #  define CLOSURE_GLOSSY

3167  #endif

3168  #endif /* CLOSURE_CLEARCOAT */

3169  

3170  void CLOSURE_NAME(vec3 N

3171  #ifdef CLOSURE_DIFFUSE

3172                    ,

3173                    vec3 albedo

3174  #endif

3175  #ifdef CLOSURE_GLOSSY

3176                    ,

3177                    vec3 f0,

3178                    int ssr_id

3179  #endif

3180  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3181                    ,

3182                    float roughness

3183  #endif

3184  #ifdef CLOSURE_CLEARCOAT

3185                    ,

3186                    vec3 C_N,

3187                    float C_intensity,

3188                    float C_roughness

3189  #endif

3190  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

3191                    ,

3192                    float ao

3193  #endif

3194  #ifdef CLOSURE_SUBSURFACE

3195                    ,

3196                    float sss_scale

3197  #endif

3198  #ifdef CLOSURE_REFRACTION

3199                    ,

3200                    float ior

3201  #endif

3202  #ifdef CLOSURE_DIFFUSE

3203                    ,

3204                    out vec3 out_diff

3205  #endif

3206  #ifdef CLOSURE_SUBSURFACE

3207                    ,

3208                    out vec3 out_trans

3209  #endif

3210  #ifdef CLOSURE_GLOSSY

3211                    ,

3212                    out vec3 out_spec

3213  #endif

3214  #ifdef CLOSURE_REFRACTION

3215                    ,

3216                    out vec3 out_refr

3217  #endif

3218  #ifdef CLOSURE_GLOSSY

3219                    ,

3220                    out vec3 ssr_spec

3221  #endif

3222  )

3223  {

3224  #ifdef CLOSURE_DIFFUSE

3225    out_diff = vec3(0.0);

3226  #endif

3227  

3228  #ifdef CLOSURE_SUBSURFACE

3229    out_trans = vec3(0.0);

3230  #endif

3231  

3232  #ifdef CLOSURE_GLOSSY

3233    out_spec = vec3(0.0);

3234  #endif

3235  

3236  #ifdef CLOSURE_REFRACTION

3237    out_refr = vec3(0.0);

3238  #endif

3239  

3240  #ifdef SHADOW_SHADER

3241    return;

3242  #endif

3243  

3244    /* Zero length vectors cause issues, see: T51979. */

3245    float len = length(N);

3246    if (isnan(len)) {

3247      return;

3248    }

3249    N /= len;

3250  

3251  #ifdef CLOSURE_CLEARCOAT

3252    len = length(C_N);

3253    if (isnan(len)) {

3254      return;

3255    }

3256    C_N /= len;

3257  #endif

3258  

3259  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3260    roughness = clamp(roughness, 1e-8, 0.9999);

3261    float roughnessSquared = roughness * roughness;

3262  #endif

3263  

3264  #ifdef CLOSURE_CLEARCOAT

3265    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

3266    float C_roughnessSquared = C_roughness * C_roughness;

3267  #endif

3268  

3269    vec3 V = cameraVec;

3270  

3271    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

3272  

3273    /* ---------------------------------------------------------------- */

3274    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

3275    /* ---------------------------------------------------------------- */

3276  

3277  #ifdef CLOSURE_GLOSSY

3278    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

3279    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

3280  #endif

3281  

3282  #ifdef CLOSURE_CLEARCOAT

3283    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

3284    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

3285    vec3 out_spec_clear = vec3(0.0);

3286  #endif

3287  

3288    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

3289      LightData ld = lights_data[i];

3290  

3291      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

3292      l_vector.xyz = ld.l_position - worldPosition;

3293      l_vector.w = length(l_vector.xyz);

3294  

3295      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

3296  

3297      if (l_vis < 1e-8) {

3298        continue;

3299      }

3300  

3301      vec3 l_color_vis = ld.l_color * l_vis;

3302  

3303  #ifdef CLOSURE_DIFFUSE

3304      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

3305  #endif

3306  

3307  #ifdef CLOSURE_SUBSURFACE

3308      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

3309  #endif

3310  

3311  #ifdef CLOSURE_GLOSSY

3312      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

3313  #endif

3314  

3315  #ifdef CLOSURE_CLEARCOAT

3316      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

3317                        ld.l_spec;

3318  #endif

3319    }

3320  

3321  #ifdef CLOSURE_GLOSSY

3322    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

3323    out_spec *= F_area(f0, brdf_lut_lights.xy);

3324  #endif

3325  

3326  #ifdef CLOSURE_CLEARCOAT

3327    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

3328    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

3329    out_spec += out_spec_clear * C_intensity;

3330  #endif

3331  

3332    /* ---------------------------------------------------------------- */

3333    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

3334    /* ---------------------------------------------------------------- */

3335  

3336    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

3337  #ifdef CLOSURE_GLOSSY

3338    vec4 spec_accum = vec4(0.0);

3339  #endif

3340  

3341  #ifdef CLOSURE_CLEARCOAT

3342    vec4 C_spec_accum = vec4(0.0);

3343  #endif

3344  

3345  #ifdef CLOSURE_REFRACTION

3346    vec4 refr_accum = vec4(0.0);

3347  #endif

3348  

3349  #ifdef CLOSURE_GLOSSY

3350    /* ---------------------------- */

3351    /*      Planar Reflections      */

3352    /* ---------------------------- */

3353  

3354    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

3355      PlanarData pd = planars_data[i];

3356  

3357      /* Fade on geometric normal. */

3358      float fade = probe_attenuation_planar(

3359          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

3360  

3361      if (fade > 0.0) {

3362        if (!(ssrToggle && ssr_id == outputSsrId)) {

3363          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

3364          accumulate_light(spec, fade, spec_accum);

3365        }

3366  

3367  #ifdef CLOSURE_CLEARCOAT

3368        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

3369        accumulate_light(C_spec, fade, C_spec_accum);

3370  #endif

3371      }

3372    }

3373  #endif

3374  

3375  #ifdef CLOSURE_GLOSSY

3376    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

3377  #endif

3378  

3379  #ifdef CLOSURE_CLEARCOAT

3380    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

3381  #endif

3382  

3383  #ifdef CLOSURE_REFRACTION

3384    /* Refract the view vector using the depth heuristic.

3385     * Then later Refract a second time the already refracted

3386     * ray using the inverse ior. */

3387    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

3388    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

3389    vec3 refr_pos = (refractionDepth > 0.0) ?

3390                        line_plane_intersect(

3391                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

3392                        worldPosition;

3393    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

3394  #endif

3395  

3396  #ifdef CLOSURE_REFRACTION

3397  /* ---------------------------- */

3398  /*   Screen Space Refraction    */

3399  /* ---------------------------- */

3400  #ifdef USE_REFRACTION

3401    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

3402      /* Find approximated position of the 2nd refraction event. */

3403      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

3404                                                 viewPosition;

3405      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

3406      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

3407      accumulate_light(trans.rgb, trans.a, refr_accum);

3408    }

3409  #endif

3410  

3411  #endif

3412  

3413    /* ---------------------------- */

3414    /*       Specular probes        */

3415    /* ---------------------------- */

3416  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3417  

3418  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

3419  #  define GLASS_ACCUM 1

3420  #  define ACCUM min(refr_accum.a, spec_accum.a)

3421  #elif defined(CLOSURE_REFRACTION)

3422  #  define GLASS_ACCUM 0

3423  #  define ACCUM refr_accum.a

3424  #else

3425  #  define GLASS_ACCUM 0

3426  #  define ACCUM spec_accum.a

3427  #endif

3428  

3429    /* Starts at 1 because 0 is world probe */

3430    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

3431      float fade = probe_attenuation_cube(i, worldPosition);

3432  

3433      if (fade > 0.0) {

3434  

3435  #if GLASS_ACCUM

3436        if (spec_accum.a < 0.999) {

3437  #endif

3438  #ifdef CLOSURE_GLOSSY

3439          if (!(ssrToggle && ssr_id == outputSsrId)) {

3440            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

3441            accumulate_light(spec, fade, spec_accum);

3442          }

3443  #endif

3444  

3445  #ifdef CLOSURE_CLEARCOAT

3446          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

3447          accumulate_light(C_spec, fade, C_spec_accum);

3448  #endif

3449  #if GLASS_ACCUM

3450        }

3451  #endif

3452  

3453  #if GLASS_ACCUM

3454        if (refr_accum.a < 0.999) {

3455  #endif

3456  #ifdef CLOSURE_REFRACTION

3457          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

3458          accumulate_light(trans, fade, refr_accum);

3459  #endif

3460  #if GLASS_ACCUM

3461        }

3462  #endif

3463      }

3464    }

3465  

3466  #undef GLASS_ACCUM

3467  #undef ACCUM

3468  

3469  /* ---------------------------- */

3470  /*          World Probe         */

3471  /* ---------------------------- */

3472  #ifdef CLOSURE_GLOSSY

3473    if (spec_accum.a < 0.999) {

3474      if (!(ssrToggle && ssr_id == outputSsrId)) {

3475        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

3476        accumulate_light(spec, 1.0, spec_accum);

3477      }

3478  

3479  #  ifdef CLOSURE_CLEARCOAT

3480      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

3481      accumulate_light(C_spec, 1.0, C_spec_accum);

3482  #  endif

3483    }

3484  #endif

3485  

3486  #ifdef CLOSURE_REFRACTION

3487    if (refr_accum.a < 0.999) {

3488      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

3489      accumulate_light(trans, 1.0, refr_accum);

3490    }

3491  #endif

3492  #endif /* Specular probes */

3493  

3494    /* ---------------------------- */

3495    /*       Ambient Occlusion      */

3496    /* ---------------------------- */

3497  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

3498    vec3 bent_normal;

3499    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

3500  #endif

3501  

3502    /* ---------------------------- */

3503    /*        Specular Output       */

3504    /* ---------------------------- */

3505    float NV = dot(N, V);

3506  #ifdef CLOSURE_GLOSSY

3507    vec2 uv = lut_coords(NV, roughness);

3508    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

3509  

3510    /* This factor is outputted to be used by SSR in order

3511     * to match the intensity of the regular reflections. */

3512    ssr_spec = F_ibl(f0, brdf_lut);

3513    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

3514  

3515    /* The SSR pass recompute the occlusion to not apply it to the SSR */

3516    if (ssrToggle && ssr_id == outputSsrId) {

3517      spec_occlu = 1.0;

3518    }

3519  

3520    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

3521  #endif

3522  

3523  #ifdef CLOSURE_REFRACTION

3524    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

3525  

3526    out_refr += refr_accum.rgb * btdf;

3527  #endif

3528  

3529  #ifdef CLOSURE_CLEARCOAT

3530    NV = dot(C_N, V);

3531    vec2 C_uv = lut_coords(NV, C_roughness);

3532    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

3533    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

3534  

3535    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

3536  #endif

3537  

3538  #ifdef CLOSURE_GLOSSY

3539    /* Global toggle for lightprobe baking. */

3540    out_spec *= float(specToggle);

3541  #endif

3542  

3543    /* ---------------------------------------------------------------- */

3544    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

3545    /* ---------------------------------------------------------------- */

3546  

3547    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

3548  #ifdef CLOSURE_DIFFUSE

3549    vec4 diff_accum = vec4(0.0);

3550  

3551    /* ---------------------------- */

3552    /*       Irradiance Grids       */

3553    /* ---------------------------- */

3554    /* Start at 1 because 0 is world irradiance */

3555    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

3556      GridData gd = grids_data[i];

3557  

3558      vec3 localpos;

3559      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

3560  

3561      if (fade > 0.0) {

3562        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

3563        accumulate_light(diff, fade, diff_accum);

3564      }

3565    }

3566  

3567    /* ---------------------------- */

3568    /*        World Diffuse         */

3569    /* ---------------------------- */

3570    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

3571      vec3 diff = probe_evaluate_world_diff(bent_normal);

3572      accumulate_light(diff, 1.0, diff_accum);

3573    }

3574  

3575    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

3576  #endif

3577  }

3578  

3579  /* Cleanup for next configuration */

3580  #undef CLOSURE_NAME

3581  

3582  #ifdef CLOSURE_DIFFUSE

3583  #undef CLOSURE_DIFFUSE

3584  #endif

3585  

3586  #ifdef CLOSURE_GLOSSY

3587  #undef CLOSURE_GLOSSY

3588  #endif

3589  

3590  #ifdef CLOSURE_CLEARCOAT

3591  #undef CLOSURE_CLEARCOAT

3592  #endif

3593  

3594  #ifdef CLOSURE_REFRACTION

3595  #undef CLOSURE_REFRACTION

3596  #endif

3597  

3598  #ifdef CLOSURE_SUBSURFACE

3599  #undef CLOSURE_SUBSURFACE

3600  #endif

3601  

3602  #ifndef LIT_SURFACE_UNIFORM

3603  #define LIT_SURFACE_UNIFORM

3604  

3605  uniform float refractionDepth;

3606  

3607  #ifndef UTIL_TEX

3608  #  define UTIL_TEX

3609  uniform sampler2DArray utilTex;

3610  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

3611  #endif /* UTIL_TEX */

3612  

3613  in vec3 worldPosition;

3614  in vec3 viewPosition;

3615  

3616  #ifdef USE_FLAT_NORMAL

3617  flat in vec3 worldNormal;

3618  flat in vec3 viewNormal;

3619  #else

3620  in vec3 worldNormal;

3621  in vec3 viewNormal;

3622  #endif

3623  

3624  #ifdef HAIR_SHADER

3625  in vec3 hairTangent; /* world space */

3626  in float hairThickTime;

3627  in float hairThickness;

3628  in float hairTime;

3629  flat in int hairStrandID;

3630  

3631  uniform int hairThicknessRes = 1;

3632  #endif

3633  

3634  #endif /* LIT_SURFACE_UNIFORM */

3635  

3636  /** AUTO CONFIG

3637   * We include the file multiple times each time with a different configuration.

3638   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

3639   */

3640  #if !defined(SURFACE_DEFAULT)

3641  #define SURFACE_DEFAULT

3642  #define CLOSURE_NAME eevee_closure_default

3643  #define CLOSURE_DIFFUSE

3644  #define CLOSURE_GLOSSY

3645  #endif /* SURFACE_DEFAULT */

3646  

3647  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

3648  #define SURFACE_PRINCIPLED

3649  #define CLOSURE_NAME eevee_closure_principled

3650  #define CLOSURE_DIFFUSE

3651  #define CLOSURE_GLOSSY

3652  #define CLOSURE_CLEARCOAT

3653  #define CLOSURE_REFRACTION

3654  #define CLOSURE_SUBSURFACE

3655  #endif /* SURFACE_PRINCIPLED */

3656  

3657  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

3658  #define SURFACE_CLEARCOAT

3659  #define CLOSURE_NAME eevee_closure_clearcoat

3660  #define CLOSURE_GLOSSY

3661  #define CLOSURE_CLEARCOAT

3662  #endif /* SURFACE_CLEARCOAT */

3663  

3664  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

3665  #define SURFACE_DIFFUSE

3666  #define CLOSURE_NAME eevee_closure_diffuse

3667  #define CLOSURE_DIFFUSE

3668  #endif /* SURFACE_DIFFUSE */

3669  

3670  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

3671  #define SURFACE_SUBSURFACE

3672  #define CLOSURE_NAME eevee_closure_subsurface

3673  #define CLOSURE_DIFFUSE

3674  #define CLOSURE_SUBSURFACE

3675  #endif /* SURFACE_SUBSURFACE */

3676  

3677  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

3678  #define SURFACE_SKIN

3679  #define CLOSURE_NAME eevee_closure_skin

3680  #define CLOSURE_DIFFUSE

3681  #define CLOSURE_SUBSURFACE

3682  #define CLOSURE_GLOSSY

3683  #endif /* SURFACE_SKIN */

3684  

3685  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

3686  #define SURFACE_GLOSSY

3687  #define CLOSURE_NAME eevee_closure_glossy

3688  #define CLOSURE_GLOSSY

3689  #endif /* SURFACE_GLOSSY */

3690  

3691  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

3692  #define SURFACE_REFRACT

3693  #define CLOSURE_NAME eevee_closure_refraction

3694  #define CLOSURE_REFRACTION

3695  #endif /* SURFACE_REFRACT */

3696  

3697  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

3698  #define SURFACE_GLASS

3699  #define CLOSURE_NAME eevee_closure_glass

3700  #define CLOSURE_GLOSSY

3701  #define CLOSURE_REFRACTION

3702  #endif /* SURFACE_GLASS */

3703  

3704  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

3705  #ifdef CLOSURE_CLEARCOAT

3706  #ifndef CLOSURE_GLOSSY

3707  #  define CLOSURE_GLOSSY

3708  #endif

3709  #endif /* CLOSURE_CLEARCOAT */

3710  

3711  void CLOSURE_NAME(vec3 N

3712  #ifdef CLOSURE_DIFFUSE

3713                    ,

3714                    vec3 albedo

3715  #endif

3716  #ifdef CLOSURE_GLOSSY

3717                    ,

3718                    vec3 f0,

3719                    int ssr_id

3720  #endif

3721  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3722                    ,

3723                    float roughness

3724  #endif

3725  #ifdef CLOSURE_CLEARCOAT

3726                    ,

3727                    vec3 C_N,

3728                    float C_intensity,

3729                    float C_roughness

3730  #endif

3731  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

3732                    ,

3733                    float ao

3734  #endif

3735  #ifdef CLOSURE_SUBSURFACE

3736                    ,

3737                    float sss_scale

3738  #endif

3739  #ifdef CLOSURE_REFRACTION

3740                    ,

3741                    float ior

3742  #endif

3743  #ifdef CLOSURE_DIFFUSE

3744                    ,

3745                    out vec3 out_diff

3746  #endif

3747  #ifdef CLOSURE_SUBSURFACE

3748                    ,

3749                    out vec3 out_trans

3750  #endif

3751  #ifdef CLOSURE_GLOSSY

3752                    ,

3753                    out vec3 out_spec

3754  #endif

3755  #ifdef CLOSURE_REFRACTION

3756                    ,

3757                    out vec3 out_refr

3758  #endif

3759  #ifdef CLOSURE_GLOSSY

3760                    ,

3761                    out vec3 ssr_spec

3762  #endif

3763  )

3764  {

3765  #ifdef CLOSURE_DIFFUSE

3766    out_diff = vec3(0.0);

3767  #endif

3768  

3769  #ifdef CLOSURE_SUBSURFACE

3770    out_trans = vec3(0.0);

3771  #endif

3772  

3773  #ifdef CLOSURE_GLOSSY

3774    out_spec = vec3(0.0);

3775  #endif

3776  

3777  #ifdef CLOSURE_REFRACTION

3778    out_refr = vec3(0.0);

3779  #endif

3780  

3781  #ifdef SHADOW_SHADER

3782    return;

3783  #endif

3784  

3785    /* Zero length vectors cause issues, see: T51979. */

3786    float len = length(N);

3787    if (isnan(len)) {

3788      return;

3789    }

3790    N /= len;

3791  

3792  #ifdef CLOSURE_CLEARCOAT

3793    len = length(C_N);

3794    if (isnan(len)) {

3795      return;

3796    }

3797    C_N /= len;

3798  #endif

3799  

3800  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3801    roughness = clamp(roughness, 1e-8, 0.9999);

3802    float roughnessSquared = roughness * roughness;

3803  #endif

3804  

3805  #ifdef CLOSURE_CLEARCOAT

3806    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

3807    float C_roughnessSquared = C_roughness * C_roughness;

3808  #endif

3809  

3810    vec3 V = cameraVec;

3811  

3812    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

3813  

3814    /* ---------------------------------------------------------------- */

3815    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

3816    /* ---------------------------------------------------------------- */

3817  

3818  #ifdef CLOSURE_GLOSSY

3819    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

3820    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

3821  #endif

3822  

3823  #ifdef CLOSURE_CLEARCOAT

3824    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

3825    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

3826    vec3 out_spec_clear = vec3(0.0);

3827  #endif

3828  

3829    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

3830      LightData ld = lights_data[i];

3831  

3832      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

3833      l_vector.xyz = ld.l_position - worldPosition;

3834      l_vector.w = length(l_vector.xyz);

3835  

3836      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

3837  

3838      if (l_vis < 1e-8) {

3839        continue;

3840      }

3841  

3842      vec3 l_color_vis = ld.l_color * l_vis;

3843  

3844  #ifdef CLOSURE_DIFFUSE

3845      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

3846  #endif

3847  

3848  #ifdef CLOSURE_SUBSURFACE

3849      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

3850  #endif

3851  

3852  #ifdef CLOSURE_GLOSSY

3853      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

3854  #endif

3855  

3856  #ifdef CLOSURE_CLEARCOAT

3857      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

3858                        ld.l_spec;

3859  #endif

3860    }

3861  

3862  #ifdef CLOSURE_GLOSSY

3863    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

3864    out_spec *= F_area(f0, brdf_lut_lights.xy);

3865  #endif

3866  

3867  #ifdef CLOSURE_CLEARCOAT

3868    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

3869    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

3870    out_spec += out_spec_clear * C_intensity;

3871  #endif

3872  

3873    /* ---------------------------------------------------------------- */

3874    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

3875    /* ---------------------------------------------------------------- */

3876  

3877    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

3878  #ifdef CLOSURE_GLOSSY

3879    vec4 spec_accum = vec4(0.0);

3880  #endif

3881  

3882  #ifdef CLOSURE_CLEARCOAT

3883    vec4 C_spec_accum = vec4(0.0);

3884  #endif

3885  

3886  #ifdef CLOSURE_REFRACTION

3887    vec4 refr_accum = vec4(0.0);

3888  #endif

3889  

3890  #ifdef CLOSURE_GLOSSY

3891    /* ---------------------------- */

3892    /*      Planar Reflections      */

3893    /* ---------------------------- */

3894  

3895    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

3896      PlanarData pd = planars_data[i];

3897  

3898      /* Fade on geometric normal. */

3899      float fade = probe_attenuation_planar(

3900          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

3901  

3902      if (fade > 0.0) {

3903        if (!(ssrToggle && ssr_id == outputSsrId)) {

3904          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

3905          accumulate_light(spec, fade, spec_accum);

3906        }

3907  

3908  #ifdef CLOSURE_CLEARCOAT

3909        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

3910        accumulate_light(C_spec, fade, C_spec_accum);

3911  #endif

3912      }

3913    }

3914  #endif

3915  

3916  #ifdef CLOSURE_GLOSSY

3917    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

3918  #endif

3919  

3920  #ifdef CLOSURE_CLEARCOAT

3921    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

3922  #endif

3923  

3924  #ifdef CLOSURE_REFRACTION

3925    /* Refract the view vector using the depth heuristic.

3926     * Then later Refract a second time the already refracted

3927     * ray using the inverse ior. */

3928    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

3929    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

3930    vec3 refr_pos = (refractionDepth > 0.0) ?

3931                        line_plane_intersect(

3932                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

3933                        worldPosition;

3934    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

3935  #endif

3936  

3937  #ifdef CLOSURE_REFRACTION

3938  /* ---------------------------- */

3939  /*   Screen Space Refraction    */

3940  /* ---------------------------- */

3941  #ifdef USE_REFRACTION

3942    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

3943      /* Find approximated position of the 2nd refraction event. */

3944      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

3945                                                 viewPosition;

3946      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

3947      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

3948      accumulate_light(trans.rgb, trans.a, refr_accum);

3949    }

3950  #endif

3951  

3952  #endif

3953  

3954    /* ---------------------------- */

3955    /*       Specular probes        */

3956    /* ---------------------------- */

3957  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

3958  

3959  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

3960  #  define GLASS_ACCUM 1

3961  #  define ACCUM min(refr_accum.a, spec_accum.a)

3962  #elif defined(CLOSURE_REFRACTION)

3963  #  define GLASS_ACCUM 0

3964  #  define ACCUM refr_accum.a

3965  #else

3966  #  define GLASS_ACCUM 0

3967  #  define ACCUM spec_accum.a

3968  #endif

3969  

3970    /* Starts at 1 because 0 is world probe */

3971    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

3972      float fade = probe_attenuation_cube(i, worldPosition);

3973  

3974      if (fade > 0.0) {

3975  

3976  #if GLASS_ACCUM

3977        if (spec_accum.a < 0.999) {

3978  #endif

3979  #ifdef CLOSURE_GLOSSY

3980          if (!(ssrToggle && ssr_id == outputSsrId)) {

3981            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

3982            accumulate_light(spec, fade, spec_accum);

3983          }

3984  #endif

3985  

3986  #ifdef CLOSURE_CLEARCOAT

3987          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

3988          accumulate_light(C_spec, fade, C_spec_accum);

3989  #endif

3990  #if GLASS_ACCUM

3991        }

3992  #endif

3993  

3994  #if GLASS_ACCUM

3995        if (refr_accum.a < 0.999) {

3996  #endif

3997  #ifdef CLOSURE_REFRACTION

3998          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

3999          accumulate_light(trans, fade, refr_accum);

4000  #endif

4001  #if GLASS_ACCUM

4002        }

4003  #endif

4004      }

4005    }

4006  

4007  #undef GLASS_ACCUM

4008  #undef ACCUM

4009  

4010  /* ---------------------------- */

4011  /*          World Probe         */

4012  /* ---------------------------- */

4013  #ifdef CLOSURE_GLOSSY

4014    if (spec_accum.a < 0.999) {

4015      if (!(ssrToggle && ssr_id == outputSsrId)) {

4016        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

4017        accumulate_light(spec, 1.0, spec_accum);

4018      }

4019  

4020  #  ifdef CLOSURE_CLEARCOAT

4021      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

4022      accumulate_light(C_spec, 1.0, C_spec_accum);

4023  #  endif

4024    }

4025  #endif

4026  

4027  #ifdef CLOSURE_REFRACTION

4028    if (refr_accum.a < 0.999) {

4029      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

4030      accumulate_light(trans, 1.0, refr_accum);

4031    }

4032  #endif

4033  #endif /* Specular probes */

4034  

4035    /* ---------------------------- */

4036    /*       Ambient Occlusion      */

4037    /* ---------------------------- */

4038  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4039    vec3 bent_normal;

4040    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

4041  #endif

4042  

4043    /* ---------------------------- */

4044    /*        Specular Output       */

4045    /* ---------------------------- */

4046    float NV = dot(N, V);

4047  #ifdef CLOSURE_GLOSSY

4048    vec2 uv = lut_coords(NV, roughness);

4049    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

4050  

4051    /* This factor is outputted to be used by SSR in order

4052     * to match the intensity of the regular reflections. */

4053    ssr_spec = F_ibl(f0, brdf_lut);

4054    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

4055  

4056    /* The SSR pass recompute the occlusion to not apply it to the SSR */

4057    if (ssrToggle && ssr_id == outputSsrId) {

4058      spec_occlu = 1.0;

4059    }

4060  

4061    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

4062  #endif

4063  

4064  #ifdef CLOSURE_REFRACTION

4065    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

4066  

4067    out_refr += refr_accum.rgb * btdf;

4068  #endif

4069  

4070  #ifdef CLOSURE_CLEARCOAT

4071    NV = dot(C_N, V);

4072    vec2 C_uv = lut_coords(NV, C_roughness);

4073    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

4074    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

4075  

4076    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

4077  #endif

4078  

4079  #ifdef CLOSURE_GLOSSY

4080    /* Global toggle for lightprobe baking. */

4081    out_spec *= float(specToggle);

4082  #endif

4083  

4084    /* ---------------------------------------------------------------- */

4085    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

4086    /* ---------------------------------------------------------------- */

4087  

4088    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4089  #ifdef CLOSURE_DIFFUSE

4090    vec4 diff_accum = vec4(0.0);

4091  

4092    /* ---------------------------- */

4093    /*       Irradiance Grids       */

4094    /* ---------------------------- */

4095    /* Start at 1 because 0 is world irradiance */

4096    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

4097      GridData gd = grids_data[i];

4098  

4099      vec3 localpos;

4100      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

4101  

4102      if (fade > 0.0) {

4103        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

4104        accumulate_light(diff, fade, diff_accum);

4105      }

4106    }

4107  

4108    /* ---------------------------- */

4109    /*        World Diffuse         */

4110    /* ---------------------------- */

4111    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

4112      vec3 diff = probe_evaluate_world_diff(bent_normal);

4113      accumulate_light(diff, 1.0, diff_accum);

4114    }

4115  

4116    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

4117  #endif

4118  }

4119  

4120  /* Cleanup for next configuration */

4121  #undef CLOSURE_NAME

4122  

4123  #ifdef CLOSURE_DIFFUSE

4124  #undef CLOSURE_DIFFUSE

4125  #endif

4126  

4127  #ifdef CLOSURE_GLOSSY

4128  #undef CLOSURE_GLOSSY

4129  #endif

4130  

4131  #ifdef CLOSURE_CLEARCOAT

4132  #undef CLOSURE_CLEARCOAT

4133  #endif

4134  

4135  #ifdef CLOSURE_REFRACTION

4136  #undef CLOSURE_REFRACTION

4137  #endif

4138  

4139  #ifdef CLOSURE_SUBSURFACE

4140  #undef CLOSURE_SUBSURFACE

4141  #endif

4142  

4143  #ifndef LIT_SURFACE_UNIFORM

4144  #define LIT_SURFACE_UNIFORM

4145  

4146  uniform float refractionDepth;

4147  

4148  #ifndef UTIL_TEX

4149  #  define UTIL_TEX

4150  uniform sampler2DArray utilTex;

4151  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

4152  #endif /* UTIL_TEX */

4153  

4154  in vec3 worldPosition;

4155  in vec3 viewPosition;

4156  

4157  #ifdef USE_FLAT_NORMAL

4158  flat in vec3 worldNormal;

4159  flat in vec3 viewNormal;

4160  #else

4161  in vec3 worldNormal;

4162  in vec3 viewNormal;

4163  #endif

4164  

4165  #ifdef HAIR_SHADER

4166  in vec3 hairTangent; /* world space */

4167  in float hairThickTime;

4168  in float hairThickness;

4169  in float hairTime;

4170  flat in int hairStrandID;

4171  

4172  uniform int hairThicknessRes = 1;

4173  #endif

4174  

4175  #endif /* LIT_SURFACE_UNIFORM */

4176  

4177  /** AUTO CONFIG

4178   * We include the file multiple times each time with a different configuration.

4179   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

4180   */

4181  #if !defined(SURFACE_DEFAULT)

4182  #define SURFACE_DEFAULT

4183  #define CLOSURE_NAME eevee_closure_default

4184  #define CLOSURE_DIFFUSE

4185  #define CLOSURE_GLOSSY

4186  #endif /* SURFACE_DEFAULT */

4187  

4188  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

4189  #define SURFACE_PRINCIPLED

4190  #define CLOSURE_NAME eevee_closure_principled

4191  #define CLOSURE_DIFFUSE

4192  #define CLOSURE_GLOSSY

4193  #define CLOSURE_CLEARCOAT

4194  #define CLOSURE_REFRACTION

4195  #define CLOSURE_SUBSURFACE

4196  #endif /* SURFACE_PRINCIPLED */

4197  

4198  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

4199  #define SURFACE_CLEARCOAT

4200  #define CLOSURE_NAME eevee_closure_clearcoat

4201  #define CLOSURE_GLOSSY

4202  #define CLOSURE_CLEARCOAT

4203  #endif /* SURFACE_CLEARCOAT */

4204  

4205  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

4206  #define SURFACE_DIFFUSE

4207  #define CLOSURE_NAME eevee_closure_diffuse

4208  #define CLOSURE_DIFFUSE

4209  #endif /* SURFACE_DIFFUSE */

4210  

4211  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

4212  #define SURFACE_SUBSURFACE

4213  #define CLOSURE_NAME eevee_closure_subsurface

4214  #define CLOSURE_DIFFUSE

4215  #define CLOSURE_SUBSURFACE

4216  #endif /* SURFACE_SUBSURFACE */

4217  

4218  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

4219  #define SURFACE_SKIN

4220  #define CLOSURE_NAME eevee_closure_skin

4221  #define CLOSURE_DIFFUSE

4222  #define CLOSURE_SUBSURFACE

4223  #define CLOSURE_GLOSSY

4224  #endif /* SURFACE_SKIN */

4225  

4226  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

4227  #define SURFACE_GLOSSY

4228  #define CLOSURE_NAME eevee_closure_glossy

4229  #define CLOSURE_GLOSSY

4230  #endif /* SURFACE_GLOSSY */

4231  

4232  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

4233  #define SURFACE_REFRACT

4234  #define CLOSURE_NAME eevee_closure_refraction

4235  #define CLOSURE_REFRACTION

4236  #endif /* SURFACE_REFRACT */

4237  

4238  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

4239  #define SURFACE_GLASS

4240  #define CLOSURE_NAME eevee_closure_glass

4241  #define CLOSURE_GLOSSY

4242  #define CLOSURE_REFRACTION

4243  #endif /* SURFACE_GLASS */

4244  

4245  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

4246  #ifdef CLOSURE_CLEARCOAT

4247  #ifndef CLOSURE_GLOSSY

4248  #  define CLOSURE_GLOSSY

4249  #endif

4250  #endif /* CLOSURE_CLEARCOAT */

4251  

4252  void CLOSURE_NAME(vec3 N

4253  #ifdef CLOSURE_DIFFUSE

4254                    ,

4255                    vec3 albedo

4256  #endif

4257  #ifdef CLOSURE_GLOSSY

4258                    ,

4259                    vec3 f0,

4260                    int ssr_id

4261  #endif

4262  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4263                    ,

4264                    float roughness

4265  #endif

4266  #ifdef CLOSURE_CLEARCOAT

4267                    ,

4268                    vec3 C_N,

4269                    float C_intensity,

4270                    float C_roughness

4271  #endif

4272  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4273                    ,

4274                    float ao

4275  #endif

4276  #ifdef CLOSURE_SUBSURFACE

4277                    ,

4278                    float sss_scale

4279  #endif

4280  #ifdef CLOSURE_REFRACTION

4281                    ,

4282                    float ior

4283  #endif

4284  #ifdef CLOSURE_DIFFUSE

4285                    ,

4286                    out vec3 out_diff

4287  #endif

4288  #ifdef CLOSURE_SUBSURFACE

4289                    ,

4290                    out vec3 out_trans

4291  #endif

4292  #ifdef CLOSURE_GLOSSY

4293                    ,

4294                    out vec3 out_spec

4295  #endif

4296  #ifdef CLOSURE_REFRACTION

4297                    ,

4298                    out vec3 out_refr

4299  #endif

4300  #ifdef CLOSURE_GLOSSY

4301                    ,

4302                    out vec3 ssr_spec

4303  #endif

4304  )

4305  {

4306  #ifdef CLOSURE_DIFFUSE

4307    out_diff = vec3(0.0);

4308  #endif

4309  

4310  #ifdef CLOSURE_SUBSURFACE

4311    out_trans = vec3(0.0);

4312  #endif

4313  

4314  #ifdef CLOSURE_GLOSSY

4315    out_spec = vec3(0.0);

4316  #endif

4317  

4318  #ifdef CLOSURE_REFRACTION

4319    out_refr = vec3(0.0);

4320  #endif

4321  

4322  #ifdef SHADOW_SHADER

4323    return;

4324  #endif

4325  

4326    /* Zero length vectors cause issues, see: T51979. */

4327    float len = length(N);

4328    if (isnan(len)) {

4329      return;

4330    }

4331    N /= len;

4332  

4333  #ifdef CLOSURE_CLEARCOAT

4334    len = length(C_N);

4335    if (isnan(len)) {

4336      return;

4337    }

4338    C_N /= len;

4339  #endif

4340  

4341  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4342    roughness = clamp(roughness, 1e-8, 0.9999);

4343    float roughnessSquared = roughness * roughness;

4344  #endif

4345  

4346  #ifdef CLOSURE_CLEARCOAT

4347    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

4348    float C_roughnessSquared = C_roughness * C_roughness;

4349  #endif

4350  

4351    vec3 V = cameraVec;

4352  

4353    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

4354  

4355    /* ---------------------------------------------------------------- */

4356    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

4357    /* ---------------------------------------------------------------- */

4358  

4359  #ifdef CLOSURE_GLOSSY

4360    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

4361    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

4362  #endif

4363  

4364  #ifdef CLOSURE_CLEARCOAT

4365    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

4366    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

4367    vec3 out_spec_clear = vec3(0.0);

4368  #endif

4369  

4370    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

4371      LightData ld = lights_data[i];

4372  

4373      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

4374      l_vector.xyz = ld.l_position - worldPosition;

4375      l_vector.w = length(l_vector.xyz);

4376  

4377      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

4378  

4379      if (l_vis < 1e-8) {

4380        continue;

4381      }

4382  

4383      vec3 l_color_vis = ld.l_color * l_vis;

4384  

4385  #ifdef CLOSURE_DIFFUSE

4386      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

4387  #endif

4388  

4389  #ifdef CLOSURE_SUBSURFACE

4390      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

4391  #endif

4392  

4393  #ifdef CLOSURE_GLOSSY

4394      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

4395  #endif

4396  

4397  #ifdef CLOSURE_CLEARCOAT

4398      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

4399                        ld.l_spec;

4400  #endif

4401    }

4402  

4403  #ifdef CLOSURE_GLOSSY

4404    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

4405    out_spec *= F_area(f0, brdf_lut_lights.xy);

4406  #endif

4407  

4408  #ifdef CLOSURE_CLEARCOAT

4409    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

4410    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

4411    out_spec += out_spec_clear * C_intensity;

4412  #endif

4413  

4414    /* ---------------------------------------------------------------- */

4415    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

4416    /* ---------------------------------------------------------------- */

4417  

4418    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4419  #ifdef CLOSURE_GLOSSY

4420    vec4 spec_accum = vec4(0.0);

4421  #endif

4422  

4423  #ifdef CLOSURE_CLEARCOAT

4424    vec4 C_spec_accum = vec4(0.0);

4425  #endif

4426  

4427  #ifdef CLOSURE_REFRACTION

4428    vec4 refr_accum = vec4(0.0);

4429  #endif

4430  

4431  #ifdef CLOSURE_GLOSSY

4432    /* ---------------------------- */

4433    /*      Planar Reflections      */

4434    /* ---------------------------- */

4435  

4436    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

4437      PlanarData pd = planars_data[i];

4438  

4439      /* Fade on geometric normal. */

4440      float fade = probe_attenuation_planar(

4441          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

4442  

4443      if (fade > 0.0) {

4444        if (!(ssrToggle && ssr_id == outputSsrId)) {

4445          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

4446          accumulate_light(spec, fade, spec_accum);

4447        }

4448  

4449  #ifdef CLOSURE_CLEARCOAT

4450        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

4451        accumulate_light(C_spec, fade, C_spec_accum);

4452  #endif

4453      }

4454    }

4455  #endif

4456  

4457  #ifdef CLOSURE_GLOSSY

4458    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

4459  #endif

4460  

4461  #ifdef CLOSURE_CLEARCOAT

4462    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

4463  #endif

4464  

4465  #ifdef CLOSURE_REFRACTION

4466    /* Refract the view vector using the depth heuristic.

4467     * Then later Refract a second time the already refracted

4468     * ray using the inverse ior. */

4469    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

4470    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

4471    vec3 refr_pos = (refractionDepth > 0.0) ?

4472                        line_plane_intersect(

4473                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

4474                        worldPosition;

4475    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

4476  #endif

4477  

4478  #ifdef CLOSURE_REFRACTION

4479  /* ---------------------------- */

4480  /*   Screen Space Refraction    */

4481  /* ---------------------------- */

4482  #ifdef USE_REFRACTION

4483    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

4484      /* Find approximated position of the 2nd refraction event. */

4485      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

4486                                                 viewPosition;

4487      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

4488      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

4489      accumulate_light(trans.rgb, trans.a, refr_accum);

4490    }

4491  #endif

4492  

4493  #endif

4494  

4495    /* ---------------------------- */

4496    /*       Specular probes        */

4497    /* ---------------------------- */

4498  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4499  

4500  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

4501  #  define GLASS_ACCUM 1

4502  #  define ACCUM min(refr_accum.a, spec_accum.a)

4503  #elif defined(CLOSURE_REFRACTION)

4504  #  define GLASS_ACCUM 0

4505  #  define ACCUM refr_accum.a

4506  #else

4507  #  define GLASS_ACCUM 0

4508  #  define ACCUM spec_accum.a

4509  #endif

4510  

4511    /* Starts at 1 because 0 is world probe */

4512    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

4513      float fade = probe_attenuation_cube(i, worldPosition);

4514  

4515      if (fade > 0.0) {

4516  

4517  #if GLASS_ACCUM

4518        if (spec_accum.a < 0.999) {

4519  #endif

4520  #ifdef CLOSURE_GLOSSY

4521          if (!(ssrToggle && ssr_id == outputSsrId)) {

4522            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

4523            accumulate_light(spec, fade, spec_accum);

4524          }

4525  #endif

4526  

4527  #ifdef CLOSURE_CLEARCOAT

4528          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

4529          accumulate_light(C_spec, fade, C_spec_accum);

4530  #endif

4531  #if GLASS_ACCUM

4532        }

4533  #endif

4534  

4535  #if GLASS_ACCUM

4536        if (refr_accum.a < 0.999) {

4537  #endif

4538  #ifdef CLOSURE_REFRACTION

4539          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

4540          accumulate_light(trans, fade, refr_accum);

4541  #endif

4542  #if GLASS_ACCUM

4543        }

4544  #endif

4545      }

4546    }

4547  

4548  #undef GLASS_ACCUM

4549  #undef ACCUM

4550  

4551  /* ---------------------------- */

4552  /*          World Probe         */

4553  /* ---------------------------- */

4554  #ifdef CLOSURE_GLOSSY

4555    if (spec_accum.a < 0.999) {

4556      if (!(ssrToggle && ssr_id == outputSsrId)) {

4557        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

4558        accumulate_light(spec, 1.0, spec_accum);

4559      }

4560  

4561  #  ifdef CLOSURE_CLEARCOAT

4562      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

4563      accumulate_light(C_spec, 1.0, C_spec_accum);

4564  #  endif

4565    }

4566  #endif

4567  

4568  #ifdef CLOSURE_REFRACTION

4569    if (refr_accum.a < 0.999) {

4570      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

4571      accumulate_light(trans, 1.0, refr_accum);

4572    }

4573  #endif

4574  #endif /* Specular probes */

4575  

4576    /* ---------------------------- */

4577    /*       Ambient Occlusion      */

4578    /* ---------------------------- */

4579  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4580    vec3 bent_normal;

4581    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

4582  #endif

4583  

4584    /* ---------------------------- */

4585    /*        Specular Output       */

4586    /* ---------------------------- */

4587    float NV = dot(N, V);

4588  #ifdef CLOSURE_GLOSSY

4589    vec2 uv = lut_coords(NV, roughness);

4590    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

4591  

4592    /* This factor is outputted to be used by SSR in order

4593     * to match the intensity of the regular reflections. */

4594    ssr_spec = F_ibl(f0, brdf_lut);

4595    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

4596  

4597    /* The SSR pass recompute the occlusion to not apply it to the SSR */

4598    if (ssrToggle && ssr_id == outputSsrId) {

4599      spec_occlu = 1.0;

4600    }

4601  

4602    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

4603  #endif

4604  

4605  #ifdef CLOSURE_REFRACTION

4606    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

4607  

4608    out_refr += refr_accum.rgb * btdf;

4609  #endif

4610  

4611  #ifdef CLOSURE_CLEARCOAT

4612    NV = dot(C_N, V);

4613    vec2 C_uv = lut_coords(NV, C_roughness);

4614    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

4615    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

4616  

4617    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

4618  #endif

4619  

4620  #ifdef CLOSURE_GLOSSY

4621    /* Global toggle for lightprobe baking. */

4622    out_spec *= float(specToggle);

4623  #endif

4624  

4625    /* ---------------------------------------------------------------- */

4626    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

4627    /* ---------------------------------------------------------------- */

4628  

4629    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4630  #ifdef CLOSURE_DIFFUSE

4631    vec4 diff_accum = vec4(0.0);

4632  

4633    /* ---------------------------- */

4634    /*       Irradiance Grids       */

4635    /* ---------------------------- */

4636    /* Start at 1 because 0 is world irradiance */

4637    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

4638      GridData gd = grids_data[i];

4639  

4640      vec3 localpos;

4641      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

4642  

4643      if (fade > 0.0) {

4644        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

4645        accumulate_light(diff, fade, diff_accum);

4646      }

4647    }

4648  

4649    /* ---------------------------- */

4650    /*        World Diffuse         */

4651    /* ---------------------------- */

4652    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

4653      vec3 diff = probe_evaluate_world_diff(bent_normal);

4654      accumulate_light(diff, 1.0, diff_accum);

4655    }

4656  

4657    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

4658  #endif

4659  }

4660  

4661  /* Cleanup for next configuration */

4662  #undef CLOSURE_NAME

4663  

4664  #ifdef CLOSURE_DIFFUSE

4665  #undef CLOSURE_DIFFUSE

4666  #endif

4667  

4668  #ifdef CLOSURE_GLOSSY

4669  #undef CLOSURE_GLOSSY

4670  #endif

4671  

4672  #ifdef CLOSURE_CLEARCOAT

4673  #undef CLOSURE_CLEARCOAT

4674  #endif

4675  

4676  #ifdef CLOSURE_REFRACTION

4677  #undef CLOSURE_REFRACTION

4678  #endif

4679  

4680  #ifdef CLOSURE_SUBSURFACE

4681  #undef CLOSURE_SUBSURFACE

4682  #endif

4683  

4684  #ifndef LIT_SURFACE_UNIFORM

4685  #define LIT_SURFACE_UNIFORM

4686  

4687  uniform float refractionDepth;

4688  

4689  #ifndef UTIL_TEX

4690  #  define UTIL_TEX

4691  uniform sampler2DArray utilTex;

4692  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

4693  #endif /* UTIL_TEX */

4694  

4695  in vec3 worldPosition;

4696  in vec3 viewPosition;

4697  

4698  #ifdef USE_FLAT_NORMAL

4699  flat in vec3 worldNormal;

4700  flat in vec3 viewNormal;

4701  #else

4702  in vec3 worldNormal;

4703  in vec3 viewNormal;

4704  #endif

4705  

4706  #ifdef HAIR_SHADER

4707  in vec3 hairTangent; /* world space */

4708  in float hairThickTime;

4709  in float hairThickness;

4710  in float hairTime;

4711  flat in int hairStrandID;

4712  

4713  uniform int hairThicknessRes = 1;

4714  #endif

4715  

4716  #endif /* LIT_SURFACE_UNIFORM */

4717  

4718  /** AUTO CONFIG

4719   * We include the file multiple times each time with a different configuration.

4720   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

4721   */

4722  #if !defined(SURFACE_DEFAULT)

4723  #define SURFACE_DEFAULT

4724  #define CLOSURE_NAME eevee_closure_default

4725  #define CLOSURE_DIFFUSE

4726  #define CLOSURE_GLOSSY

4727  #endif /* SURFACE_DEFAULT */

4728  

4729  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

4730  #define SURFACE_PRINCIPLED

4731  #define CLOSURE_NAME eevee_closure_principled

4732  #define CLOSURE_DIFFUSE

4733  #define CLOSURE_GLOSSY

4734  #define CLOSURE_CLEARCOAT

4735  #define CLOSURE_REFRACTION

4736  #define CLOSURE_SUBSURFACE

4737  #endif /* SURFACE_PRINCIPLED */

4738  

4739  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

4740  #define SURFACE_CLEARCOAT

4741  #define CLOSURE_NAME eevee_closure_clearcoat

4742  #define CLOSURE_GLOSSY

4743  #define CLOSURE_CLEARCOAT

4744  #endif /* SURFACE_CLEARCOAT */

4745  

4746  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

4747  #define SURFACE_DIFFUSE

4748  #define CLOSURE_NAME eevee_closure_diffuse

4749  #define CLOSURE_DIFFUSE

4750  #endif /* SURFACE_DIFFUSE */

4751  

4752  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

4753  #define SURFACE_SUBSURFACE

4754  #define CLOSURE_NAME eevee_closure_subsurface

4755  #define CLOSURE_DIFFUSE

4756  #define CLOSURE_SUBSURFACE

4757  #endif /* SURFACE_SUBSURFACE */

4758  

4759  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

4760  #define SURFACE_SKIN

4761  #define CLOSURE_NAME eevee_closure_skin

4762  #define CLOSURE_DIFFUSE

4763  #define CLOSURE_SUBSURFACE

4764  #define CLOSURE_GLOSSY

4765  #endif /* SURFACE_SKIN */

4766  

4767  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

4768  #define SURFACE_GLOSSY

4769  #define CLOSURE_NAME eevee_closure_glossy

4770  #define CLOSURE_GLOSSY

4771  #endif /* SURFACE_GLOSSY */

4772  

4773  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

4774  #define SURFACE_REFRACT

4775  #define CLOSURE_NAME eevee_closure_refraction

4776  #define CLOSURE_REFRACTION

4777  #endif /* SURFACE_REFRACT */

4778  

4779  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

4780  #define SURFACE_GLASS

4781  #define CLOSURE_NAME eevee_closure_glass

4782  #define CLOSURE_GLOSSY

4783  #define CLOSURE_REFRACTION

4784  #endif /* SURFACE_GLASS */

4785  

4786  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

4787  #ifdef CLOSURE_CLEARCOAT

4788  #ifndef CLOSURE_GLOSSY

4789  #  define CLOSURE_GLOSSY

4790  #endif

4791  #endif /* CLOSURE_CLEARCOAT */

4792  

4793  void CLOSURE_NAME(vec3 N

4794  #ifdef CLOSURE_DIFFUSE

4795                    ,

4796                    vec3 albedo

4797  #endif

4798  #ifdef CLOSURE_GLOSSY

4799                    ,

4800                    vec3 f0,

4801                    int ssr_id

4802  #endif

4803  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4804                    ,

4805                    float roughness

4806  #endif

4807  #ifdef CLOSURE_CLEARCOAT

4808                    ,

4809                    vec3 C_N,

4810                    float C_intensity,

4811                    float C_roughness

4812  #endif

4813  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

4814                    ,

4815                    float ao

4816  #endif

4817  #ifdef CLOSURE_SUBSURFACE

4818                    ,

4819                    float sss_scale

4820  #endif

4821  #ifdef CLOSURE_REFRACTION

4822                    ,

4823                    float ior

4824  #endif

4825  #ifdef CLOSURE_DIFFUSE

4826                    ,

4827                    out vec3 out_diff

4828  #endif

4829  #ifdef CLOSURE_SUBSURFACE

4830                    ,

4831                    out vec3 out_trans

4832  #endif

4833  #ifdef CLOSURE_GLOSSY

4834                    ,

4835                    out vec3 out_spec

4836  #endif

4837  #ifdef CLOSURE_REFRACTION

4838                    ,

4839                    out vec3 out_refr

4840  #endif

4841  #ifdef CLOSURE_GLOSSY

4842                    ,

4843                    out vec3 ssr_spec

4844  #endif

4845  )

4846  {

4847  #ifdef CLOSURE_DIFFUSE

4848    out_diff = vec3(0.0);

4849  #endif

4850  

4851  #ifdef CLOSURE_SUBSURFACE

4852    out_trans = vec3(0.0);

4853  #endif

4854  

4855  #ifdef CLOSURE_GLOSSY

4856    out_spec = vec3(0.0);

4857  #endif

4858  

4859  #ifdef CLOSURE_REFRACTION

4860    out_refr = vec3(0.0);

4861  #endif

4862  

4863  #ifdef SHADOW_SHADER

4864    return;

4865  #endif

4866  

4867    /* Zero length vectors cause issues, see: T51979. */

4868    float len = length(N);

4869    if (isnan(len)) {

4870      return;

4871    }

4872    N /= len;

4873  

4874  #ifdef CLOSURE_CLEARCOAT

4875    len = length(C_N);

4876    if (isnan(len)) {

4877      return;

4878    }

4879    C_N /= len;

4880  #endif

4881  

4882  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

4883    roughness = clamp(roughness, 1e-8, 0.9999);

4884    float roughnessSquared = roughness * roughness;

4885  #endif

4886  

4887  #ifdef CLOSURE_CLEARCOAT

4888    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

4889    float C_roughnessSquared = C_roughness * C_roughness;

4890  #endif

4891  

4892    vec3 V = cameraVec;

4893  

4894    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

4895  

4896    /* ---------------------------------------------------------------- */

4897    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

4898    /* ---------------------------------------------------------------- */

4899  

4900  #ifdef CLOSURE_GLOSSY

4901    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

4902    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

4903  #endif

4904  

4905  #ifdef CLOSURE_CLEARCOAT

4906    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

4907    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

4908    vec3 out_spec_clear = vec3(0.0);

4909  #endif

4910  

4911    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

4912      LightData ld = lights_data[i];

4913  

4914      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

4915      l_vector.xyz = ld.l_position - worldPosition;

4916      l_vector.w = length(l_vector.xyz);

4917  

4918      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

4919  

4920      if (l_vis < 1e-8) {

4921        continue;

4922      }

4923  

4924      vec3 l_color_vis = ld.l_color * l_vis;

4925  

4926  #ifdef CLOSURE_DIFFUSE

4927      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

4928  #endif

4929  

4930  #ifdef CLOSURE_SUBSURFACE

4931      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

4932  #endif

4933  

4934  #ifdef CLOSURE_GLOSSY

4935      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

4936  #endif

4937  

4938  #ifdef CLOSURE_CLEARCOAT

4939      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

4940                        ld.l_spec;

4941  #endif

4942    }

4943  

4944  #ifdef CLOSURE_GLOSSY

4945    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

4946    out_spec *= F_area(f0, brdf_lut_lights.xy);

4947  #endif

4948  

4949  #ifdef CLOSURE_CLEARCOAT

4950    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

4951    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

4952    out_spec += out_spec_clear * C_intensity;

4953  #endif

4954  

4955    /* ---------------------------------------------------------------- */

4956    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

4957    /* ---------------------------------------------------------------- */

4958  

4959    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

4960  #ifdef CLOSURE_GLOSSY

4961    vec4 spec_accum = vec4(0.0);

4962  #endif

4963  

4964  #ifdef CLOSURE_CLEARCOAT

4965    vec4 C_spec_accum = vec4(0.0);

4966  #endif

4967  

4968  #ifdef CLOSURE_REFRACTION

4969    vec4 refr_accum = vec4(0.0);

4970  #endif

4971  

4972  #ifdef CLOSURE_GLOSSY

4973    /* ---------------------------- */

4974    /*      Planar Reflections      */

4975    /* ---------------------------- */

4976  

4977    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

4978      PlanarData pd = planars_data[i];

4979  

4980      /* Fade on geometric normal. */

4981      float fade = probe_attenuation_planar(

4982          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

4983  

4984      if (fade > 0.0) {

4985        if (!(ssrToggle && ssr_id == outputSsrId)) {

4986          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

4987          accumulate_light(spec, fade, spec_accum);

4988        }

4989  

4990  #ifdef CLOSURE_CLEARCOAT

4991        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

4992        accumulate_light(C_spec, fade, C_spec_accum);

4993  #endif

4994      }

4995    }

4996  #endif

4997  

4998  #ifdef CLOSURE_GLOSSY

4999    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

5000  #endif

5001  

5002  #ifdef CLOSURE_CLEARCOAT

5003    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

5004  #endif

5005  

5006  #ifdef CLOSURE_REFRACTION

5007    /* Refract the view vector using the depth heuristic.

5008     * Then later Refract a second time the already refracted

5009     * ray using the inverse ior. */

5010    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

5011    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

5012    vec3 refr_pos = (refractionDepth > 0.0) ?

5013                        line_plane_intersect(

5014                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

5015                        worldPosition;

5016    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

5017  #endif

5018  

5019  #ifdef CLOSURE_REFRACTION

5020  /* ---------------------------- */

5021  /*   Screen Space Refraction    */

5022  /* ---------------------------- */

5023  #ifdef USE_REFRACTION

5024    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

5025      /* Find approximated position of the 2nd refraction event. */

5026      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

5027                                                 viewPosition;

5028      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

5029      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

5030      accumulate_light(trans.rgb, trans.a, refr_accum);

5031    }

5032  #endif

5033  

5034  #endif

5035  

5036    /* ---------------------------- */

5037    /*       Specular probes        */

5038    /* ---------------------------- */

5039  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5040  

5041  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

5042  #  define GLASS_ACCUM 1

5043  #  define ACCUM min(refr_accum.a, spec_accum.a)

5044  #elif defined(CLOSURE_REFRACTION)

5045  #  define GLASS_ACCUM 0

5046  #  define ACCUM refr_accum.a

5047  #else

5048  #  define GLASS_ACCUM 0

5049  #  define ACCUM spec_accum.a

5050  #endif

5051  

5052    /* Starts at 1 because 0 is world probe */

5053    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

5054      float fade = probe_attenuation_cube(i, worldPosition);

5055  

5056      if (fade > 0.0) {

5057  

5058  #if GLASS_ACCUM

5059        if (spec_accum.a < 0.999) {

5060  #endif

5061  #ifdef CLOSURE_GLOSSY

5062          if (!(ssrToggle && ssr_id == outputSsrId)) {

5063            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

5064            accumulate_light(spec, fade, spec_accum);

5065          }

5066  #endif

5067  

5068  #ifdef CLOSURE_CLEARCOAT

5069          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

5070          accumulate_light(C_spec, fade, C_spec_accum);

5071  #endif

5072  #if GLASS_ACCUM

5073        }

5074  #endif

5075  

5076  #if GLASS_ACCUM

5077        if (refr_accum.a < 0.999) {

5078  #endif

5079  #ifdef CLOSURE_REFRACTION

5080          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

5081          accumulate_light(trans, fade, refr_accum);

5082  #endif

5083  #if GLASS_ACCUM

5084        }

5085  #endif

5086      }

5087    }

5088  

5089  #undef GLASS_ACCUM

5090  #undef ACCUM

5091  

5092  /* ---------------------------- */

5093  /*          World Probe         */

5094  /* ---------------------------- */

5095  #ifdef CLOSURE_GLOSSY

5096    if (spec_accum.a < 0.999) {

5097      if (!(ssrToggle && ssr_id == outputSsrId)) {

5098        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

5099        accumulate_light(spec, 1.0, spec_accum);

5100      }

5101  

5102  #  ifdef CLOSURE_CLEARCOAT

5103      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

5104      accumulate_light(C_spec, 1.0, C_spec_accum);

5105  #  endif

5106    }

5107  #endif

5108  

5109  #ifdef CLOSURE_REFRACTION

5110    if (refr_accum.a < 0.999) {

5111      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

5112      accumulate_light(trans, 1.0, refr_accum);

5113    }

5114  #endif

5115  #endif /* Specular probes */

5116  

5117    /* ---------------------------- */

5118    /*       Ambient Occlusion      */

5119    /* ---------------------------- */

5120  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5121    vec3 bent_normal;

5122    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

5123  #endif

5124  

5125    /* ---------------------------- */

5126    /*        Specular Output       */

5127    /* ---------------------------- */

5128    float NV = dot(N, V);

5129  #ifdef CLOSURE_GLOSSY

5130    vec2 uv = lut_coords(NV, roughness);

5131    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

5132  

5133    /* This factor is outputted to be used by SSR in order

5134     * to match the intensity of the regular reflections. */

5135    ssr_spec = F_ibl(f0, brdf_lut);

5136    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

5137  

5138    /* The SSR pass recompute the occlusion to not apply it to the SSR */

5139    if (ssrToggle && ssr_id == outputSsrId) {

5140      spec_occlu = 1.0;

5141    }

5142  

5143    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

5144  #endif

5145  

5146  #ifdef CLOSURE_REFRACTION

5147    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

5148  

5149    out_refr += refr_accum.rgb * btdf;

5150  #endif

5151  

5152  #ifdef CLOSURE_CLEARCOAT

5153    NV = dot(C_N, V);

5154    vec2 C_uv = lut_coords(NV, C_roughness);

5155    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

5156    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

5157  

5158    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

5159  #endif

5160  

5161  #ifdef CLOSURE_GLOSSY

5162    /* Global toggle for lightprobe baking. */

5163    out_spec *= float(specToggle);

5164  #endif

5165  

5166    /* ---------------------------------------------------------------- */

5167    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

5168    /* ---------------------------------------------------------------- */

5169  

5170    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

5171  #ifdef CLOSURE_DIFFUSE

5172    vec4 diff_accum = vec4(0.0);

5173  

5174    /* ---------------------------- */

5175    /*       Irradiance Grids       */

5176    /* ---------------------------- */

5177    /* Start at 1 because 0 is world irradiance */

5178    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

5179      GridData gd = grids_data[i];

5180  

5181      vec3 localpos;

5182      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

5183  

5184      if (fade > 0.0) {

5185        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

5186        accumulate_light(diff, fade, diff_accum);

5187      }

5188    }

5189  

5190    /* ---------------------------- */

5191    /*        World Diffuse         */

5192    /* ---------------------------- */

5193    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

5194      vec3 diff = probe_evaluate_world_diff(bent_normal);

5195      accumulate_light(diff, 1.0, diff_accum);

5196    }

5197  

5198    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

5199  #endif

5200  }

5201  

5202  /* Cleanup for next configuration */

5203  #undef CLOSURE_NAME

5204  

5205  #ifdef CLOSURE_DIFFUSE

5206  #undef CLOSURE_DIFFUSE

5207  #endif

5208  

5209  #ifdef CLOSURE_GLOSSY

5210  #undef CLOSURE_GLOSSY

5211  #endif

5212  

5213  #ifdef CLOSURE_CLEARCOAT

5214  #undef CLOSURE_CLEARCOAT

5215  #endif

5216  

5217  #ifdef CLOSURE_REFRACTION

5218  #undef CLOSURE_REFRACTION

5219  #endif

5220  

5221  #ifdef CLOSURE_SUBSURFACE

5222  #undef CLOSURE_SUBSURFACE

5223  #endif

5224  

5225  #ifndef LIT_SURFACE_UNIFORM

5226  #define LIT_SURFACE_UNIFORM

5227  

5228  uniform float refractionDepth;

5229  

5230  #ifndef UTIL_TEX

5231  #  define UTIL_TEX

5232  uniform sampler2DArray utilTex;

5233  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

5234  #endif /* UTIL_TEX */

5235  

5236  in vec3 worldPosition;

5237  in vec3 viewPosition;

5238  

5239  #ifdef USE_FLAT_NORMAL

5240  flat in vec3 worldNormal;

5241  flat in vec3 viewNormal;

5242  #else

5243  in vec3 worldNormal;

5244  in vec3 viewNormal;

5245  #endif

5246  

5247  #ifdef HAIR_SHADER

5248  in vec3 hairTangent; /* world space */

5249  in float hairThickTime;

5250  in float hairThickness;

5251  in float hairTime;

5252  flat in int hairStrandID;

5253  

5254  uniform int hairThicknessRes = 1;

5255  #endif

5256  

5257  #endif /* LIT_SURFACE_UNIFORM */

5258  

5259  /** AUTO CONFIG

5260   * We include the file multiple times each time with a different configuration.

5261   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

5262   */

5263  #if !defined(SURFACE_DEFAULT)

5264  #define SURFACE_DEFAULT

5265  #define CLOSURE_NAME eevee_closure_default

5266  #define CLOSURE_DIFFUSE

5267  #define CLOSURE_GLOSSY

5268  #endif /* SURFACE_DEFAULT */

5269  

5270  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

5271  #define SURFACE_PRINCIPLED

5272  #define CLOSURE_NAME eevee_closure_principled

5273  #define CLOSURE_DIFFUSE

5274  #define CLOSURE_GLOSSY

5275  #define CLOSURE_CLEARCOAT

5276  #define CLOSURE_REFRACTION

5277  #define CLOSURE_SUBSURFACE

5278  #endif /* SURFACE_PRINCIPLED */

5279  

5280  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

5281  #define SURFACE_CLEARCOAT

5282  #define CLOSURE_NAME eevee_closure_clearcoat

5283  #define CLOSURE_GLOSSY

5284  #define CLOSURE_CLEARCOAT

5285  #endif /* SURFACE_CLEARCOAT */

5286  

5287  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

5288  #define SURFACE_DIFFUSE

5289  #define CLOSURE_NAME eevee_closure_diffuse

5290  #define CLOSURE_DIFFUSE

5291  #endif /* SURFACE_DIFFUSE */

5292  

5293  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

5294  #define SURFACE_SUBSURFACE

5295  #define CLOSURE_NAME eevee_closure_subsurface

5296  #define CLOSURE_DIFFUSE

5297  #define CLOSURE_SUBSURFACE

5298  #endif /* SURFACE_SUBSURFACE */

5299  

5300  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

5301  #define SURFACE_SKIN

5302  #define CLOSURE_NAME eevee_closure_skin

5303  #define CLOSURE_DIFFUSE

5304  #define CLOSURE_SUBSURFACE

5305  #define CLOSURE_GLOSSY

5306  #endif /* SURFACE_SKIN */

5307  

5308  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

5309  #define SURFACE_GLOSSY

5310  #define CLOSURE_NAME eevee_closure_glossy

5311  #define CLOSURE_GLOSSY

5312  #endif /* SURFACE_GLOSSY */

5313  

5314  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

5315  #define SURFACE_REFRACT

5316  #define CLOSURE_NAME eevee_closure_refraction

5317  #define CLOSURE_REFRACTION

5318  #endif /* SURFACE_REFRACT */

5319  

5320  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

5321  #define SURFACE_GLASS

5322  #define CLOSURE_NAME eevee_closure_glass

5323  #define CLOSURE_GLOSSY

5324  #define CLOSURE_REFRACTION

5325  #endif /* SURFACE_GLASS */

5326  

5327  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

5328  #ifdef CLOSURE_CLEARCOAT

5329  #ifndef CLOSURE_GLOSSY

5330  #  define CLOSURE_GLOSSY

5331  #endif

5332  #endif /* CLOSURE_CLEARCOAT */

5333  

5334  void CLOSURE_NAME(vec3 N

5335  #ifdef CLOSURE_DIFFUSE

5336                    ,

5337                    vec3 albedo

5338  #endif

5339  #ifdef CLOSURE_GLOSSY

5340                    ,

5341                    vec3 f0,

5342                    int ssr_id

5343  #endif

5344  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5345                    ,

5346                    float roughness

5347  #endif

5348  #ifdef CLOSURE_CLEARCOAT

5349                    ,

5350                    vec3 C_N,

5351                    float C_intensity,

5352                    float C_roughness

5353  #endif

5354  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5355                    ,

5356                    float ao

5357  #endif

5358  #ifdef CLOSURE_SUBSURFACE

5359                    ,

5360                    float sss_scale

5361  #endif

5362  #ifdef CLOSURE_REFRACTION

5363                    ,

5364                    float ior

5365  #endif

5366  #ifdef CLOSURE_DIFFUSE

5367                    ,

5368                    out vec3 out_diff

5369  #endif

5370  #ifdef CLOSURE_SUBSURFACE

5371                    ,

5372                    out vec3 out_trans

5373  #endif

5374  #ifdef CLOSURE_GLOSSY

5375                    ,

5376                    out vec3 out_spec

5377  #endif

5378  #ifdef CLOSURE_REFRACTION

5379                    ,

5380                    out vec3 out_refr

5381  #endif

5382  #ifdef CLOSURE_GLOSSY

5383                    ,

5384                    out vec3 ssr_spec

5385  #endif

5386  )

5387  {

5388  #ifdef CLOSURE_DIFFUSE

5389    out_diff = vec3(0.0);

5390  #endif

5391  

5392  #ifdef CLOSURE_SUBSURFACE

5393    out_trans = vec3(0.0);

5394  #endif

5395  

5396  #ifdef CLOSURE_GLOSSY

5397    out_spec = vec3(0.0);

5398  #endif

5399  

5400  #ifdef CLOSURE_REFRACTION

5401    out_refr = vec3(0.0);

5402  #endif

5403  

5404  #ifdef SHADOW_SHADER

5405    return;

5406  #endif

5407  

5408    /* Zero length vectors cause issues, see: T51979. */

5409    float len = length(N);

5410    if (isnan(len)) {

5411      return;

5412    }

5413    N /= len;

5414  

5415  #ifdef CLOSURE_CLEARCOAT

5416    len = length(C_N);

5417    if (isnan(len)) {

5418      return;

5419    }

5420    C_N /= len;

5421  #endif

5422  

5423  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5424    roughness = clamp(roughness, 1e-8, 0.9999);

5425    float roughnessSquared = roughness * roughness;

5426  #endif

5427  

5428  #ifdef CLOSURE_CLEARCOAT

5429    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

5430    float C_roughnessSquared = C_roughness * C_roughness;

5431  #endif

5432  

5433    vec3 V = cameraVec;

5434  

5435    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

5436  

5437    /* ---------------------------------------------------------------- */

5438    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

5439    /* ---------------------------------------------------------------- */

5440  

5441  #ifdef CLOSURE_GLOSSY

5442    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

5443    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

5444  #endif

5445  

5446  #ifdef CLOSURE_CLEARCOAT

5447    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

5448    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

5449    vec3 out_spec_clear = vec3(0.0);

5450  #endif

5451  

5452    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

5453      LightData ld = lights_data[i];

5454  

5455      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

5456      l_vector.xyz = ld.l_position - worldPosition;

5457      l_vector.w = length(l_vector.xyz);

5458  

5459      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

5460  

5461      if (l_vis < 1e-8) {

5462        continue;

5463      }

5464  

5465      vec3 l_color_vis = ld.l_color * l_vis;

5466  

5467  #ifdef CLOSURE_DIFFUSE

5468      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

5469  #endif

5470  

5471  #ifdef CLOSURE_SUBSURFACE

5472      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

5473  #endif

5474  

5475  #ifdef CLOSURE_GLOSSY

5476      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

5477  #endif

5478  

5479  #ifdef CLOSURE_CLEARCOAT

5480      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

5481                        ld.l_spec;

5482  #endif

5483    }

5484  

5485  #ifdef CLOSURE_GLOSSY

5486    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

5487    out_spec *= F_area(f0, brdf_lut_lights.xy);

5488  #endif

5489  

5490  #ifdef CLOSURE_CLEARCOAT

5491    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

5492    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

5493    out_spec += out_spec_clear * C_intensity;

5494  #endif

5495  

5496    /* ---------------------------------------------------------------- */

5497    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

5498    /* ---------------------------------------------------------------- */

5499  

5500    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

5501  #ifdef CLOSURE_GLOSSY

5502    vec4 spec_accum = vec4(0.0);

5503  #endif

5504  

5505  #ifdef CLOSURE_CLEARCOAT

5506    vec4 C_spec_accum = vec4(0.0);

5507  #endif

5508  

5509  #ifdef CLOSURE_REFRACTION

5510    vec4 refr_accum = vec4(0.0);

5511  #endif

5512  

5513  #ifdef CLOSURE_GLOSSY

5514    /* ---------------------------- */

5515    /*      Planar Reflections      */

5516    /* ---------------------------- */

5517  

5518    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

5519      PlanarData pd = planars_data[i];

5520  

5521      /* Fade on geometric normal. */

5522      float fade = probe_attenuation_planar(

5523          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

5524  

5525      if (fade > 0.0) {

5526        if (!(ssrToggle && ssr_id == outputSsrId)) {

5527          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

5528          accumulate_light(spec, fade, spec_accum);

5529        }

5530  

5531  #ifdef CLOSURE_CLEARCOAT

5532        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

5533        accumulate_light(C_spec, fade, C_spec_accum);

5534  #endif

5535      }

5536    }

5537  #endif

5538  

5539  #ifdef CLOSURE_GLOSSY

5540    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

5541  #endif

5542  

5543  #ifdef CLOSURE_CLEARCOAT

5544    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

5545  #endif

5546  

5547  #ifdef CLOSURE_REFRACTION

5548    /* Refract the view vector using the depth heuristic.

5549     * Then later Refract a second time the already refracted

5550     * ray using the inverse ior. */

5551    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

5552    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

5553    vec3 refr_pos = (refractionDepth > 0.0) ?

5554                        line_plane_intersect(

5555                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

5556                        worldPosition;

5557    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

5558  #endif

5559  

5560  #ifdef CLOSURE_REFRACTION

5561  /* ---------------------------- */

5562  /*   Screen Space Refraction    */

5563  /* ---------------------------- */

5564  #ifdef USE_REFRACTION

5565    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

5566      /* Find approximated position of the 2nd refraction event. */

5567      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

5568                                                 viewPosition;

5569      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

5570      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

5571      accumulate_light(trans.rgb, trans.a, refr_accum);

5572    }

5573  #endif

5574  

5575  #endif

5576  

5577    /* ---------------------------- */

5578    /*       Specular probes        */

5579    /* ---------------------------- */

5580  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5581  

5582  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

5583  #  define GLASS_ACCUM 1

5584  #  define ACCUM min(refr_accum.a, spec_accum.a)

5585  #elif defined(CLOSURE_REFRACTION)

5586  #  define GLASS_ACCUM 0

5587  #  define ACCUM refr_accum.a

5588  #else

5589  #  define GLASS_ACCUM 0

5590  #  define ACCUM spec_accum.a

5591  #endif

5592  

5593    /* Starts at 1 because 0 is world probe */

5594    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

5595      float fade = probe_attenuation_cube(i, worldPosition);

5596  

5597      if (fade > 0.0) {

5598  

5599  #if GLASS_ACCUM

5600        if (spec_accum.a < 0.999) {

5601  #endif

5602  #ifdef CLOSURE_GLOSSY

5603          if (!(ssrToggle && ssr_id == outputSsrId)) {

5604            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

5605            accumulate_light(spec, fade, spec_accum);

5606          }

5607  #endif

5608  

5609  #ifdef CLOSURE_CLEARCOAT

5610          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

5611          accumulate_light(C_spec, fade, C_spec_accum);

5612  #endif

5613  #if GLASS_ACCUM

5614        }

5615  #endif

5616  

5617  #if GLASS_ACCUM

5618        if (refr_accum.a < 0.999) {

5619  #endif

5620  #ifdef CLOSURE_REFRACTION

5621          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

5622          accumulate_light(trans, fade, refr_accum);

5623  #endif

5624  #if GLASS_ACCUM

5625        }

5626  #endif

5627      }

5628    }

5629  

5630  #undef GLASS_ACCUM

5631  #undef ACCUM

5632  

5633  /* ---------------------------- */

5634  /*          World Probe         */

5635  /* ---------------------------- */

5636  #ifdef CLOSURE_GLOSSY

5637    if (spec_accum.a < 0.999) {

5638      if (!(ssrToggle && ssr_id == outputSsrId)) {

5639        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

5640        accumulate_light(spec, 1.0, spec_accum);

5641      }

5642  

5643  #  ifdef CLOSURE_CLEARCOAT

5644      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

5645      accumulate_light(C_spec, 1.0, C_spec_accum);

5646  #  endif

5647    }

5648  #endif

5649  

5650  #ifdef CLOSURE_REFRACTION

5651    if (refr_accum.a < 0.999) {

5652      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

5653      accumulate_light(trans, 1.0, refr_accum);

5654    }

5655  #endif

5656  #endif /* Specular probes */

5657  

5658    /* ---------------------------- */

5659    /*       Ambient Occlusion      */

5660    /* ---------------------------- */

5661  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5662    vec3 bent_normal;

5663    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

5664  #endif

5665  

5666    /* ---------------------------- */

5667    /*        Specular Output       */

5668    /* ---------------------------- */

5669    float NV = dot(N, V);

5670  #ifdef CLOSURE_GLOSSY

5671    vec2 uv = lut_coords(NV, roughness);

5672    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

5673  

5674    /* This factor is outputted to be used by SSR in order

5675     * to match the intensity of the regular reflections. */

5676    ssr_spec = F_ibl(f0, brdf_lut);

5677    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

5678  

5679    /* The SSR pass recompute the occlusion to not apply it to the SSR */

5680    if (ssrToggle && ssr_id == outputSsrId) {

5681      spec_occlu = 1.0;

5682    }

5683  

5684    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

5685  #endif

5686  

5687  #ifdef CLOSURE_REFRACTION

5688    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

5689  

5690    out_refr += refr_accum.rgb * btdf;

5691  #endif

5692  

5693  #ifdef CLOSURE_CLEARCOAT

5694    NV = dot(C_N, V);

5695    vec2 C_uv = lut_coords(NV, C_roughness);

5696    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

5697    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

5698  

5699    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

5700  #endif

5701  

5702  #ifdef CLOSURE_GLOSSY

5703    /* Global toggle for lightprobe baking. */

5704    out_spec *= float(specToggle);

5705  #endif

5706  

5707    /* ---------------------------------------------------------------- */

5708    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

5709    /* ---------------------------------------------------------------- */

5710  

5711    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

5712  #ifdef CLOSURE_DIFFUSE

5713    vec4 diff_accum = vec4(0.0);

5714  

5715    /* ---------------------------- */

5716    /*       Irradiance Grids       */

5717    /* ---------------------------- */

5718    /* Start at 1 because 0 is world irradiance */

5719    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

5720      GridData gd = grids_data[i];

5721  

5722      vec3 localpos;

5723      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

5724  

5725      if (fade > 0.0) {

5726        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

5727        accumulate_light(diff, fade, diff_accum);

5728      }

5729    }

5730  

5731    /* ---------------------------- */

5732    /*        World Diffuse         */

5733    /* ---------------------------- */

5734    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

5735      vec3 diff = probe_evaluate_world_diff(bent_normal);

5736      accumulate_light(diff, 1.0, diff_accum);

5737    }

5738  

5739    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

5740  #endif

5741  }

5742  

5743  /* Cleanup for next configuration */

5744  #undef CLOSURE_NAME

5745  

5746  #ifdef CLOSURE_DIFFUSE

5747  #undef CLOSURE_DIFFUSE

5748  #endif

5749  

5750  #ifdef CLOSURE_GLOSSY

5751  #undef CLOSURE_GLOSSY

5752  #endif

5753  

5754  #ifdef CLOSURE_CLEARCOAT

5755  #undef CLOSURE_CLEARCOAT

5756  #endif

5757  

5758  #ifdef CLOSURE_REFRACTION

5759  #undef CLOSURE_REFRACTION

5760  #endif

5761  

5762  #ifdef CLOSURE_SUBSURFACE

5763  #undef CLOSURE_SUBSURFACE

5764  #endif

5765  

5766  #ifndef LIT_SURFACE_UNIFORM

5767  #define LIT_SURFACE_UNIFORM

5768  

5769  uniform float refractionDepth;

5770  

5771  #ifndef UTIL_TEX

5772  #  define UTIL_TEX

5773  uniform sampler2DArray utilTex;

5774  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

5775  #endif /* UTIL_TEX */

5776  

5777  in vec3 worldPosition;

5778  in vec3 viewPosition;

5779  

5780  #ifdef USE_FLAT_NORMAL

5781  flat in vec3 worldNormal;

5782  flat in vec3 viewNormal;

5783  #else

5784  in vec3 worldNormal;

5785  in vec3 viewNormal;

5786  #endif

5787  

5788  #ifdef HAIR_SHADER

5789  in vec3 hairTangent; /* world space */

5790  in float hairThickTime;

5791  in float hairThickness;

5792  in float hairTime;

5793  flat in int hairStrandID;

5794  

5795  uniform int hairThicknessRes = 1;

5796  #endif

5797  

5798  #endif /* LIT_SURFACE_UNIFORM */

5799  

5800  /** AUTO CONFIG

5801   * We include the file multiple times each time with a different configuration.

5802   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

5803   */

5804  #if !defined(SURFACE_DEFAULT)

5805  #define SURFACE_DEFAULT

5806  #define CLOSURE_NAME eevee_closure_default

5807  #define CLOSURE_DIFFUSE

5808  #define CLOSURE_GLOSSY

5809  #endif /* SURFACE_DEFAULT */

5810  

5811  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

5812  #define SURFACE_PRINCIPLED

5813  #define CLOSURE_NAME eevee_closure_principled

5814  #define CLOSURE_DIFFUSE

5815  #define CLOSURE_GLOSSY

5816  #define CLOSURE_CLEARCOAT

5817  #define CLOSURE_REFRACTION

5818  #define CLOSURE_SUBSURFACE

5819  #endif /* SURFACE_PRINCIPLED */

5820  

5821  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

5822  #define SURFACE_CLEARCOAT

5823  #define CLOSURE_NAME eevee_closure_clearcoat

5824  #define CLOSURE_GLOSSY

5825  #define CLOSURE_CLEARCOAT

5826  #endif /* SURFACE_CLEARCOAT */

5827  

5828  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

5829  #define SURFACE_DIFFUSE

5830  #define CLOSURE_NAME eevee_closure_diffuse

5831  #define CLOSURE_DIFFUSE

5832  #endif /* SURFACE_DIFFUSE */

5833  

5834  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

5835  #define SURFACE_SUBSURFACE

5836  #define CLOSURE_NAME eevee_closure_subsurface

5837  #define CLOSURE_DIFFUSE

5838  #define CLOSURE_SUBSURFACE

5839  #endif /* SURFACE_SUBSURFACE */

5840  

5841  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

5842  #define SURFACE_SKIN

5843  #define CLOSURE_NAME eevee_closure_skin

5844  #define CLOSURE_DIFFUSE

5845  #define CLOSURE_SUBSURFACE

5846  #define CLOSURE_GLOSSY

5847  #endif /* SURFACE_SKIN */

5848  

5849  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

5850  #define SURFACE_GLOSSY

5851  #define CLOSURE_NAME eevee_closure_glossy

5852  #define CLOSURE_GLOSSY

5853  #endif /* SURFACE_GLOSSY */

5854  

5855  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

5856  #define SURFACE_REFRACT

5857  #define CLOSURE_NAME eevee_closure_refraction

5858  #define CLOSURE_REFRACTION

5859  #endif /* SURFACE_REFRACT */

5860  

5861  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

5862  #define SURFACE_GLASS

5863  #define CLOSURE_NAME eevee_closure_glass

5864  #define CLOSURE_GLOSSY

5865  #define CLOSURE_REFRACTION

5866  #endif /* SURFACE_GLASS */

5867  

5868  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

5869  #ifdef CLOSURE_CLEARCOAT

5870  #ifndef CLOSURE_GLOSSY

5871  #  define CLOSURE_GLOSSY

5872  #endif

5873  #endif /* CLOSURE_CLEARCOAT */

5874  

5875  void CLOSURE_NAME(vec3 N

5876  #ifdef CLOSURE_DIFFUSE

5877                    ,

5878                    vec3 albedo

5879  #endif

5880  #ifdef CLOSURE_GLOSSY

5881                    ,

5882                    vec3 f0,

5883                    int ssr_id

5884  #endif

5885  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5886                    ,

5887                    float roughness

5888  #endif

5889  #ifdef CLOSURE_CLEARCOAT

5890                    ,

5891                    vec3 C_N,

5892                    float C_intensity,

5893                    float C_roughness

5894  #endif

5895  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

5896                    ,

5897                    float ao

5898  #endif

5899  #ifdef CLOSURE_SUBSURFACE

5900                    ,

5901                    float sss_scale

5902  #endif

5903  #ifdef CLOSURE_REFRACTION

5904                    ,

5905                    float ior

5906  #endif

5907  #ifdef CLOSURE_DIFFUSE

5908                    ,

5909                    out vec3 out_diff

5910  #endif

5911  #ifdef CLOSURE_SUBSURFACE

5912                    ,

5913                    out vec3 out_trans

5914  #endif

5915  #ifdef CLOSURE_GLOSSY

5916                    ,

5917                    out vec3 out_spec

5918  #endif

5919  #ifdef CLOSURE_REFRACTION

5920                    ,

5921                    out vec3 out_refr

5922  #endif

5923  #ifdef CLOSURE_GLOSSY

5924                    ,

5925                    out vec3 ssr_spec

5926  #endif

5927  )

5928  {

5929  #ifdef CLOSURE_DIFFUSE

5930    out_diff = vec3(0.0);

5931  #endif

5932  

5933  #ifdef CLOSURE_SUBSURFACE

5934    out_trans = vec3(0.0);

5935  #endif

5936  

5937  #ifdef CLOSURE_GLOSSY

5938    out_spec = vec3(0.0);

5939  #endif

5940  

5941  #ifdef CLOSURE_REFRACTION

5942    out_refr = vec3(0.0);

5943  #endif

5944  

5945  #ifdef SHADOW_SHADER

5946    return;

5947  #endif

5948  

5949    /* Zero length vectors cause issues, see: T51979. */

5950    float len = length(N);

5951    if (isnan(len)) {

5952      return;

5953    }

5954    N /= len;

5955  

5956  #ifdef CLOSURE_CLEARCOAT

5957    len = length(C_N);

5958    if (isnan(len)) {

5959      return;

5960    }

5961    C_N /= len;

5962  #endif

5963  

5964  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

5965    roughness = clamp(roughness, 1e-8, 0.9999);

5966    float roughnessSquared = roughness * roughness;

5967  #endif

5968  

5969  #ifdef CLOSURE_CLEARCOAT

5970    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

5971    float C_roughnessSquared = C_roughness * C_roughness;

5972  #endif

5973  

5974    vec3 V = cameraVec;

5975  

5976    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

5977  

5978    /* ---------------------------------------------------------------- */

5979    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

5980    /* ---------------------------------------------------------------- */

5981  

5982  #ifdef CLOSURE_GLOSSY

5983    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

5984    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

5985  #endif

5986  

5987  #ifdef CLOSURE_CLEARCOAT

5988    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

5989    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

5990    vec3 out_spec_clear = vec3(0.0);

5991  #endif

5992  

5993    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

5994      LightData ld = lights_data[i];

5995  

5996      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

5997      l_vector.xyz = ld.l_position - worldPosition;

5998      l_vector.w = length(l_vector.xyz);

5999  

6000      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

6001  

6002      if (l_vis < 1e-8) {

6003        continue;

6004      }

6005  

6006      vec3 l_color_vis = ld.l_color * l_vis;

6007  

6008  #ifdef CLOSURE_DIFFUSE

6009      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

6010  #endif

6011  

6012  #ifdef CLOSURE_SUBSURFACE

6013      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

6014  #endif

6015  

6016  #ifdef CLOSURE_GLOSSY

6017      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

6018  #endif

6019  

6020  #ifdef CLOSURE_CLEARCOAT

6021      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

6022                        ld.l_spec;

6023  #endif

6024    }

6025  

6026  #ifdef CLOSURE_GLOSSY

6027    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

6028    out_spec *= F_area(f0, brdf_lut_lights.xy);

6029  #endif

6030  

6031  #ifdef CLOSURE_CLEARCOAT

6032    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

6033    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

6034    out_spec += out_spec_clear * C_intensity;

6035  #endif

6036  

6037    /* ---------------------------------------------------------------- */

6038    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

6039    /* ---------------------------------------------------------------- */

6040  

6041    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6042  #ifdef CLOSURE_GLOSSY

6043    vec4 spec_accum = vec4(0.0);

6044  #endif

6045  

6046  #ifdef CLOSURE_CLEARCOAT

6047    vec4 C_spec_accum = vec4(0.0);

6048  #endif

6049  

6050  #ifdef CLOSURE_REFRACTION

6051    vec4 refr_accum = vec4(0.0);

6052  #endif

6053  

6054  #ifdef CLOSURE_GLOSSY

6055    /* ---------------------------- */

6056    /*      Planar Reflections      */

6057    /* ---------------------------- */

6058  

6059    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

6060      PlanarData pd = planars_data[i];

6061  

6062      /* Fade on geometric normal. */

6063      float fade = probe_attenuation_planar(

6064          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

6065  

6066      if (fade > 0.0) {

6067        if (!(ssrToggle && ssr_id == outputSsrId)) {

6068          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

6069          accumulate_light(spec, fade, spec_accum);

6070        }

6071  

6072  #ifdef CLOSURE_CLEARCOAT

6073        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

6074        accumulate_light(C_spec, fade, C_spec_accum);

6075  #endif

6076      }

6077    }

6078  #endif

6079  

6080  #ifdef CLOSURE_GLOSSY

6081    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

6082  #endif

6083  

6084  #ifdef CLOSURE_CLEARCOAT

6085    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

6086  #endif

6087  

6088  #ifdef CLOSURE_REFRACTION

6089    /* Refract the view vector using the depth heuristic.

6090     * Then later Refract a second time the already refracted

6091     * ray using the inverse ior. */

6092    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

6093    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

6094    vec3 refr_pos = (refractionDepth > 0.0) ?

6095                        line_plane_intersect(

6096                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

6097                        worldPosition;

6098    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

6099  #endif

6100  

6101  #ifdef CLOSURE_REFRACTION

6102  /* ---------------------------- */

6103  /*   Screen Space Refraction    */

6104  /* ---------------------------- */

6105  #ifdef USE_REFRACTION

6106    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

6107      /* Find approximated position of the 2nd refraction event. */

6108      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

6109                                                 viewPosition;

6110      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

6111      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

6112      accumulate_light(trans.rgb, trans.a, refr_accum);

6113    }

6114  #endif

6115  

6116  #endif

6117  

6118    /* ---------------------------- */

6119    /*       Specular probes        */

6120    /* ---------------------------- */

6121  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6122  

6123  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

6124  #  define GLASS_ACCUM 1

6125  #  define ACCUM min(refr_accum.a, spec_accum.a)

6126  #elif defined(CLOSURE_REFRACTION)

6127  #  define GLASS_ACCUM 0

6128  #  define ACCUM refr_accum.a

6129  #else

6130  #  define GLASS_ACCUM 0

6131  #  define ACCUM spec_accum.a

6132  #endif

6133  

6134    /* Starts at 1 because 0 is world probe */

6135    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

6136      float fade = probe_attenuation_cube(i, worldPosition);

6137  

6138      if (fade > 0.0) {

6139  

6140  #if GLASS_ACCUM

6141        if (spec_accum.a < 0.999) {

6142  #endif

6143  #ifdef CLOSURE_GLOSSY

6144          if (!(ssrToggle && ssr_id == outputSsrId)) {

6145            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

6146            accumulate_light(spec, fade, spec_accum);

6147          }

6148  #endif

6149  

6150  #ifdef CLOSURE_CLEARCOAT

6151          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

6152          accumulate_light(C_spec, fade, C_spec_accum);

6153  #endif

6154  #if GLASS_ACCUM

6155        }

6156  #endif

6157  

6158  #if GLASS_ACCUM

6159        if (refr_accum.a < 0.999) {

6160  #endif

6161  #ifdef CLOSURE_REFRACTION

6162          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

6163          accumulate_light(trans, fade, refr_accum);

6164  #endif

6165  #if GLASS_ACCUM

6166        }

6167  #endif

6168      }

6169    }

6170  

6171  #undef GLASS_ACCUM

6172  #undef ACCUM

6173  

6174  /* ---------------------------- */

6175  /*          World Probe         */

6176  /* ---------------------------- */

6177  #ifdef CLOSURE_GLOSSY

6178    if (spec_accum.a < 0.999) {

6179      if (!(ssrToggle && ssr_id == outputSsrId)) {

6180        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

6181        accumulate_light(spec, 1.0, spec_accum);

6182      }

6183  

6184  #  ifdef CLOSURE_CLEARCOAT

6185      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

6186      accumulate_light(C_spec, 1.0, C_spec_accum);

6187  #  endif

6188    }

6189  #endif

6190  

6191  #ifdef CLOSURE_REFRACTION

6192    if (refr_accum.a < 0.999) {

6193      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

6194      accumulate_light(trans, 1.0, refr_accum);

6195    }

6196  #endif

6197  #endif /* Specular probes */

6198  

6199    /* ---------------------------- */

6200    /*       Ambient Occlusion      */

6201    /* ---------------------------- */

6202  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6203    vec3 bent_normal;

6204    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

6205  #endif

6206  

6207    /* ---------------------------- */

6208    /*        Specular Output       */

6209    /* ---------------------------- */

6210    float NV = dot(N, V);

6211  #ifdef CLOSURE_GLOSSY

6212    vec2 uv = lut_coords(NV, roughness);

6213    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

6214  

6215    /* This factor is outputted to be used by SSR in order

6216     * to match the intensity of the regular reflections. */

6217    ssr_spec = F_ibl(f0, brdf_lut);

6218    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

6219  

6220    /* The SSR pass recompute the occlusion to not apply it to the SSR */

6221    if (ssrToggle && ssr_id == outputSsrId) {

6222      spec_occlu = 1.0;

6223    }

6224  

6225    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

6226  #endif

6227  

6228  #ifdef CLOSURE_REFRACTION

6229    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

6230  

6231    out_refr += refr_accum.rgb * btdf;

6232  #endif

6233  

6234  #ifdef CLOSURE_CLEARCOAT

6235    NV = dot(C_N, V);

6236    vec2 C_uv = lut_coords(NV, C_roughness);

6237    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

6238    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

6239  

6240    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

6241  #endif

6242  

6243  #ifdef CLOSURE_GLOSSY

6244    /* Global toggle for lightprobe baking. */

6245    out_spec *= float(specToggle);

6246  #endif

6247  

6248    /* ---------------------------------------------------------------- */

6249    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

6250    /* ---------------------------------------------------------------- */

6251  

6252    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6253  #ifdef CLOSURE_DIFFUSE

6254    vec4 diff_accum = vec4(0.0);

6255  

6256    /* ---------------------------- */

6257    /*       Irradiance Grids       */

6258    /* ---------------------------- */

6259    /* Start at 1 because 0 is world irradiance */

6260    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

6261      GridData gd = grids_data[i];

6262  

6263      vec3 localpos;

6264      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

6265  

6266      if (fade > 0.0) {

6267        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

6268        accumulate_light(diff, fade, diff_accum);

6269      }

6270    }

6271  

6272    /* ---------------------------- */

6273    /*        World Diffuse         */

6274    /* ---------------------------- */

6275    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

6276      vec3 diff = probe_evaluate_world_diff(bent_normal);

6277      accumulate_light(diff, 1.0, diff_accum);

6278    }

6279  

6280    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

6281  #endif

6282  }

6283  

6284  /* Cleanup for next configuration */

6285  #undef CLOSURE_NAME

6286  

6287  #ifdef CLOSURE_DIFFUSE

6288  #undef CLOSURE_DIFFUSE

6289  #endif

6290  

6291  #ifdef CLOSURE_GLOSSY

6292  #undef CLOSURE_GLOSSY

6293  #endif

6294  

6295  #ifdef CLOSURE_CLEARCOAT

6296  #undef CLOSURE_CLEARCOAT

6297  #endif

6298  

6299  #ifdef CLOSURE_REFRACTION

6300  #undef CLOSURE_REFRACTION

6301  #endif

6302  

6303  #ifdef CLOSURE_SUBSURFACE

6304  #undef CLOSURE_SUBSURFACE

6305  #endif

6306  

6307  #ifndef LIT_SURFACE_UNIFORM

6308  #define LIT_SURFACE_UNIFORM

6309  

6310  uniform float refractionDepth;

6311  

6312  #ifndef UTIL_TEX

6313  #  define UTIL_TEX

6314  uniform sampler2DArray utilTex;

6315  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

6316  #endif /* UTIL_TEX */

6317  

6318  in vec3 worldPosition;

6319  in vec3 viewPosition;

6320  

6321  #ifdef USE_FLAT_NORMAL

6322  flat in vec3 worldNormal;

6323  flat in vec3 viewNormal;

6324  #else

6325  in vec3 worldNormal;

6326  in vec3 viewNormal;

6327  #endif

6328  

6329  #ifdef HAIR_SHADER

6330  in vec3 hairTangent; /* world space */

6331  in float hairThickTime;

6332  in float hairThickness;

6333  in float hairTime;

6334  flat in int hairStrandID;

6335  

6336  uniform int hairThicknessRes = 1;

6337  #endif

6338  

6339  #endif /* LIT_SURFACE_UNIFORM */

6340  

6341  /** AUTO CONFIG

6342   * We include the file multiple times each time with a different configuration.

6343   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

6344   */

6345  #if !defined(SURFACE_DEFAULT)

6346  #define SURFACE_DEFAULT

6347  #define CLOSURE_NAME eevee_closure_default

6348  #define CLOSURE_DIFFUSE

6349  #define CLOSURE_GLOSSY

6350  #endif /* SURFACE_DEFAULT */

6351  

6352  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

6353  #define SURFACE_PRINCIPLED

6354  #define CLOSURE_NAME eevee_closure_principled

6355  #define CLOSURE_DIFFUSE

6356  #define CLOSURE_GLOSSY

6357  #define CLOSURE_CLEARCOAT

6358  #define CLOSURE_REFRACTION

6359  #define CLOSURE_SUBSURFACE

6360  #endif /* SURFACE_PRINCIPLED */

6361  

6362  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

6363  #define SURFACE_CLEARCOAT

6364  #define CLOSURE_NAME eevee_closure_clearcoat

6365  #define CLOSURE_GLOSSY

6366  #define CLOSURE_CLEARCOAT

6367  #endif /* SURFACE_CLEARCOAT */

6368  

6369  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

6370  #define SURFACE_DIFFUSE

6371  #define CLOSURE_NAME eevee_closure_diffuse

6372  #define CLOSURE_DIFFUSE

6373  #endif /* SURFACE_DIFFUSE */

6374  

6375  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

6376  #define SURFACE_SUBSURFACE

6377  #define CLOSURE_NAME eevee_closure_subsurface

6378  #define CLOSURE_DIFFUSE

6379  #define CLOSURE_SUBSURFACE

6380  #endif /* SURFACE_SUBSURFACE */

6381  

6382  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

6383  #define SURFACE_SKIN

6384  #define CLOSURE_NAME eevee_closure_skin

6385  #define CLOSURE_DIFFUSE

6386  #define CLOSURE_SUBSURFACE

6387  #define CLOSURE_GLOSSY

6388  #endif /* SURFACE_SKIN */

6389  

6390  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

6391  #define SURFACE_GLOSSY

6392  #define CLOSURE_NAME eevee_closure_glossy

6393  #define CLOSURE_GLOSSY

6394  #endif /* SURFACE_GLOSSY */

6395  

6396  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

6397  #define SURFACE_REFRACT

6398  #define CLOSURE_NAME eevee_closure_refraction

6399  #define CLOSURE_REFRACTION

6400  #endif /* SURFACE_REFRACT */

6401  

6402  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

6403  #define SURFACE_GLASS

6404  #define CLOSURE_NAME eevee_closure_glass

6405  #define CLOSURE_GLOSSY

6406  #define CLOSURE_REFRACTION

6407  #endif /* SURFACE_GLASS */

6408  

6409  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

6410  #ifdef CLOSURE_CLEARCOAT

6411  #ifndef CLOSURE_GLOSSY

6412  #  define CLOSURE_GLOSSY

6413  #endif

6414  #endif /* CLOSURE_CLEARCOAT */

6415  

6416  void CLOSURE_NAME(vec3 N

6417  #ifdef CLOSURE_DIFFUSE

6418                    ,

6419                    vec3 albedo

6420  #endif

6421  #ifdef CLOSURE_GLOSSY

6422                    ,

6423                    vec3 f0,

6424                    int ssr_id

6425  #endif

6426  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6427                    ,

6428                    float roughness

6429  #endif

6430  #ifdef CLOSURE_CLEARCOAT

6431                    ,

6432                    vec3 C_N,

6433                    float C_intensity,

6434                    float C_roughness

6435  #endif

6436  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6437                    ,

6438                    float ao

6439  #endif

6440  #ifdef CLOSURE_SUBSURFACE

6441                    ,

6442                    float sss_scale

6443  #endif

6444  #ifdef CLOSURE_REFRACTION

6445                    ,

6446                    float ior

6447  #endif

6448  #ifdef CLOSURE_DIFFUSE

6449                    ,

6450                    out vec3 out_diff

6451  #endif

6452  #ifdef CLOSURE_SUBSURFACE

6453                    ,

6454                    out vec3 out_trans

6455  #endif

6456  #ifdef CLOSURE_GLOSSY

6457                    ,

6458                    out vec3 out_spec

6459  #endif

6460  #ifdef CLOSURE_REFRACTION

6461                    ,

6462                    out vec3 out_refr

6463  #endif

6464  #ifdef CLOSURE_GLOSSY

6465                    ,

6466                    out vec3 ssr_spec

6467  #endif

6468  )

6469  {

6470  #ifdef CLOSURE_DIFFUSE

6471    out_diff = vec3(0.0);

6472  #endif

6473  

6474  #ifdef CLOSURE_SUBSURFACE

6475    out_trans = vec3(0.0);

6476  #endif

6477  

6478  #ifdef CLOSURE_GLOSSY

6479    out_spec = vec3(0.0);

6480  #endif

6481  

6482  #ifdef CLOSURE_REFRACTION

6483    out_refr = vec3(0.0);

6484  #endif

6485  

6486  #ifdef SHADOW_SHADER

6487    return;

6488  #endif

6489  

6490    /* Zero length vectors cause issues, see: T51979. */

6491    float len = length(N);

6492    if (isnan(len)) {

6493      return;

6494    }

6495    N /= len;

6496  

6497  #ifdef CLOSURE_CLEARCOAT

6498    len = length(C_N);

6499    if (isnan(len)) {

6500      return;

6501    }

6502    C_N /= len;

6503  #endif

6504  

6505  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6506    roughness = clamp(roughness, 1e-8, 0.9999);

6507    float roughnessSquared = roughness * roughness;

6508  #endif

6509  

6510  #ifdef CLOSURE_CLEARCOAT

6511    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

6512    float C_roughnessSquared = C_roughness * C_roughness;

6513  #endif

6514  

6515    vec3 V = cameraVec;

6516  

6517    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

6518  

6519    /* ---------------------------------------------------------------- */

6520    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

6521    /* ---------------------------------------------------------------- */

6522  

6523  #ifdef CLOSURE_GLOSSY

6524    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

6525    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

6526  #endif

6527  

6528  #ifdef CLOSURE_CLEARCOAT

6529    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

6530    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

6531    vec3 out_spec_clear = vec3(0.0);

6532  #endif

6533  

6534    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

6535      LightData ld = lights_data[i];

6536  

6537      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

6538      l_vector.xyz = ld.l_position - worldPosition;

6539      l_vector.w = length(l_vector.xyz);

6540  

6541      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

6542  

6543      if (l_vis < 1e-8) {

6544        continue;

6545      }

6546  

6547      vec3 l_color_vis = ld.l_color * l_vis;

6548  

6549  #ifdef CLOSURE_DIFFUSE

6550      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

6551  #endif

6552  

6553  #ifdef CLOSURE_SUBSURFACE

6554      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

6555  #endif

6556  

6557  #ifdef CLOSURE_GLOSSY

6558      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

6559  #endif

6560  

6561  #ifdef CLOSURE_CLEARCOAT

6562      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

6563                        ld.l_spec;

6564  #endif

6565    }

6566  

6567  #ifdef CLOSURE_GLOSSY

6568    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

6569    out_spec *= F_area(f0, brdf_lut_lights.xy);

6570  #endif

6571  

6572  #ifdef CLOSURE_CLEARCOAT

6573    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

6574    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

6575    out_spec += out_spec_clear * C_intensity;

6576  #endif

6577  

6578    /* ---------------------------------------------------------------- */

6579    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

6580    /* ---------------------------------------------------------------- */

6581  

6582    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6583  #ifdef CLOSURE_GLOSSY

6584    vec4 spec_accum = vec4(0.0);

6585  #endif

6586  

6587  #ifdef CLOSURE_CLEARCOAT

6588    vec4 C_spec_accum = vec4(0.0);

6589  #endif

6590  

6591  #ifdef CLOSURE_REFRACTION

6592    vec4 refr_accum = vec4(0.0);

6593  #endif

6594  

6595  #ifdef CLOSURE_GLOSSY

6596    /* ---------------------------- */

6597    /*      Planar Reflections      */

6598    /* ---------------------------- */

6599  

6600    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

6601      PlanarData pd = planars_data[i];

6602  

6603      /* Fade on geometric normal. */

6604      float fade = probe_attenuation_planar(

6605          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

6606  

6607      if (fade > 0.0) {

6608        if (!(ssrToggle && ssr_id == outputSsrId)) {

6609          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

6610          accumulate_light(spec, fade, spec_accum);

6611        }

6612  

6613  #ifdef CLOSURE_CLEARCOAT

6614        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

6615        accumulate_light(C_spec, fade, C_spec_accum);

6616  #endif

6617      }

6618    }

6619  #endif

6620  

6621  #ifdef CLOSURE_GLOSSY

6622    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

6623  #endif

6624  

6625  #ifdef CLOSURE_CLEARCOAT

6626    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

6627  #endif

6628  

6629  #ifdef CLOSURE_REFRACTION

6630    /* Refract the view vector using the depth heuristic.

6631     * Then later Refract a second time the already refracted

6632     * ray using the inverse ior. */

6633    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

6634    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

6635    vec3 refr_pos = (refractionDepth > 0.0) ?

6636                        line_plane_intersect(

6637                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

6638                        worldPosition;

6639    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

6640  #endif

6641  

6642  #ifdef CLOSURE_REFRACTION

6643  /* ---------------------------- */

6644  /*   Screen Space Refraction    */

6645  /* ---------------------------- */

6646  #ifdef USE_REFRACTION

6647    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

6648      /* Find approximated position of the 2nd refraction event. */

6649      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

6650                                                 viewPosition;

6651      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

6652      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

6653      accumulate_light(trans.rgb, trans.a, refr_accum);

6654    }

6655  #endif

6656  

6657  #endif

6658  

6659    /* ---------------------------- */

6660    /*       Specular probes        */

6661    /* ---------------------------- */

6662  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6663  

6664  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

6665  #  define GLASS_ACCUM 1

6666  #  define ACCUM min(refr_accum.a, spec_accum.a)

6667  #elif defined(CLOSURE_REFRACTION)

6668  #  define GLASS_ACCUM 0

6669  #  define ACCUM refr_accum.a

6670  #else

6671  #  define GLASS_ACCUM 0

6672  #  define ACCUM spec_accum.a

6673  #endif

6674  

6675    /* Starts at 1 because 0 is world probe */

6676    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

6677      float fade = probe_attenuation_cube(i, worldPosition);

6678  

6679      if (fade > 0.0) {

6680  

6681  #if GLASS_ACCUM

6682        if (spec_accum.a < 0.999) {

6683  #endif

6684  #ifdef CLOSURE_GLOSSY

6685          if (!(ssrToggle && ssr_id == outputSsrId)) {

6686            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

6687            accumulate_light(spec, fade, spec_accum);

6688          }

6689  #endif

6690  

6691  #ifdef CLOSURE_CLEARCOAT

6692          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

6693          accumulate_light(C_spec, fade, C_spec_accum);

6694  #endif

6695  #if GLASS_ACCUM

6696        }

6697  #endif

6698  

6699  #if GLASS_ACCUM

6700        if (refr_accum.a < 0.999) {

6701  #endif

6702  #ifdef CLOSURE_REFRACTION

6703          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

6704          accumulate_light(trans, fade, refr_accum);

6705  #endif

6706  #if GLASS_ACCUM

6707        }

6708  #endif

6709      }

6710    }

6711  

6712  #undef GLASS_ACCUM

6713  #undef ACCUM

6714  

6715  /* ---------------------------- */

6716  /*          World Probe         */

6717  /* ---------------------------- */

6718  #ifdef CLOSURE_GLOSSY

6719    if (spec_accum.a < 0.999) {

6720      if (!(ssrToggle && ssr_id == outputSsrId)) {

6721        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

6722        accumulate_light(spec, 1.0, spec_accum);

6723      }

6724  

6725  #  ifdef CLOSURE_CLEARCOAT

6726      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

6727      accumulate_light(C_spec, 1.0, C_spec_accum);

6728  #  endif

6729    }

6730  #endif

6731  

6732  #ifdef CLOSURE_REFRACTION

6733    if (refr_accum.a < 0.999) {

6734      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

6735      accumulate_light(trans, 1.0, refr_accum);

6736    }

6737  #endif

6738  #endif /* Specular probes */

6739  

6740    /* ---------------------------- */

6741    /*       Ambient Occlusion      */

6742    /* ---------------------------- */

6743  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6744    vec3 bent_normal;

6745    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

6746  #endif

6747  

6748    /* ---------------------------- */

6749    /*        Specular Output       */

6750    /* ---------------------------- */

6751    float NV = dot(N, V);

6752  #ifdef CLOSURE_GLOSSY

6753    vec2 uv = lut_coords(NV, roughness);

6754    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

6755  

6756    /* This factor is outputted to be used by SSR in order

6757     * to match the intensity of the regular reflections. */

6758    ssr_spec = F_ibl(f0, brdf_lut);

6759    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

6760  

6761    /* The SSR pass recompute the occlusion to not apply it to the SSR */

6762    if (ssrToggle && ssr_id == outputSsrId) {

6763      spec_occlu = 1.0;

6764    }

6765  

6766    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

6767  #endif

6768  

6769  #ifdef CLOSURE_REFRACTION

6770    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

6771  

6772    out_refr += refr_accum.rgb * btdf;

6773  #endif

6774  

6775  #ifdef CLOSURE_CLEARCOAT

6776    NV = dot(C_N, V);

6777    vec2 C_uv = lut_coords(NV, C_roughness);

6778    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

6779    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

6780  

6781    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

6782  #endif

6783  

6784  #ifdef CLOSURE_GLOSSY

6785    /* Global toggle for lightprobe baking. */

6786    out_spec *= float(specToggle);

6787  #endif

6788  

6789    /* ---------------------------------------------------------------- */

6790    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

6791    /* ---------------------------------------------------------------- */

6792  

6793    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

6794  #ifdef CLOSURE_DIFFUSE

6795    vec4 diff_accum = vec4(0.0);

6796  

6797    /* ---------------------------- */

6798    /*       Irradiance Grids       */

6799    /* ---------------------------- */

6800    /* Start at 1 because 0 is world irradiance */

6801    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

6802      GridData gd = grids_data[i];

6803  

6804      vec3 localpos;

6805      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

6806  

6807      if (fade > 0.0) {

6808        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

6809        accumulate_light(diff, fade, diff_accum);

6810      }

6811    }

6812  

6813    /* ---------------------------- */

6814    /*        World Diffuse         */

6815    /* ---------------------------- */

6816    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

6817      vec3 diff = probe_evaluate_world_diff(bent_normal);

6818      accumulate_light(diff, 1.0, diff_accum);

6819    }

6820  

6821    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

6822  #endif

6823  }

6824  

6825  /* Cleanup for next configuration */

6826  #undef CLOSURE_NAME

6827  

6828  #ifdef CLOSURE_DIFFUSE

6829  #undef CLOSURE_DIFFUSE

6830  #endif

6831  

6832  #ifdef CLOSURE_GLOSSY

6833  #undef CLOSURE_GLOSSY

6834  #endif

6835  

6836  #ifdef CLOSURE_CLEARCOAT

6837  #undef CLOSURE_CLEARCOAT

6838  #endif

6839  

6840  #ifdef CLOSURE_REFRACTION

6841  #undef CLOSURE_REFRACTION

6842  #endif

6843  

6844  #ifdef CLOSURE_SUBSURFACE

6845  #undef CLOSURE_SUBSURFACE

6846  #endif

6847  

6848  #ifndef LIT_SURFACE_UNIFORM

6849  #define LIT_SURFACE_UNIFORM

6850  

6851  uniform float refractionDepth;

6852  

6853  #ifndef UTIL_TEX

6854  #  define UTIL_TEX

6855  uniform sampler2DArray utilTex;

6856  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

6857  #endif /* UTIL_TEX */

6858  

6859  in vec3 worldPosition;

6860  in vec3 viewPosition;

6861  

6862  #ifdef USE_FLAT_NORMAL

6863  flat in vec3 worldNormal;

6864  flat in vec3 viewNormal;

6865  #else

6866  in vec3 worldNormal;

6867  in vec3 viewNormal;

6868  #endif

6869  

6870  #ifdef HAIR_SHADER

6871  in vec3 hairTangent; /* world space */

6872  in float hairThickTime;

6873  in float hairThickness;

6874  in float hairTime;

6875  flat in int hairStrandID;

6876  

6877  uniform int hairThicknessRes = 1;

6878  #endif

6879  

6880  #endif /* LIT_SURFACE_UNIFORM */

6881  

6882  /** AUTO CONFIG

6883   * We include the file multiple times each time with a different configuration.

6884   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

6885   */

6886  #if !defined(SURFACE_DEFAULT)

6887  #define SURFACE_DEFAULT

6888  #define CLOSURE_NAME eevee_closure_default

6889  #define CLOSURE_DIFFUSE

6890  #define CLOSURE_GLOSSY

6891  #endif /* SURFACE_DEFAULT */

6892  

6893  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

6894  #define SURFACE_PRINCIPLED

6895  #define CLOSURE_NAME eevee_closure_principled

6896  #define CLOSURE_DIFFUSE

6897  #define CLOSURE_GLOSSY

6898  #define CLOSURE_CLEARCOAT

6899  #define CLOSURE_REFRACTION

6900  #define CLOSURE_SUBSURFACE

6901  #endif /* SURFACE_PRINCIPLED */

6902  

6903  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

6904  #define SURFACE_CLEARCOAT

6905  #define CLOSURE_NAME eevee_closure_clearcoat

6906  #define CLOSURE_GLOSSY

6907  #define CLOSURE_CLEARCOAT

6908  #endif /* SURFACE_CLEARCOAT */

6909  

6910  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

6911  #define SURFACE_DIFFUSE

6912  #define CLOSURE_NAME eevee_closure_diffuse

6913  #define CLOSURE_DIFFUSE

6914  #endif /* SURFACE_DIFFUSE */

6915  

6916  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

6917  #define SURFACE_SUBSURFACE

6918  #define CLOSURE_NAME eevee_closure_subsurface

6919  #define CLOSURE_DIFFUSE

6920  #define CLOSURE_SUBSURFACE

6921  #endif /* SURFACE_SUBSURFACE */

6922  

6923  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

6924  #define SURFACE_SKIN

6925  #define CLOSURE_NAME eevee_closure_skin

6926  #define CLOSURE_DIFFUSE

6927  #define CLOSURE_SUBSURFACE

6928  #define CLOSURE_GLOSSY

6929  #endif /* SURFACE_SKIN */

6930  

6931  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

6932  #define SURFACE_GLOSSY

6933  #define CLOSURE_NAME eevee_closure_glossy

6934  #define CLOSURE_GLOSSY

6935  #endif /* SURFACE_GLOSSY */

6936  

6937  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

6938  #define SURFACE_REFRACT

6939  #define CLOSURE_NAME eevee_closure_refraction

6940  #define CLOSURE_REFRACTION

6941  #endif /* SURFACE_REFRACT */

6942  

6943  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

6944  #define SURFACE_GLASS

6945  #define CLOSURE_NAME eevee_closure_glass

6946  #define CLOSURE_GLOSSY

6947  #define CLOSURE_REFRACTION

6948  #endif /* SURFACE_GLASS */

6949  

6950  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

6951  #ifdef CLOSURE_CLEARCOAT

6952  #ifndef CLOSURE_GLOSSY

6953  #  define CLOSURE_GLOSSY

6954  #endif

6955  #endif /* CLOSURE_CLEARCOAT */

6956  

6957  void CLOSURE_NAME(vec3 N

6958  #ifdef CLOSURE_DIFFUSE

6959                    ,

6960                    vec3 albedo

6961  #endif

6962  #ifdef CLOSURE_GLOSSY

6963                    ,

6964                    vec3 f0,

6965                    int ssr_id

6966  #endif

6967  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

6968                    ,

6969                    float roughness

6970  #endif

6971  #ifdef CLOSURE_CLEARCOAT

6972                    ,

6973                    vec3 C_N,

6974                    float C_intensity,

6975                    float C_roughness

6976  #endif

6977  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

6978                    ,

6979                    float ao

6980  #endif

6981  #ifdef CLOSURE_SUBSURFACE

6982                    ,

6983                    float sss_scale

6984  #endif

6985  #ifdef CLOSURE_REFRACTION

6986                    ,

6987                    float ior

6988  #endif

6989  #ifdef CLOSURE_DIFFUSE

6990                    ,

6991                    out vec3 out_diff

6992  #endif

6993  #ifdef CLOSURE_SUBSURFACE

6994                    ,

6995                    out vec3 out_trans

6996  #endif

6997  #ifdef CLOSURE_GLOSSY

6998                    ,

6999                    out vec3 out_spec

7000  #endif

7001  #ifdef CLOSURE_REFRACTION

7002                    ,

7003                    out vec3 out_refr

7004  #endif

7005  #ifdef CLOSURE_GLOSSY

7006                    ,

7007                    out vec3 ssr_spec

7008  #endif

7009  )

7010  {

7011  #ifdef CLOSURE_DIFFUSE

7012    out_diff = vec3(0.0);

7013  #endif

7014  

7015  #ifdef CLOSURE_SUBSURFACE

7016    out_trans = vec3(0.0);

7017  #endif

7018  

7019  #ifdef CLOSURE_GLOSSY

7020    out_spec = vec3(0.0);

7021  #endif

7022  

7023  #ifdef CLOSURE_REFRACTION

7024    out_refr = vec3(0.0);

7025  #endif

7026  

7027  #ifdef SHADOW_SHADER

7028    return;

7029  #endif

7030  

7031    /* Zero length vectors cause issues, see: T51979. */

7032    float len = length(N);

7033    if (isnan(len)) {

7034      return;

7035    }

7036    N /= len;

7037  

7038  #ifdef CLOSURE_CLEARCOAT

7039    len = length(C_N);

7040    if (isnan(len)) {

7041      return;

7042    }

7043    C_N /= len;

7044  #endif

7045  

7046  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7047    roughness = clamp(roughness, 1e-8, 0.9999);

7048    float roughnessSquared = roughness * roughness;

7049  #endif

7050  

7051  #ifdef CLOSURE_CLEARCOAT

7052    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

7053    float C_roughnessSquared = C_roughness * C_roughness;

7054  #endif

7055  

7056    vec3 V = cameraVec;

7057  

7058    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

7059  

7060    /* ---------------------------------------------------------------- */

7061    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

7062    /* ---------------------------------------------------------------- */

7063  

7064  #ifdef CLOSURE_GLOSSY

7065    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

7066    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

7067  #endif

7068  

7069  #ifdef CLOSURE_CLEARCOAT

7070    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

7071    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

7072    vec3 out_spec_clear = vec3(0.0);

7073  #endif

7074  

7075    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

7076      LightData ld = lights_data[i];

7077  

7078      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

7079      l_vector.xyz = ld.l_position - worldPosition;

7080      l_vector.w = length(l_vector.xyz);

7081  

7082      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

7083  

7084      if (l_vis < 1e-8) {

7085        continue;

7086      }

7087  

7088      vec3 l_color_vis = ld.l_color * l_vis;

7089  

7090  #ifdef CLOSURE_DIFFUSE

7091      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

7092  #endif

7093  

7094  #ifdef CLOSURE_SUBSURFACE

7095      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

7096  #endif

7097  

7098  #ifdef CLOSURE_GLOSSY

7099      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

7100  #endif

7101  

7102  #ifdef CLOSURE_CLEARCOAT

7103      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

7104                        ld.l_spec;

7105  #endif

7106    }

7107  

7108  #ifdef CLOSURE_GLOSSY

7109    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

7110    out_spec *= F_area(f0, brdf_lut_lights.xy);

7111  #endif

7112  

7113  #ifdef CLOSURE_CLEARCOAT

7114    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

7115    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

7116    out_spec += out_spec_clear * C_intensity;

7117  #endif

7118  

7119    /* ---------------------------------------------------------------- */

7120    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

7121    /* ---------------------------------------------------------------- */

7122  

7123    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7124  #ifdef CLOSURE_GLOSSY

7125    vec4 spec_accum = vec4(0.0);

7126  #endif

7127  

7128  #ifdef CLOSURE_CLEARCOAT

7129    vec4 C_spec_accum = vec4(0.0);

7130  #endif

7131  

7132  #ifdef CLOSURE_REFRACTION

7133    vec4 refr_accum = vec4(0.0);

7134  #endif

7135  

7136  #ifdef CLOSURE_GLOSSY

7137    /* ---------------------------- */

7138    /*      Planar Reflections      */

7139    /* ---------------------------- */

7140  

7141    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

7142      PlanarData pd = planars_data[i];

7143  

7144      /* Fade on geometric normal. */

7145      float fade = probe_attenuation_planar(

7146          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

7147  

7148      if (fade > 0.0) {

7149        if (!(ssrToggle && ssr_id == outputSsrId)) {

7150          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

7151          accumulate_light(spec, fade, spec_accum);

7152        }

7153  

7154  #ifdef CLOSURE_CLEARCOAT

7155        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

7156        accumulate_light(C_spec, fade, C_spec_accum);

7157  #endif

7158      }

7159    }

7160  #endif

7161  

7162  #ifdef CLOSURE_GLOSSY

7163    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

7164  #endif

7165  

7166  #ifdef CLOSURE_CLEARCOAT

7167    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

7168  #endif

7169  

7170  #ifdef CLOSURE_REFRACTION

7171    /* Refract the view vector using the depth heuristic.

7172     * Then later Refract a second time the already refracted

7173     * ray using the inverse ior. */

7174    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

7175    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

7176    vec3 refr_pos = (refractionDepth > 0.0) ?

7177                        line_plane_intersect(

7178                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

7179                        worldPosition;

7180    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

7181  #endif

7182  

7183  #ifdef CLOSURE_REFRACTION

7184  /* ---------------------------- */

7185  /*   Screen Space Refraction    */

7186  /* ---------------------------- */

7187  #ifdef USE_REFRACTION

7188    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

7189      /* Find approximated position of the 2nd refraction event. */

7190      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

7191                                                 viewPosition;

7192      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

7193      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

7194      accumulate_light(trans.rgb, trans.a, refr_accum);

7195    }

7196  #endif

7197  

7198  #endif

7199  

7200    /* ---------------------------- */

7201    /*       Specular probes        */

7202    /* ---------------------------- */

7203  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7204  

7205  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

7206  #  define GLASS_ACCUM 1

7207  #  define ACCUM min(refr_accum.a, spec_accum.a)

7208  #elif defined(CLOSURE_REFRACTION)

7209  #  define GLASS_ACCUM 0

7210  #  define ACCUM refr_accum.a

7211  #else

7212  #  define GLASS_ACCUM 0

7213  #  define ACCUM spec_accum.a

7214  #endif

7215  

7216    /* Starts at 1 because 0 is world probe */

7217    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

7218      float fade = probe_attenuation_cube(i, worldPosition);

7219  

7220      if (fade > 0.0) {

7221  

7222  #if GLASS_ACCUM

7223        if (spec_accum.a < 0.999) {

7224  #endif

7225  #ifdef CLOSURE_GLOSSY

7226          if (!(ssrToggle && ssr_id == outputSsrId)) {

7227            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

7228            accumulate_light(spec, fade, spec_accum);

7229          }

7230  #endif

7231  

7232  #ifdef CLOSURE_CLEARCOAT

7233          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

7234          accumulate_light(C_spec, fade, C_spec_accum);

7235  #endif

7236  #if GLASS_ACCUM

7237        }

7238  #endif

7239  

7240  #if GLASS_ACCUM

7241        if (refr_accum.a < 0.999) {

7242  #endif

7243  #ifdef CLOSURE_REFRACTION

7244          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

7245          accumulate_light(trans, fade, refr_accum);

7246  #endif

7247  #if GLASS_ACCUM

7248        }

7249  #endif

7250      }

7251    }

7252  

7253  #undef GLASS_ACCUM

7254  #undef ACCUM

7255  

7256  /* ---------------------------- */

7257  /*          World Probe         */

7258  /* ---------------------------- */

7259  #ifdef CLOSURE_GLOSSY

7260    if (spec_accum.a < 0.999) {

7261      if (!(ssrToggle && ssr_id == outputSsrId)) {

7262        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

7263        accumulate_light(spec, 1.0, spec_accum);

7264      }

7265  

7266  #  ifdef CLOSURE_CLEARCOAT

7267      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

7268      accumulate_light(C_spec, 1.0, C_spec_accum);

7269  #  endif

7270    }

7271  #endif

7272  

7273  #ifdef CLOSURE_REFRACTION

7274    if (refr_accum.a < 0.999) {

7275      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

7276      accumulate_light(trans, 1.0, refr_accum);

7277    }

7278  #endif

7279  #endif /* Specular probes */

7280  

7281    /* ---------------------------- */

7282    /*       Ambient Occlusion      */

7283    /* ---------------------------- */

7284  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

7285    vec3 bent_normal;

7286    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

7287  #endif

7288  

7289    /* ---------------------------- */

7290    /*        Specular Output       */

7291    /* ---------------------------- */

7292    float NV = dot(N, V);

7293  #ifdef CLOSURE_GLOSSY

7294    vec2 uv = lut_coords(NV, roughness);

7295    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

7296  

7297    /* This factor is outputted to be used by SSR in order

7298     * to match the intensity of the regular reflections. */

7299    ssr_spec = F_ibl(f0, brdf_lut);

7300    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

7301  

7302    /* The SSR pass recompute the occlusion to not apply it to the SSR */

7303    if (ssrToggle && ssr_id == outputSsrId) {

7304      spec_occlu = 1.0;

7305    }

7306  

7307    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

7308  #endif

7309  

7310  #ifdef CLOSURE_REFRACTION

7311    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

7312  

7313    out_refr += refr_accum.rgb * btdf;

7314  #endif

7315  

7316  #ifdef CLOSURE_CLEARCOAT

7317    NV = dot(C_N, V);

7318    vec2 C_uv = lut_coords(NV, C_roughness);

7319    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

7320    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

7321  

7322    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

7323  #endif

7324  

7325  #ifdef CLOSURE_GLOSSY

7326    /* Global toggle for lightprobe baking. */

7327    out_spec *= float(specToggle);

7328  #endif

7329  

7330    /* ---------------------------------------------------------------- */

7331    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

7332    /* ---------------------------------------------------------------- */

7333  

7334    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7335  #ifdef CLOSURE_DIFFUSE

7336    vec4 diff_accum = vec4(0.0);

7337  

7338    /* ---------------------------- */

7339    /*       Irradiance Grids       */

7340    /* ---------------------------- */

7341    /* Start at 1 because 0 is world irradiance */

7342    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

7343      GridData gd = grids_data[i];

7344  

7345      vec3 localpos;

7346      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

7347  

7348      if (fade > 0.0) {

7349        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

7350        accumulate_light(diff, fade, diff_accum);

7351      }

7352    }

7353  

7354    /* ---------------------------- */

7355    /*        World Diffuse         */

7356    /* ---------------------------- */

7357    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

7358      vec3 diff = probe_evaluate_world_diff(bent_normal);

7359      accumulate_light(diff, 1.0, diff_accum);

7360    }

7361  

7362    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

7363  #endif

7364  }

7365  

7366  /* Cleanup for next configuration */

7367  #undef CLOSURE_NAME

7368  

7369  #ifdef CLOSURE_DIFFUSE

7370  #undef CLOSURE_DIFFUSE

7371  #endif

7372  

7373  #ifdef CLOSURE_GLOSSY

7374  #undef CLOSURE_GLOSSY

7375  #endif

7376  

7377  #ifdef CLOSURE_CLEARCOAT

7378  #undef CLOSURE_CLEARCOAT

7379  #endif

7380  

7381  #ifdef CLOSURE_REFRACTION

7382  #undef CLOSURE_REFRACTION

7383  #endif

7384  

7385  #ifdef CLOSURE_SUBSURFACE

7386  #undef CLOSURE_SUBSURFACE

7387  #endif

7388  

7389  #ifndef LIT_SURFACE_UNIFORM

7390  #define LIT_SURFACE_UNIFORM

7391  

7392  uniform float refractionDepth;

7393  

7394  #ifndef UTIL_TEX

7395  #  define UTIL_TEX

7396  uniform sampler2DArray utilTex;

7397  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

7398  #endif /* UTIL_TEX */

7399  

7400  in vec3 worldPosition;

7401  in vec3 viewPosition;

7402  

7403  #ifdef USE_FLAT_NORMAL

7404  flat in vec3 worldNormal;

7405  flat in vec3 viewNormal;

7406  #else

7407  in vec3 worldNormal;

7408  in vec3 viewNormal;

7409  #endif

7410  

7411  #ifdef HAIR_SHADER

7412  in vec3 hairTangent; /* world space */

7413  in float hairThickTime;

7414  in float hairThickness;

7415  in float hairTime;

7416  flat in int hairStrandID;

7417  

7418  uniform int hairThicknessRes = 1;

7419  #endif

7420  

7421  #endif /* LIT_SURFACE_UNIFORM */

7422  

7423  /** AUTO CONFIG

7424   * We include the file multiple times each time with a different configuration.

7425   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

7426   */

7427  #if !defined(SURFACE_DEFAULT)

7428  #define SURFACE_DEFAULT

7429  #define CLOSURE_NAME eevee_closure_default

7430  #define CLOSURE_DIFFUSE

7431  #define CLOSURE_GLOSSY

7432  #endif /* SURFACE_DEFAULT */

7433  

7434  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

7435  #define SURFACE_PRINCIPLED

7436  #define CLOSURE_NAME eevee_closure_principled

7437  #define CLOSURE_DIFFUSE

7438  #define CLOSURE_GLOSSY

7439  #define CLOSURE_CLEARCOAT

7440  #define CLOSURE_REFRACTION

7441  #define CLOSURE_SUBSURFACE

7442  #endif /* SURFACE_PRINCIPLED */

7443  

7444  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

7445  #define SURFACE_CLEARCOAT

7446  #define CLOSURE_NAME eevee_closure_clearcoat

7447  #define CLOSURE_GLOSSY

7448  #define CLOSURE_CLEARCOAT

7449  #endif /* SURFACE_CLEARCOAT */

7450  

7451  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

7452  #define SURFACE_DIFFUSE

7453  #define CLOSURE_NAME eevee_closure_diffuse

7454  #define CLOSURE_DIFFUSE

7455  #endif /* SURFACE_DIFFUSE */

7456  

7457  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

7458  #define SURFACE_SUBSURFACE

7459  #define CLOSURE_NAME eevee_closure_subsurface

7460  #define CLOSURE_DIFFUSE

7461  #define CLOSURE_SUBSURFACE

7462  #endif /* SURFACE_SUBSURFACE */

7463  

7464  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

7465  #define SURFACE_SKIN

7466  #define CLOSURE_NAME eevee_closure_skin

7467  #define CLOSURE_DIFFUSE

7468  #define CLOSURE_SUBSURFACE

7469  #define CLOSURE_GLOSSY

7470  #endif /* SURFACE_SKIN */

7471  

7472  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

7473  #define SURFACE_GLOSSY

7474  #define CLOSURE_NAME eevee_closure_glossy

7475  #define CLOSURE_GLOSSY

7476  #endif /* SURFACE_GLOSSY */

7477  

7478  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

7479  #define SURFACE_REFRACT

7480  #define CLOSURE_NAME eevee_closure_refraction

7481  #define CLOSURE_REFRACTION

7482  #endif /* SURFACE_REFRACT */

7483  

7484  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

7485  #define SURFACE_GLASS

7486  #define CLOSURE_NAME eevee_closure_glass

7487  #define CLOSURE_GLOSSY

7488  #define CLOSURE_REFRACTION

7489  #endif /* SURFACE_GLASS */

7490  

7491  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

7492  #ifdef CLOSURE_CLEARCOAT

7493  #ifndef CLOSURE_GLOSSY

7494  #  define CLOSURE_GLOSSY

7495  #endif

7496  #endif /* CLOSURE_CLEARCOAT */

7497  

7498  void CLOSURE_NAME(vec3 N

7499  #ifdef CLOSURE_DIFFUSE

7500                    ,

7501                    vec3 albedo

7502  #endif

7503  #ifdef CLOSURE_GLOSSY

7504                    ,

7505                    vec3 f0,

7506                    int ssr_id

7507  #endif

7508  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7509                    ,

7510                    float roughness

7511  #endif

7512  #ifdef CLOSURE_CLEARCOAT

7513                    ,

7514                    vec3 C_N,

7515                    float C_intensity,

7516                    float C_roughness

7517  #endif

7518  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

7519                    ,

7520                    float ao

7521  #endif

7522  #ifdef CLOSURE_SUBSURFACE

7523                    ,

7524                    float sss_scale

7525  #endif

7526  #ifdef CLOSURE_REFRACTION

7527                    ,

7528                    float ior

7529  #endif

7530  #ifdef CLOSURE_DIFFUSE

7531                    ,

7532                    out vec3 out_diff

7533  #endif

7534  #ifdef CLOSURE_SUBSURFACE

7535                    ,

7536                    out vec3 out_trans

7537  #endif

7538  #ifdef CLOSURE_GLOSSY

7539                    ,

7540                    out vec3 out_spec

7541  #endif

7542  #ifdef CLOSURE_REFRACTION

7543                    ,

7544                    out vec3 out_refr

7545  #endif

7546  #ifdef CLOSURE_GLOSSY

7547                    ,

7548                    out vec3 ssr_spec

7549  #endif

7550  )

7551  {

7552  #ifdef CLOSURE_DIFFUSE

7553    out_diff = vec3(0.0);

7554  #endif

7555  

7556  #ifdef CLOSURE_SUBSURFACE

7557    out_trans = vec3(0.0);

7558  #endif

7559  

7560  #ifdef CLOSURE_GLOSSY

7561    out_spec = vec3(0.0);

7562  #endif

7563  

7564  #ifdef CLOSURE_REFRACTION

7565    out_refr = vec3(0.0);

7566  #endif

7567  

7568  #ifdef SHADOW_SHADER

7569    return;

7570  #endif

7571  

7572    /* Zero length vectors cause issues, see: T51979. */

7573    float len = length(N);

7574    if (isnan(len)) {

7575      return;

7576    }

7577    N /= len;

7578  

7579  #ifdef CLOSURE_CLEARCOAT

7580    len = length(C_N);

7581    if (isnan(len)) {

7582      return;

7583    }

7584    C_N /= len;

7585  #endif

7586  

7587  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7588    roughness = clamp(roughness, 1e-8, 0.9999);

7589    float roughnessSquared = roughness * roughness;

7590  #endif

7591  

7592  #ifdef CLOSURE_CLEARCOAT

7593    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

7594    float C_roughnessSquared = C_roughness * C_roughness;

7595  #endif

7596  

7597    vec3 V = cameraVec;

7598  

7599    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

7600  

7601    /* ---------------------------------------------------------------- */

7602    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

7603    /* ---------------------------------------------------------------- */

7604  

7605  #ifdef CLOSURE_GLOSSY

7606    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

7607    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

7608  #endif

7609  

7610  #ifdef CLOSURE_CLEARCOAT

7611    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

7612    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

7613    vec3 out_spec_clear = vec3(0.0);

7614  #endif

7615  

7616    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

7617      LightData ld = lights_data[i];

7618  

7619      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

7620      l_vector.xyz = ld.l_position - worldPosition;

7621      l_vector.w = length(l_vector.xyz);

7622  

7623      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

7624  

7625      if (l_vis < 1e-8) {

7626        continue;

7627      }

7628  

7629      vec3 l_color_vis = ld.l_color * l_vis;

7630  

7631  #ifdef CLOSURE_DIFFUSE

7632      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

7633  #endif

7634  

7635  #ifdef CLOSURE_SUBSURFACE

7636      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

7637  #endif

7638  

7639  #ifdef CLOSURE_GLOSSY

7640      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

7641  #endif

7642  

7643  #ifdef CLOSURE_CLEARCOAT

7644      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

7645                        ld.l_spec;

7646  #endif

7647    }

7648  

7649  #ifdef CLOSURE_GLOSSY

7650    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

7651    out_spec *= F_area(f0, brdf_lut_lights.xy);

7652  #endif

7653  

7654  #ifdef CLOSURE_CLEARCOAT

7655    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

7656    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

7657    out_spec += out_spec_clear * C_intensity;

7658  #endif

7659  

7660    /* ---------------------------------------------------------------- */

7661    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

7662    /* ---------------------------------------------------------------- */

7663  

7664    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7665  #ifdef CLOSURE_GLOSSY

7666    vec4 spec_accum = vec4(0.0);

7667  #endif

7668  

7669  #ifdef CLOSURE_CLEARCOAT

7670    vec4 C_spec_accum = vec4(0.0);

7671  #endif

7672  

7673  #ifdef CLOSURE_REFRACTION

7674    vec4 refr_accum = vec4(0.0);

7675  #endif

7676  

7677  #ifdef CLOSURE_GLOSSY

7678    /* ---------------------------- */

7679    /*      Planar Reflections      */

7680    /* ---------------------------- */

7681  

7682    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

7683      PlanarData pd = planars_data[i];

7684  

7685      /* Fade on geometric normal. */

7686      float fade = probe_attenuation_planar(

7687          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

7688  

7689      if (fade > 0.0) {

7690        if (!(ssrToggle && ssr_id == outputSsrId)) {

7691          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

7692          accumulate_light(spec, fade, spec_accum);

7693        }

7694  

7695  #ifdef CLOSURE_CLEARCOAT

7696        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

7697        accumulate_light(C_spec, fade, C_spec_accum);

7698  #endif

7699      }

7700    }

7701  #endif

7702  

7703  #ifdef CLOSURE_GLOSSY

7704    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

7705  #endif

7706  

7707  #ifdef CLOSURE_CLEARCOAT

7708    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

7709  #endif

7710  

7711  #ifdef CLOSURE_REFRACTION

7712    /* Refract the view vector using the depth heuristic.

7713     * Then later Refract a second time the already refracted

7714     * ray using the inverse ior. */

7715    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

7716    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

7717    vec3 refr_pos = (refractionDepth > 0.0) ?

7718                        line_plane_intersect(

7719                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

7720                        worldPosition;

7721    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

7722  #endif

7723  

7724  #ifdef CLOSURE_REFRACTION

7725  /* ---------------------------- */

7726  /*   Screen Space Refraction    */

7727  /* ---------------------------- */

7728  #ifdef USE_REFRACTION

7729    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

7730      /* Find approximated position of the 2nd refraction event. */

7731      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

7732                                                 viewPosition;

7733      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

7734      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

7735      accumulate_light(trans.rgb, trans.a, refr_accum);

7736    }

7737  #endif

7738  

7739  #endif

7740  

7741    /* ---------------------------- */

7742    /*       Specular probes        */

7743    /* ---------------------------- */

7744  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

7745  

7746  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

7747  #  define GLASS_ACCUM 1

7748  #  define ACCUM min(refr_accum.a, spec_accum.a)

7749  #elif defined(CLOSURE_REFRACTION)

7750  #  define GLASS_ACCUM 0

7751  #  define ACCUM refr_accum.a

7752  #else

7753  #  define GLASS_ACCUM 0

7754  #  define ACCUM spec_accum.a

7755  #endif

7756  

7757    /* Starts at 1 because 0 is world probe */

7758    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

7759      float fade = probe_attenuation_cube(i, worldPosition);

7760  

7761      if (fade > 0.0) {

7762  

7763  #if GLASS_ACCUM

7764        if (spec_accum.a < 0.999) {

7765  #endif

7766  #ifdef CLOSURE_GLOSSY

7767          if (!(ssrToggle && ssr_id == outputSsrId)) {

7768            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

7769            accumulate_light(spec, fade, spec_accum);

7770          }

7771  #endif

7772  

7773  #ifdef CLOSURE_CLEARCOAT

7774          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

7775          accumulate_light(C_spec, fade, C_spec_accum);

7776  #endif

7777  #if GLASS_ACCUM

7778        }

7779  #endif

7780  

7781  #if GLASS_ACCUM

7782        if (refr_accum.a < 0.999) {

7783  #endif

7784  #ifdef CLOSURE_REFRACTION

7785          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

7786          accumulate_light(trans, fade, refr_accum);

7787  #endif

7788  #if GLASS_ACCUM

7789        }

7790  #endif

7791      }

7792    }

7793  

7794  #undef GLASS_ACCUM

7795  #undef ACCUM

7796  

7797  /* ---------------------------- */

7798  /*          World Probe         */

7799  /* ---------------------------- */

7800  #ifdef CLOSURE_GLOSSY

7801    if (spec_accum.a < 0.999) {

7802      if (!(ssrToggle && ssr_id == outputSsrId)) {

7803        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

7804        accumulate_light(spec, 1.0, spec_accum);

7805      }

7806  

7807  #  ifdef CLOSURE_CLEARCOAT

7808      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

7809      accumulate_light(C_spec, 1.0, C_spec_accum);

7810  #  endif

7811    }

7812  #endif

7813  

7814  #ifdef CLOSURE_REFRACTION

7815    if (refr_accum.a < 0.999) {

7816      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

7817      accumulate_light(trans, 1.0, refr_accum);

7818    }

7819  #endif

7820  #endif /* Specular probes */

7821  

7822    /* ---------------------------- */

7823    /*       Ambient Occlusion      */

7824    /* ---------------------------- */

7825  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

7826    vec3 bent_normal;

7827    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

7828  #endif

7829  

7830    /* ---------------------------- */

7831    /*        Specular Output       */

7832    /* ---------------------------- */

7833    float NV = dot(N, V);

7834  #ifdef CLOSURE_GLOSSY

7835    vec2 uv = lut_coords(NV, roughness);

7836    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

7837  

7838    /* This factor is outputted to be used by SSR in order

7839     * to match the intensity of the regular reflections. */

7840    ssr_spec = F_ibl(f0, brdf_lut);

7841    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

7842  

7843    /* The SSR pass recompute the occlusion to not apply it to the SSR */

7844    if (ssrToggle && ssr_id == outputSsrId) {

7845      spec_occlu = 1.0;

7846    }

7847  

7848    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

7849  #endif

7850  

7851  #ifdef CLOSURE_REFRACTION

7852    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

7853  

7854    out_refr += refr_accum.rgb * btdf;

7855  #endif

7856  

7857  #ifdef CLOSURE_CLEARCOAT

7858    NV = dot(C_N, V);

7859    vec2 C_uv = lut_coords(NV, C_roughness);

7860    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

7861    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

7862  

7863    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

7864  #endif

7865  

7866  #ifdef CLOSURE_GLOSSY

7867    /* Global toggle for lightprobe baking. */

7868    out_spec *= float(specToggle);

7869  #endif

7870  

7871    /* ---------------------------------------------------------------- */

7872    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

7873    /* ---------------------------------------------------------------- */

7874  

7875    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

7876  #ifdef CLOSURE_DIFFUSE

7877    vec4 diff_accum = vec4(0.0);

7878  

7879    /* ---------------------------- */

7880    /*       Irradiance Grids       */

7881    /* ---------------------------- */

7882    /* Start at 1 because 0 is world irradiance */

7883    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

7884      GridData gd = grids_data[i];

7885  

7886      vec3 localpos;

7887      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

7888  

7889      if (fade > 0.0) {

7890        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

7891        accumulate_light(diff, fade, diff_accum);

7892      }

7893    }

7894  

7895    /* ---------------------------- */

7896    /*        World Diffuse         */

7897    /* ---------------------------- */

7898    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

7899      vec3 diff = probe_evaluate_world_diff(bent_normal);

7900      accumulate_light(diff, 1.0, diff_accum);

7901    }

7902  

7903    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

7904  #endif

7905  }

7906  

7907  /* Cleanup for next configuration */

7908  #undef CLOSURE_NAME

7909  

7910  #ifdef CLOSURE_DIFFUSE

7911  #undef CLOSURE_DIFFUSE

7912  #endif

7913  

7914  #ifdef CLOSURE_GLOSSY

7915  #undef CLOSURE_GLOSSY

7916  #endif

7917  

7918  #ifdef CLOSURE_CLEARCOAT

7919  #undef CLOSURE_CLEARCOAT

7920  #endif

7921  

7922  #ifdef CLOSURE_REFRACTION

7923  #undef CLOSURE_REFRACTION

7924  #endif

7925  

7926  #ifdef CLOSURE_SUBSURFACE

7927  #undef CLOSURE_SUBSURFACE

7928  #endif

7929  

7930  #ifndef LIT_SURFACE_UNIFORM

7931  #define LIT_SURFACE_UNIFORM

7932  

7933  uniform float refractionDepth;

7934  

7935  #ifndef UTIL_TEX

7936  #  define UTIL_TEX

7937  uniform sampler2DArray utilTex;

7938  #  define texelfetch_noise_tex(coord) texelFetch(utilTex, ivec3(ivec2(coord) % LUT_SIZE, 2.0), 0)

7939  #endif /* UTIL_TEX */

7940  

7941  in vec3 worldPosition;

7942  in vec3 viewPosition;

7943  

7944  #ifdef USE_FLAT_NORMAL

7945  flat in vec3 worldNormal;

7946  flat in vec3 viewNormal;

7947  #else

7948  in vec3 worldNormal;

7949  in vec3 viewNormal;

7950  #endif

7951  

7952  #ifdef HAIR_SHADER

7953  in vec3 hairTangent; /* world space */

7954  in float hairThickTime;

7955  in float hairThickness;

7956  in float hairTime;

7957  flat in int hairStrandID;

7958  

7959  uniform int hairThicknessRes = 1;

7960  #endif

7961  

7962  #endif /* LIT_SURFACE_UNIFORM */

7963  

7964  /** AUTO CONFIG

7965   * We include the file multiple times each time with a different configuration.

7966   * This leads to a lot of deadcode. Better idea would be to only generate the one needed.

7967   */

7968  #if !defined(SURFACE_DEFAULT)

7969  #define SURFACE_DEFAULT

7970  #define CLOSURE_NAME eevee_closure_default

7971  #define CLOSURE_DIFFUSE

7972  #define CLOSURE_GLOSSY

7973  #endif /* SURFACE_DEFAULT */

7974  

7975  #if !defined(SURFACE_PRINCIPLED) && !defined(CLOSURE_NAME)

7976  #define SURFACE_PRINCIPLED

7977  #define CLOSURE_NAME eevee_closure_principled

7978  #define CLOSURE_DIFFUSE

7979  #define CLOSURE_GLOSSY

7980  #define CLOSURE_CLEARCOAT

7981  #define CLOSURE_REFRACTION

7982  #define CLOSURE_SUBSURFACE

7983  #endif /* SURFACE_PRINCIPLED */

7984  

7985  #if !defined(SURFACE_CLEARCOAT) && !defined(CLOSURE_NAME)

7986  #define SURFACE_CLEARCOAT

7987  #define CLOSURE_NAME eevee_closure_clearcoat

7988  #define CLOSURE_GLOSSY

7989  #define CLOSURE_CLEARCOAT

7990  #endif /* SURFACE_CLEARCOAT */

7991  

7992  #if !defined(SURFACE_DIFFUSE) && !defined(CLOSURE_NAME)

7993  #define SURFACE_DIFFUSE

7994  #define CLOSURE_NAME eevee_closure_diffuse

7995  #define CLOSURE_DIFFUSE

7996  #endif /* SURFACE_DIFFUSE */

7997  

7998  #if !defined(SURFACE_SUBSURFACE) && !defined(CLOSURE_NAME)

7999  #define SURFACE_SUBSURFACE

8000  #define CLOSURE_NAME eevee_closure_subsurface

8001  #define CLOSURE_DIFFUSE

8002  #define CLOSURE_SUBSURFACE

8003  #endif /* SURFACE_SUBSURFACE */

8004  

8005  #if !defined(SURFACE_SKIN) && !defined(CLOSURE_NAME)

8006  #define SURFACE_SKIN

8007  #define CLOSURE_NAME eevee_closure_skin

8008  #define CLOSURE_DIFFUSE

8009  #define CLOSURE_SUBSURFACE

8010  #define CLOSURE_GLOSSY

8011  #endif /* SURFACE_SKIN */

8012  

8013  #if !defined(SURFACE_GLOSSY) && !defined(CLOSURE_NAME)

8014  #define SURFACE_GLOSSY

8015  #define CLOSURE_NAME eevee_closure_glossy

8016  #define CLOSURE_GLOSSY

8017  #endif /* SURFACE_GLOSSY */

8018  

8019  #if !defined(SURFACE_REFRACT) && !defined(CLOSURE_NAME)

8020  #define SURFACE_REFRACT

8021  #define CLOSURE_NAME eevee_closure_refraction

8022  #define CLOSURE_REFRACTION

8023  #endif /* SURFACE_REFRACT */

8024  

8025  #if !defined(SURFACE_GLASS) && !defined(CLOSURE_NAME)

8026  #define SURFACE_GLASS

8027  #define CLOSURE_NAME eevee_closure_glass

8028  #define CLOSURE_GLOSSY

8029  #define CLOSURE_REFRACTION

8030  #endif /* SURFACE_GLASS */

8031  

8032  /* Safety : CLOSURE_CLEARCOAT implies CLOSURE_GLOSSY */

8033  #ifdef CLOSURE_CLEARCOAT

8034  #ifndef CLOSURE_GLOSSY

8035  #  define CLOSURE_GLOSSY

8036  #endif

8037  #endif /* CLOSURE_CLEARCOAT */

8038  

8039  void CLOSURE_NAME(vec3 N

8040  #ifdef CLOSURE_DIFFUSE

8041                    ,

8042                    vec3 albedo

8043  #endif

8044  #ifdef CLOSURE_GLOSSY

8045                    ,

8046                    vec3 f0,

8047                    int ssr_id

8048  #endif

8049  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

8050                    ,

8051                    float roughness

8052  #endif

8053  #ifdef CLOSURE_CLEARCOAT

8054                    ,

8055                    vec3 C_N,

8056                    float C_intensity,

8057                    float C_roughness

8058  #endif

8059  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

8060                    ,

8061                    float ao

8062  #endif

8063  #ifdef CLOSURE_SUBSURFACE

8064                    ,

8065                    float sss_scale

8066  #endif

8067  #ifdef CLOSURE_REFRACTION

8068                    ,

8069                    float ior

8070  #endif

8071  #ifdef CLOSURE_DIFFUSE

8072                    ,

8073                    out vec3 out_diff

8074  #endif

8075  #ifdef CLOSURE_SUBSURFACE

8076                    ,

8077                    out vec3 out_trans

8078  #endif

8079  #ifdef CLOSURE_GLOSSY

8080                    ,

8081                    out vec3 out_spec

8082  #endif

8083  #ifdef CLOSURE_REFRACTION

8084                    ,

8085                    out vec3 out_refr

8086  #endif

8087  #ifdef CLOSURE_GLOSSY

8088                    ,

8089                    out vec3 ssr_spec

8090  #endif

8091  )

8092  {

8093  #ifdef CLOSURE_DIFFUSE

8094    out_diff = vec3(0.0);

8095  #endif

8096  

8097  #ifdef CLOSURE_SUBSURFACE

8098    out_trans = vec3(0.0);

8099  #endif

8100  

8101  #ifdef CLOSURE_GLOSSY

8102    out_spec = vec3(0.0);

8103  #endif

8104  

8105  #ifdef CLOSURE_REFRACTION

8106    out_refr = vec3(0.0);

8107  #endif

8108  

8109  #ifdef SHADOW_SHADER

8110    return;

8111  #endif

8112  

8113    /* Zero length vectors cause issues, see: T51979. */

8114    float len = length(N);

8115    if (isnan(len)) {

8116      return;

8117    }

8118    N /= len;

8119  

8120  #ifdef CLOSURE_CLEARCOAT

8121    len = length(C_N);

8122    if (isnan(len)) {

8123      return;

8124    }

8125    C_N /= len;

8126  #endif

8127  

8128  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

8129    roughness = clamp(roughness, 1e-8, 0.9999);

8130    float roughnessSquared = roughness * roughness;

8131  #endif

8132  

8133  #ifdef CLOSURE_CLEARCOAT

8134    C_roughness = clamp(C_roughness, 1e-8, 0.9999);

8135    float C_roughnessSquared = C_roughness * C_roughness;

8136  #endif

8137  

8138    vec3 V = cameraVec;

8139  

8140    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

8141  

8142    /* ---------------------------------------------------------------- */

8143    /* -------------------- SCENE LIGHTS LIGHTING --------------------- */

8144    /* ---------------------------------------------------------------- */

8145  

8146  #ifdef CLOSURE_GLOSSY

8147    vec2 lut_uv = lut_coords_ltc(dot(N, V), roughness);

8148    vec4 ltc_mat = texture(utilTex, vec3(lut_uv, 0.0)).rgba;

8149  #endif

8150  

8151  #ifdef CLOSURE_CLEARCOAT

8152    vec2 lut_uv_clear = lut_coords_ltc(dot(C_N, V), C_roughness);

8153    vec4 ltc_mat_clear = texture(utilTex, vec3(lut_uv_clear, 0.0)).rgba;

8154    vec3 out_spec_clear = vec3(0.0);

8155  #endif

8156  

8157    for (int i = 0; i < MAX_LIGHT && i < laNumLight; ++i) {

8158      LightData ld = lights_data[i];

8159  

8160      vec4 l_vector; /* Non-Normalized Light Vector with length in last component. */

8161      l_vector.xyz = ld.l_position - worldPosition;

8162      l_vector.w = length(l_vector.xyz);

8163  

8164      float l_vis = light_visibility(ld, worldPosition, viewPosition, viewNormal, l_vector);

8165  

8166      if (l_vis < 1e-8) {

8167        continue;

8168      }

8169  

8170      vec3 l_color_vis = ld.l_color * l_vis;

8171  

8172  #ifdef CLOSURE_DIFFUSE

8173      out_diff += l_color_vis * light_diffuse(ld, N, V, l_vector);

8174  #endif

8175  

8176  #ifdef CLOSURE_SUBSURFACE

8177      out_trans += ld.l_color * light_translucent(ld, worldPosition, -N, l_vector, sss_scale);

8178  #endif

8179  

8180  #ifdef CLOSURE_GLOSSY

8181      out_spec += l_color_vis * light_specular(ld, ltc_mat, N, V, l_vector) * ld.l_spec;

8182  #endif

8183  

8184  #ifdef CLOSURE_CLEARCOAT

8185      out_spec_clear += l_color_vis * light_specular(ld, ltc_mat_clear, C_N, V, l_vector) *

8186                        ld.l_spec;

8187  #endif

8188    }

8189  

8190  #ifdef CLOSURE_GLOSSY

8191    vec2 brdf_lut_lights = texture(utilTex, vec3(lut_uv, 1.0)).ba;

8192    out_spec *= F_area(f0, brdf_lut_lights.xy);

8193  #endif

8194  

8195  #ifdef CLOSURE_CLEARCOAT

8196    vec2 brdf_lut_lights_clear = texture(utilTex, vec3(lut_uv_clear, 1.0)).ba;

8197    out_spec_clear *= F_area(vec3(0.04), brdf_lut_lights_clear.xy);

8198    out_spec += out_spec_clear * C_intensity;

8199  #endif

8200  

8201    /* ---------------------------------------------------------------- */

8202    /* ---------------- SPECULAR ENVIRONMENT LIGHTING ----------------- */

8203    /* ---------------------------------------------------------------- */

8204  

8205    /* Accumulate incoming light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

8206  #ifdef CLOSURE_GLOSSY

8207    vec4 spec_accum = vec4(0.0);

8208  #endif

8209  

8210  #ifdef CLOSURE_CLEARCOAT

8211    vec4 C_spec_accum = vec4(0.0);

8212  #endif

8213  

8214  #ifdef CLOSURE_REFRACTION

8215    vec4 refr_accum = vec4(0.0);

8216  #endif

8217  

8218  #ifdef CLOSURE_GLOSSY

8219    /* ---------------------------- */

8220    /*      Planar Reflections      */

8221    /* ---------------------------- */

8222  

8223    for (int i = 0; i < MAX_PLANAR && i < prbNumPlanar && spec_accum.a < 0.999; ++i) {

8224      PlanarData pd = planars_data[i];

8225  

8226      /* Fade on geometric normal. */

8227      float fade = probe_attenuation_planar(

8228          pd, worldPosition, (gl_FrontFacing) ? worldNormal : -worldNormal, roughness);

8229  

8230      if (fade > 0.0) {

8231        if (!(ssrToggle && ssr_id == outputSsrId)) {

8232          vec3 spec = probe_evaluate_planar(float(i), pd, worldPosition, N, V, roughness, fade);

8233          accumulate_light(spec, fade, spec_accum);

8234        }

8235  

8236  #ifdef CLOSURE_CLEARCOAT

8237        vec3 C_spec = probe_evaluate_planar(float(i), pd, worldPosition, C_N, V, C_roughness, fade);

8238        accumulate_light(C_spec, fade, C_spec_accum);

8239  #endif

8240      }

8241    }

8242  #endif

8243  

8244  #ifdef CLOSURE_GLOSSY

8245    vec3 spec_dir = get_specular_reflection_dominant_dir(N, V, roughnessSquared);

8246  #endif

8247  

8248  #ifdef CLOSURE_CLEARCOAT

8249    vec3 C_spec_dir = get_specular_reflection_dominant_dir(C_N, V, C_roughnessSquared);

8250  #endif

8251  

8252  #ifdef CLOSURE_REFRACTION

8253    /* Refract the view vector using the depth heuristic.

8254     * Then later Refract a second time the already refracted

8255     * ray using the inverse ior. */

8256    float final_ior = (refractionDepth > 0.0) ? 1.0 / ior : ior;

8257    vec3 refr_V = (refractionDepth > 0.0) ? -refract(-V, N, final_ior) : V;

8258    vec3 refr_pos = (refractionDepth > 0.0) ?

8259                        line_plane_intersect(

8260                            worldPosition, refr_V, worldPosition - N * refractionDepth, N) :

8261                        worldPosition;

8262    vec3 refr_dir = get_specular_refraction_dominant_dir(N, refr_V, roughness, final_ior);

8263  #endif

8264  

8265  #ifdef CLOSURE_REFRACTION

8266  /* ---------------------------- */

8267  /*   Screen Space Refraction    */

8268  /* ---------------------------- */

8269  #ifdef USE_REFRACTION

8270    if (ssrToggle && roughness < ssrMaxRoughness + 0.2) {

8271      /* Find approximated position of the 2nd refraction event. */

8272      vec3 refr_vpos = (refractionDepth > 0.0) ? transform_point(ViewMatrix, refr_pos) :

8273                                                 viewPosition;

8274      vec4 trans = screen_space_refraction(refr_vpos, N, refr_V, final_ior, roughnessSquared, rand);

8275      trans.a *= smoothstep(ssrMaxRoughness + 0.2, ssrMaxRoughness, roughness);

8276      accumulate_light(trans.rgb, trans.a, refr_accum);

8277    }

8278  #endif

8279  

8280  #endif

8281  

8282    /* ---------------------------- */

8283    /*       Specular probes        */

8284    /* ---------------------------- */

8285  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_REFRACTION)

8286  

8287  #if defined(CLOSURE_GLOSSY) && defined(CLOSURE_REFRACTION)

8288  #  define GLASS_ACCUM 1

8289  #  define ACCUM min(refr_accum.a, spec_accum.a)

8290  #elif defined(CLOSURE_REFRACTION)

8291  #  define GLASS_ACCUM 0

8292  #  define ACCUM refr_accum.a

8293  #else

8294  #  define GLASS_ACCUM 0

8295  #  define ACCUM spec_accum.a

8296  #endif

8297  

8298    /* Starts at 1 because 0 is world probe */

8299    for (int i = 1; ACCUM < 0.999 && i < prbNumRenderCube && i < MAX_PROBE; ++i) {

8300      float fade = probe_attenuation_cube(i, worldPosition);

8301  

8302      if (fade > 0.0) {

8303  

8304  #if GLASS_ACCUM

8305        if (spec_accum.a < 0.999) {

8306  #endif

8307  #ifdef CLOSURE_GLOSSY

8308          if (!(ssrToggle && ssr_id == outputSsrId)) {

8309            vec3 spec = probe_evaluate_cube(i, worldPosition, spec_dir, roughness);

8310            accumulate_light(spec, fade, spec_accum);

8311          }

8312  #endif

8313  

8314  #ifdef CLOSURE_CLEARCOAT

8315          vec3 C_spec = probe_evaluate_cube(i, worldPosition, C_spec_dir, C_roughness);

8316          accumulate_light(C_spec, fade, C_spec_accum);

8317  #endif

8318  #if GLASS_ACCUM

8319        }

8320  #endif

8321  

8322  #if GLASS_ACCUM

8323        if (refr_accum.a < 0.999) {

8324  #endif

8325  #ifdef CLOSURE_REFRACTION

8326          vec3 trans = probe_evaluate_cube(i, refr_pos, refr_dir, roughnessSquared);

8327          accumulate_light(trans, fade, refr_accum);

8328  #endif

8329  #if GLASS_ACCUM

8330        }

8331  #endif

8332      }

8333    }

8334  

8335  #undef GLASS_ACCUM

8336  #undef ACCUM

8337  

8338  /* ---------------------------- */

8339  /*          World Probe         */

8340  /* ---------------------------- */

8341  #ifdef CLOSURE_GLOSSY

8342    if (spec_accum.a < 0.999) {

8343      if (!(ssrToggle && ssr_id == outputSsrId)) {

8344        vec3 spec = probe_evaluate_world_spec(spec_dir, roughness);

8345        accumulate_light(spec, 1.0, spec_accum);

8346      }

8347  

8348  #  ifdef CLOSURE_CLEARCOAT

8349      vec3 C_spec = probe_evaluate_world_spec(C_spec_dir, C_roughness);

8350      accumulate_light(C_spec, 1.0, C_spec_accum);

8351  #  endif

8352    }

8353  #endif

8354  

8355  #ifdef CLOSURE_REFRACTION

8356    if (refr_accum.a < 0.999) {

8357      vec3 trans = probe_evaluate_world_spec(refr_dir, roughnessSquared);

8358      accumulate_light(trans, 1.0, refr_accum);

8359    }

8360  #endif

8361  #endif /* Specular probes */

8362  

8363    /* ---------------------------- */

8364    /*       Ambient Occlusion      */

8365    /* ---------------------------- */

8366  #if defined(CLOSURE_GLOSSY) || defined(CLOSURE_DIFFUSE)

8367    vec3 bent_normal;

8368    float final_ao = occlusion_compute(N, viewPosition, ao, rand, bent_normal);

8369  #endif

8370  

8371    /* ---------------------------- */

8372    /*        Specular Output       */

8373    /* ---------------------------- */

8374    float NV = dot(N, V);

8375  #ifdef CLOSURE_GLOSSY

8376    vec2 uv = lut_coords(NV, roughness);

8377    vec2 brdf_lut = texture(utilTex, vec3(uv, 1.0)).rg;

8378  

8379    /* This factor is outputted to be used by SSR in order

8380     * to match the intensity of the regular reflections. */

8381    ssr_spec = F_ibl(f0, brdf_lut);

8382    float spec_occlu = specular_occlusion(NV, final_ao, roughness);

8383  

8384    /* The SSR pass recompute the occlusion to not apply it to the SSR */

8385    if (ssrToggle && ssr_id == outputSsrId) {

8386      spec_occlu = 1.0;

8387    }

8388  

8389    out_spec += spec_accum.rgb * ssr_spec * spec_occlu;

8390  #endif

8391  

8392  #ifdef CLOSURE_REFRACTION

8393    float btdf = get_btdf_lut(utilTex, NV, roughness, ior);

8394  

8395    out_refr += refr_accum.rgb * btdf;

8396  #endif

8397  

8398  #ifdef CLOSURE_CLEARCOAT

8399    NV = dot(C_N, V);

8400    vec2 C_uv = lut_coords(NV, C_roughness);

8401    vec2 C_brdf_lut = texture(utilTex, vec3(C_uv, 1.0)).rg;

8402    vec3 C_fresnel = F_ibl(vec3(0.04), C_brdf_lut) * specular_occlusion(NV, final_ao, C_roughness);

8403  

8404    out_spec += C_spec_accum.rgb * C_fresnel * C_intensity;

8405  #endif

8406  

8407  #ifdef CLOSURE_GLOSSY

8408    /* Global toggle for lightprobe baking. */

8409    out_spec *= float(specToggle);

8410  #endif

8411  

8412    /* ---------------------------------------------------------------- */

8413    /* ---------------- DIFFUSE ENVIRONMENT LIGHTING ------------------ */

8414    /* ---------------------------------------------------------------- */

8415  

8416    /* Accumulate light from all sources until accumulator is full. Then apply Occlusion and BRDF. */

8417  #ifdef CLOSURE_DIFFUSE

8418    vec4 diff_accum = vec4(0.0);

8419  

8420    /* ---------------------------- */

8421    /*       Irradiance Grids       */

8422    /* ---------------------------- */

8423    /* Start at 1 because 0 is world irradiance */

8424    for (int i = 1; i < MAX_GRID && i < prbNumRenderGrid && diff_accum.a < 0.999; ++i) {

8425      GridData gd = grids_data[i];

8426  

8427      vec3 localpos;

8428      float fade = probe_attenuation_grid(gd, grids_data[i].localmat, worldPosition, localpos);

8429  

8430      if (fade > 0.0) {

8431        vec3 diff = probe_evaluate_grid(gd, worldPosition, bent_normal, localpos);

8432        accumulate_light(diff, fade, diff_accum);

8433      }

8434    }

8435  

8436    /* ---------------------------- */

8437    /*        World Diffuse         */

8438    /* ---------------------------- */

8439    if (diff_accum.a < 0.999 && prbNumRenderGrid > 0) {

8440      vec3 diff = probe_evaluate_world_diff(bent_normal);

8441      accumulate_light(diff, 1.0, diff_accum);

8442    }

8443  

8444    out_diff += diff_accum.rgb * gtao_multibounce(final_ao, albedo);

8445  #endif

8446  }

8447  

8448  /* Cleanup for next configuration */

8449  #undef CLOSURE_NAME

8450  

8451  #ifdef CLOSURE_DIFFUSE

8452  #undef CLOSURE_DIFFUSE

8453  #endif

8454  

8455  #ifdef CLOSURE_GLOSSY

8456  #undef CLOSURE_GLOSSY

8457  #endif

8458  

8459  #ifdef CLOSURE_CLEARCOAT

8460  #undef CLOSURE_CLEARCOAT

8461  #endif

8462  

8463  #ifdef CLOSURE_REFRACTION

8464  #undef CLOSURE_REFRACTION

8465  #endif

8466  

8467  #ifdef CLOSURE_SUBSURFACE

8468  #undef CLOSURE_SUBSURFACE

8469  #endif

8470  

8471  /* Based on Frosbite Unified Volumetric.

8472   * https://www.ea.com/frostbite/news/physically-based-unified-volumetric-rendering-in-frostbite */

8473  

8474  /* Volume slice to view space depth. */

8475  float volume_z_to_view_z(float z)

8476  {

8477    if (ProjectionMatrix[3][3] == 0.0) {

8478      /* Exponential distribution */

8479      return (exp2(z / volDepthParameters.z) - volDepthParameters.x) / volDepthParameters.y;

8480    }

8481    else {

8482      /* Linear distribution */

8483      return mix(volDepthParameters.x, volDepthParameters.y, z);

8484    }

8485  }

8486  

8487  float view_z_to_volume_z(float depth)

8488  {

8489    if (ProjectionMatrix[3][3] == 0.0) {

8490      /* Exponential distribution */

8491      return volDepthParameters.z * log2(depth * volDepthParameters.y + volDepthParameters.x);

8492    }

8493    else {

8494      /* Linear distribution */

8495      return (depth - volDepthParameters.x) * volDepthParameters.z;

8496    }

8497  }

8498  

8499  /* Volume texture normalized coordinates to NDC (special range [0, 1]). */

8500  vec3 volume_to_ndc(vec3 cos)

8501  {

8502    cos.z = volume_z_to_view_z(cos.z);

8503    cos.z = get_depth_from_view_z(cos.z);

8504    cos.xy /= volCoordScale.xy;

8505    return cos;

8506  }

8507  

8508  vec3 ndc_to_volume(vec3 cos)

8509  {

8510    cos.z = get_view_z_from_depth(cos.z);

8511    cos.z = view_z_to_volume_z(cos.z);

8512    cos.xy *= volCoordScale.xy;

8513    return cos;

8514  }

8515  

8516  float phase_function_isotropic()

8517  {

8518    return 1.0 / (4.0 * M_PI);

8519  }

8520  

8521  float phase_function(vec3 v, vec3 l, float g)

8522  {

8523    /* Henyey-Greenstein */

8524    float cos_theta = dot(v, l);

8525    g = clamp(g, -1.0 + 1e-3, 1.0 - 1e-3);

8526    float sqr_g = g * g;

8527    return (1 - sqr_g) / max(1e-8, 4.0 * M_PI * pow(1 + sqr_g - 2 * g * cos_theta, 3.0 / 2.0));

8528  }

8529  

8530  #ifdef LAMPS_LIB

8531  vec3 light_volume(LightData ld, vec4 l_vector)

8532  {

8533    float power;

8534    /* TODO : Area lighting ? */

8535    /* XXX : Removing Area Power. */

8536    /* TODO : put this out of the shader. */

8537    /* See eevee_light_setup(). */

8538    if (ld.l_type == AREA_RECT || ld.l_type == AREA_ELLIPSE) {

8539      power = (ld.l_sizex * ld.l_sizey * 4.0 * M_PI) * (1.0 / 80.0);

8540      if (ld.l_type == AREA_ELLIPSE) {

8541        power *= M_PI * 0.25;

8542      }

8543      power *= 20.0 *

8544               max(0.0, dot(-ld.l_forward, l_vector.xyz / l_vector.w)); /* XXX ad hoc, empirical */

8545    }

8546    else if (ld.l_type == SUN) {

8547      power = ld.l_radius * ld.l_radius * M_PI; /* Removing area light power*/

8548      power /= 1.0f + (ld.l_radius * ld.l_radius * 0.5f);

8549      power *= M_PI * 0.5; /* Matching cycles. */

8550    }

8551    else {

8552      power = (4.0 * ld.l_radius * ld.l_radius) * (1.0 / 10.0);

8553      power *= M_2PI; /* Matching cycles with point light. */

8554    }

8555  

8556    power /= (l_vector.w * l_vector.w);

8557  

8558    /* OPTI: find a better way than calculating this on the fly */

8559    float lum = dot(ld.l_color, vec3(0.3, 0.6, 0.1));       /* luminance approx. */

8560    vec3 tint = (lum > 0.0) ? ld.l_color / lum : vec3(1.0); /* normalize lum. to isolate hue+sat */

8561  

8562    lum = min(lum * power, volLightClamp);

8563  

8564    return tint * lum;

8565  }

8566  

8567  #  define VOLUMETRIC_SHADOW_MAX_STEP 32.0

8568  

8569  vec3 participating_media_extinction(vec3 wpos, sampler3D volume_extinction)

8570  {

8571    /* Waiting for proper volume shadowmaps and out of frustum shadow map. */

8572    vec3 ndc = project_point(ViewProjectionMatrix, wpos);

8573    vec3 volume_co = ndc_to_volume(ndc * 0.5 + 0.5);

8574  

8575    /* Let the texture be clamped to edge. This reduce visual glitches. */

8576    return texture(volume_extinction, volume_co).rgb;

8577  }

8578  

8579  vec3 light_volume_shadow(LightData ld, vec3 ray_wpos, vec4 l_vector, sampler3D volume_extinction)

8580  {

8581  #  if defined(VOLUME_SHADOW)

8582    /* Heterogeneous volume shadows */

8583    float dd = l_vector.w / volShadowSteps;

8584    vec3 L = l_vector.xyz * l_vector.w;

8585    vec3 shadow = vec3(1.0);

8586    for (float s = 0.5; s < VOLUMETRIC_SHADOW_MAX_STEP && s < (volShadowSteps - 0.1); s += 1.0) {

8587      vec3 pos = ray_wpos + L * (s / volShadowSteps);

8588      vec3 s_extinction = participating_media_extinction(pos, volume_extinction);

8589      shadow *= exp(-s_extinction * dd);

8590    }

8591    return shadow;

8592  #  else

8593    return vec3(1.0);

8594  #  endif /* VOLUME_SHADOW */

8595  }

8596  #endif

8597  

8598  #ifdef IRRADIANCE_LIB

8599  vec3 irradiance_volumetric(vec3 wpos)

8600  {

8601  #  ifdef IRRADIANCE_HL2

8602    IrradianceData ir_data = load_irradiance_cell(0, vec3(1.0));

8603    vec3 irradiance = ir_data.cubesides[0] + ir_data.cubesides[1] + ir_data.cubesides[2];

8604    ir_data = load_irradiance_cell(0, vec3(-1.0));

8605    irradiance += ir_data.cubesides[0] + ir_data.cubesides[1] + ir_data.cubesides[2];

8606    irradiance *= 0.16666666; /* 1/6 */

8607    return irradiance;

8608  #  else

8609    return vec3(0.0);

8610  #  endif

8611  }

8612  #endif

8613  

8614  uniform sampler3D inScattering;

8615  uniform sampler3D inTransmittance;

8616  

8617  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth)

8618  {

8619    vec3 volume_cos = ndc_to_volume(vec3(frag_uvs, frag_depth));

8620  

8621    vec3 scattering = texture(inScattering, volume_cos).rgb;

8622    vec3 transmittance = texture(inTransmittance, volume_cos).rgb;

8623  

8624    /* Approximate volume alpha by using a monochromatic transmitance

8625     * and adding it to the scene alpha. */

8626    float final_alpha = mix(1.0, scene_color.a, dot(transmittance, vec3(1.0 / 3.0)));

8627    return vec4(scene_color.rgb * transmittance + scattering, final_alpha);

8628  }

8629  

8630  uniform mat4 ModelViewMatrix;

8631  uniform mat4 ModelViewMatrixInverse;

8632  uniform mat3 NormalMatrix;

8633  uniform mat3 NormalMatrixInverse;

8634  

8635  #ifndef USE_ATTR

8636  uniform mat4 ModelMatrix;

8637  uniform mat4 ModelMatrixInverse;

8638  #endif

8639  

8640  /* Converters */

8641  

8642  float convert_rgba_to_float(vec4 color)

8643  {

8644    return dot(color.rgb, vec3(0.2126, 0.7152, 0.0722));

8645  }

8646  

8647  float exp_blender(float f)

8648  {

8649    return pow(2.71828182846, f);

8650  }

8651  

8652  float compatible_pow(float x, float y)

8653  {

8654    if (y == 0.0) /* x^0 -> 1, including 0^0 */

8655      return 1.0;

8656  

8657    /* glsl pow doesn't accept negative x */

8658    if (x < 0.0) {

8659      if (mod(-y, 2.0) == 0.0)

8660        return pow(-x, y);

8661      else

8662        return -pow(-x, y);

8663    }

8664    else if (x == 0.0)

8665      return 0.0;

8666  

8667    return pow(x, y);

8668  }

8669  

8670  void rgb_to_hsv(vec4 rgb, out vec4 outcol)

8671  {

8672    float cmax, cmin, h, s, v, cdelta;

8673    vec3 c;

8674  

8675    cmax = max(rgb[0], max(rgb[1], rgb[2]));

8676    cmin = min(rgb[0], min(rgb[1], rgb[2]));

8677    cdelta = cmax - cmin;

8678  

8679    v = cmax;

8680    if (cmax != 0.0)

8681      s = cdelta / cmax;

8682    else {

8683      s = 0.0;

8684      h = 0.0;

8685    }

8686  

8687    if (s == 0.0) {

8688      h = 0.0;

8689    }

8690    else {

8691      c = (vec3(cmax) - rgb.xyz) / cdelta;

8692  

8693      if (rgb.x == cmax)

8694        h = c[2] - c[1];

8695      else if (rgb.y == cmax)

8696        h = 2.0 + c[0] - c[2];

8697      else

8698        h = 4.0 + c[1] - c[0];

8699  

8700      h /= 6.0;

8701  

8702      if (h < 0.0)

8703        h += 1.0;

8704    }

8705  

8706    outcol = vec4(h, s, v, rgb.w);

8707  }

8708  

8709  void hsv_to_rgb(vec4 hsv, out vec4 outcol)

8710  {

8711    float i, f, p, q, t, h, s, v;

8712    vec3 rgb;

8713  

8714    h = hsv[0];

8715    s = hsv[1];

8716    v = hsv[2];

8717  

8718    if (s == 0.0) {

8719      rgb = vec3(v, v, v);

8720    }

8721    else {

8722      if (h == 1.0)

8723        h = 0.0;

8724  

8725      h *= 6.0;

8726      i = floor(h);

8727      f = h - i;

8728      rgb = vec3(f, f, f);

8729      p = v * (1.0 - s);

8730      q = v * (1.0 - (s * f));

8731      t = v * (1.0 - (s * (1.0 - f)));

8732  

8733      if (i == 0.0)

8734        rgb = vec3(v, t, p);

8735      else if (i == 1.0)

8736        rgb = vec3(q, v, p);

8737      else if (i == 2.0)

8738        rgb = vec3(p, v, t);

8739      else if (i == 3.0)

8740        rgb = vec3(p, q, v);

8741      else if (i == 4.0)

8742        rgb = vec3(t, p, v);

8743      else

8744        rgb = vec3(v, p, q);

8745    }

8746  

8747    outcol = vec4(rgb, hsv.w);

8748  }

8749  

8750  float srgb_to_linearrgb(float c)

8751  {

8752    if (c < 0.04045)

8753      return (c < 0.0) ? 0.0 : c * (1.0 / 12.92);

8754    else

8755      return pow((c + 0.055) * (1.0 / 1.055), 2.4);

8756  }

8757  

8758  float linearrgb_to_srgb(float c)

8759  {

8760    if (c < 0.0031308)

8761      return (c < 0.0) ? 0.0 : c * 12.92;

8762    else

8763      return 1.055 * pow(c, 1.0 / 2.4) - 0.055;

8764  }

8765  

8766  void srgb_to_linearrgb(vec4 col_from, out vec4 col_to)

8767  {

8768    col_to.r = srgb_to_linearrgb(col_from.r);

8769    col_to.g = srgb_to_linearrgb(col_from.g);

8770    col_to.b = srgb_to_linearrgb(col_from.b);

8771    col_to.a = col_from.a;

8772  }

8773  

8774  void linearrgb_to_srgb(vec4 col_from, out vec4 col_to)

8775  {

8776    col_to.r = linearrgb_to_srgb(col_from.r);

8777    col_to.g = linearrgb_to_srgb(col_from.g);

8778    col_to.b = linearrgb_to_srgb(col_from.b);

8779    col_to.a = col_from.a;

8780  }

8781  

8782  void color_to_normal_new_shading(vec3 color, out vec3 normal)

8783  {

8784    normal = vec3(2.0) * color - vec3(1.0);

8785  }

8786  

8787  void color_to_blender_normal_new_shading(vec3 color, out vec3 normal)

8788  {

8789    normal = vec3(2.0, -2.0, -2.0) * color - vec3(1.0);

8790  }

8791  

8792  #ifndef M_PI

8793  #  define M_PI 3.14159265358979323846

8794  #endif

8795  #ifndef M_1_PI

8796  #  define M_1_PI 0.318309886183790671538

8797  #endif

8798  

8799  /*********** SHADER NODES ***************/

8800  

8801  void particle_info(vec4 sprops,

8802                     vec4 loc,

8803                     vec3 vel,

8804                     vec3 avel,

8805                     out float index,

8806                     out float random,

8807                     out float age,

8808                     out float life_time,

8809                     out vec3 location,

8810                     out float size,

8811                     out vec3 velocity,

8812                     out vec3 angular_velocity)

8813  {

8814    index = sprops.x;

8815    random = loc.w;

8816    age = sprops.y;

8817    life_time = sprops.z;

8818    size = sprops.w;

8819  

8820    location = loc.xyz;

8821    velocity = vel;

8822    angular_velocity = avel;

8823  }

8824  

8825  void vect_normalize(vec3 vin, out vec3 vout)

8826  {

8827    vout = normalize(vin);

8828  }

8829  

8830  void direction_transform_m4v3(vec3 vin, mat4 mat, out vec3 vout)

8831  {

8832    vout = (mat * vec4(vin, 0.0)).xyz;

8833  }

8834  

8835  void mat3_mul(vec3 vin, mat3 mat, out vec3 vout)

8836  {

8837    vout = mat * vin;

8838  }

8839  

8840  void point_transform_m4v3(vec3 vin, mat4 mat, out vec3 vout)

8841  {

8842    vout = (mat * vec4(vin, 1.0)).xyz;

8843  }

8844  

8845  void point_texco_remap_square(vec3 vin, out vec3 vout)

8846  {

8847    vout = vin * 2.0 - 1.0;

8848  }

8849  

8850  void point_texco_clamp(vec3 vin, sampler2D ima, out vec3 vout)

8851  {

8852    vec2 half_texel_size = 0.5 / vec2(textureSize(ima, 0).xy);

8853    vout = clamp(vin, half_texel_size.xyy, 1.0 - half_texel_size.xyy);

8854  }

8855  

8856  void point_map_to_sphere(vec3 vin, out vec3 vout)

8857  {

8858    float len = length(vin);

8859    float v, u;

8860    if (len > 0.0) {

8861      if (vin.x == 0.0 && vin.y == 0.0)

8862        u = 0.0;

8863      else

8864        u = (1.0 - atan(vin.x, vin.y) / M_PI) / 2.0;

8865  

8866      v = 1.0 - acos(vin.z / len) / M_PI;

8867    }

8868    else

8869      v = u = 0.0;

8870  

8871    vout = vec3(u, v, 0.0);

8872  }

8873  

8874  void point_map_to_tube(vec3 vin, out vec3 vout)

8875  {

8876    float u, v;

8877    v = (vin.z + 1.0) * 0.5;

8878    float len = sqrt(vin.x * vin.x + vin.y * vin[1]);

8879    if (len > 0.0)

8880      u = (1.0 - (atan(vin.x / len, vin.y / len) / M_PI)) * 0.5;

8881    else

8882      v = u = 0.0;

8883  

8884    vout = vec3(u, v, 0.0);

8885  }

8886  

8887  void mapping(

8888      vec3 vec, vec4 m0, vec4 m1, vec4 m2, vec4 m3, vec3 minvec, vec3 maxvec, out vec3 outvec)

8889  {

8890    mat4 mat = mat4(m0, m1, m2, m3);

8891    outvec = (mat * vec4(vec, 1.0)).xyz;

8892    outvec = clamp(outvec, minvec, maxvec);

8893  }

8894  

8895  void camera(vec3 co, out vec3 outview, out float outdepth, out float outdist)

8896  {

8897    outdepth = abs(co.z);

8898    outdist = length(co);

8899    outview = normalize(co);

8900  }

8901  

8902  void math_add(float val1, float val2, out float outval)

8903  {

8904    outval = val1 + val2;

8905  }

8906  

8907  void math_subtract(float val1, float val2, out float outval)

8908  {

8909    outval = val1 - val2;

8910  }

8911  

8912  void math_multiply(float val1, float val2, out float outval)

8913  {

8914    outval = val1 * val2;

8915  }

8916  

8917  void math_divide(float val1, float val2, out float outval)

8918  {

8919    if (val2 == 0.0)

8920      outval = 0.0;

8921    else

8922      outval = val1 / val2;

8923  }

8924  

8925  void math_sine(float val, out float outval)

8926  {

8927    outval = sin(val);

8928  }

8929  

8930  void math_cosine(float val, out float outval)

8931  {

8932    outval = cos(val);

8933  }

8934  

8935  void math_tangent(float val, out float outval)

8936  {

8937    outval = tan(val);

8938  }

8939  

8940  void math_asin(float val, out float outval)

8941  {

8942    if (val <= 1.0 && val >= -1.0)

8943      outval = asin(val);

8944    else

8945      outval = 0.0;

8946  }

8947  

8948  void math_acos(float val, out float outval)

8949  {

8950    if (val <= 1.0 && val >= -1.0)

8951      outval = acos(val);

8952    else

8953      outval = 0.0;

8954  }

8955  

8956  void math_atan(float val, out float outval)

8957  {

8958    outval = atan(val);

8959  }

8960  

8961  void math_pow(float val1, float val2, out float outval)

8962  {

8963    if (val1 >= 0.0) {

8964      outval = compatible_pow(val1, val2);

8965    }

8966    else {

8967      float val2_mod_1 = mod(abs(val2), 1.0);

8968  

8969      if (val2_mod_1 > 0.999 || val2_mod_1 < 0.001)

8970        outval = compatible_pow(val1, floor(val2 + 0.5));

8971      else

8972        outval = 0.0;

8973    }

8974  }

8975  

8976  void math_log(float val1, float val2, out float outval)

8977  {

8978    if (val1 > 0.0 && val2 > 0.0)

8979      outval = log2(val1) / log2(val2);

8980    else

8981      outval = 0.0;

8982  }

8983  

8984  void math_max(float val1, float val2, out float outval)

8985  {

8986    outval = max(val1, val2);

8987  }

8988  

8989  void math_min(float val1, float val2, out float outval)

8990  {

8991    outval = min(val1, val2);

8992  }

8993  

8994  void math_round(float val, out float outval)

8995  {

8996    outval = floor(val + 0.5);

8997  }

8998  

8999  void math_less_than(float val1, float val2, out float outval)

9000  {

9001    if (val1 < val2)

9002      outval = 1.0;

9003    else

9004      outval = 0.0;

9005  }

9006  

9007  void math_greater_than(float val1, float val2, out float outval)

9008  {

9009    if (val1 > val2)

9010      outval = 1.0;

9011    else

9012      outval = 0.0;

9013  }

9014  

9015  void math_modulo(float val1, float val2, out float outval)

9016  {

9017    if (val2 == 0.0)

9018      outval = 0.0;

9019    else

9020      outval = mod(val1, val2);

9021  

9022    /* change sign to match C convention, mod in GLSL will take absolute for negative numbers,

9023     * see https://www.opengl.org/sdk/docs/man/html/mod.xhtml */

9024    outval = (val1 > 0.0) ? outval : outval - val2;

9025  }

9026  

9027  void math_abs(float val1, out float outval)

9028  {

9029    outval = abs(val1);

9030  }

9031  

9032  void math_atan2(float val1, float val2, out float outval)

9033  {

9034    outval = atan(val1, val2);

9035  }

9036  

9037  void math_floor(float val, out float outval)

9038  {

9039    outval = floor(val);

9040  }

9041  

9042  void math_ceil(float val, out float outval)

9043  {

9044    outval = ceil(val);

9045  }

9046  

9047  void math_fract(float val, out float outval)

9048  {

9049    outval = val - floor(val);

9050  }

9051  

9052  void math_sqrt(float val, out float outval)

9053  {

9054    if (val > 0.0)

9055      outval = sqrt(val);

9056    else

9057      outval = 0.0;

9058  }

9059  

9060  void squeeze(float val, float width, float center, out float outval)

9061  {

9062    outval = 1.0 / (1.0 + pow(2.71828183, -((val - center) * width)));

9063  }

9064  

9065  void vec_math_add(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9066  {

9067    outvec = v1 + v2;

9068    outval = (abs(outvec[0]) + abs(outvec[1]) + abs(outvec[2])) * 0.333333;

9069  }

9070  

9071  void vec_math_sub(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9072  {

9073    outvec = v1 - v2;

9074    outval = (abs(outvec[0]) + abs(outvec[1]) + abs(outvec[2])) * 0.333333;

9075  }

9076  

9077  void vec_math_average(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9078  {

9079    outvec = v1 + v2;

9080    outval = length(outvec);

9081    outvec = normalize(outvec);

9082  }

9083  void vec_math_mix(float strength, vec3 v1, vec3 v2, out vec3 outvec)

9084  {

9085    outvec = strength * v1 + (1 - strength) * v2;

9086  }

9087  

9088  void vec_math_dot(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9089  {

9090    outvec = vec3(0);

9091    outval = dot(v1, v2);

9092  }

9093  

9094  void vec_math_cross(vec3 v1, vec3 v2, out vec3 outvec, out float outval)

9095  {

9096    outvec = cross(v1, v2);

9097    outval = length(outvec);

9098    outvec /= outval;

9099  }

9100  

9101  void vec_math_normalize(vec3 v, out vec3 outvec, out float outval)

9102  {

9103    outval = length(v);

9104    outvec = normalize(v);

9105  }

9106  

9107  void vec_math_negate(vec3 v, out vec3 outv)

9108  {

9109    outv = -v;

9110  }

9111  

9112  void invert_z(vec3 v, out vec3 outv)

9113  {

9114    v.z = -v.z;

9115    outv = v;

9116  }

9117  

9118  void normal_new_shading(vec3 nor, vec3 dir, out vec3 outnor, out float outdot)

9119  {

9120    outnor = dir;

9121    outdot = dot(normalize(nor), dir);

9122  }

9123  

9124  void curves_vec(float fac, vec3 vec, sampler1DArray curvemap, float layer, out vec3 outvec)

9125  {

9126    vec4 co = vec4(vec * 0.5 + 0.5, layer);

9127    outvec.x = texture(curvemap, co.xw).x;

9128    outvec.y = texture(curvemap, co.yw).y;

9129    outvec.z = texture(curvemap, co.zw).z;

9130    outvec = mix(vec, outvec, fac);

9131  }

9132  

9133  /* ext is vec4(in_x, in_dy, out_x, out_dy). */

9134  float curve_extrapolate(float x, float y, vec4 ext)

9135  {

9136    if (x < 0.0) {

9137      return y + x * ext.y;

9138    }

9139    else if (x > 1.0) {

9140      return y + (x - 1.0) * ext.w;

9141    }

9142    else {

9143      return y;

9144    }

9145  }

9146  

9147  #define RANGE_RESCALE(x, min, range) ((x - min) * range)

9148  

9149  void curves_rgb(float fac,

9150                  vec4 col,

9151                  sampler1DArray curvemap,

9152                  float layer,

9153                  vec4 range,

9154                  vec4 ext_r,

9155                  vec4 ext_g,

9156                  vec4 ext_b,

9157                  vec4 ext_a,

9158                  out vec4 outcol)

9159  {

9160    vec4 co = vec4(RANGE_RESCALE(col.rgb, ext_a.x, range.a), layer);

9161    vec3 samp;

9162    samp.r = texture(curvemap, co.xw).a;

9163    samp.g = texture(curvemap, co.yw).a;

9164    samp.b = texture(curvemap, co.zw).a;

9165  

9166    samp.r = curve_extrapolate(co.x, samp.r, ext_a);

9167    samp.g = curve_extrapolate(co.y, samp.g, ext_a);

9168    samp.b = curve_extrapolate(co.z, samp.b, ext_a);

9169  

9170    vec3 rgb_min = vec3(ext_r.x, ext_g.x, ext_b.x);

9171    co.xyz = RANGE_RESCALE(samp.rgb, rgb_min, range.rgb);

9172  

9173    samp.r = texture(curvemap, co.xw).r;

9174    samp.g = texture(curvemap, co.yw).g;

9175    samp.b = texture(curvemap, co.zw).b;

9176  

9177    outcol.r = curve_extrapolate(co.x, samp.r, ext_r);

9178    outcol.g = curve_extrapolate(co.y, samp.g, ext_g);

9179    outcol.b = curve_extrapolate(co.z, samp.b, ext_b);

9180    outcol.a = col.a;

9181  

9182    outcol = mix(col, outcol, fac);

9183  }

9184  

9185  void curves_rgb_opti(float fac,

9186                       vec4 col,

9187                       sampler1DArray curvemap,

9188                       float layer,

9189                       vec4 range,

9190                       vec4 ext_a,

9191                       out vec4 outcol)

9192  {

9193    vec4 co = vec4(RANGE_RESCALE(col.rgb, ext_a.x, range.a), layer);

9194    vec3 samp;

9195    samp.r = texture(curvemap, co.xw).a;

9196    samp.g = texture(curvemap, co.yw).a;

9197    samp.b = texture(curvemap, co.zw).a;

9198  

9199    outcol.r = curve_extrapolate(co.x, samp.r, ext_a);

9200    outcol.g = curve_extrapolate(co.y, samp.g, ext_a);

9201    outcol.b = curve_extrapolate(co.z, samp.b, ext_a);

9202    outcol.a = col.a;

9203  

9204    outcol = mix(col, outcol, fac);

9205  }

9206  

9207  void set_value(float val, out float outval)

9208  {

9209    outval = val;

9210  }

9211  

9212  void set_rgb(vec3 col, out vec3 outcol)

9213  {

9214    outcol = col;

9215  }

9216  

9217  void set_rgba(vec4 col, out vec4 outcol)

9218  {

9219    outcol = col;

9220  }

9221  

9222  void set_value_zero(out float outval)

9223  {

9224    outval = 0.0;

9225  }

9226  

9227  void set_value_one(out float outval)

9228  {

9229    outval = 1.0;

9230  }

9231  

9232  void set_rgb_zero(out vec3 outval)

9233  {

9234    outval = vec3(0.0);

9235  }

9236  

9237  void set_rgb_one(out vec3 outval)

9238  {

9239    outval = vec3(1.0);

9240  }

9241  

9242  void set_rgba_zero(out vec4 outval)

9243  {

9244    outval = vec4(0.0);

9245  }

9246  

9247  void set_rgba_one(out vec4 outval)

9248  {

9249    outval = vec4(1.0);

9250  }

9251  

9252  void brightness_contrast(vec4 col, float brightness, float contrast, out vec4 outcol)

9253  {

9254    float a = 1.0 + contrast;

9255    float b = brightness - contrast * 0.5;

9256  

9257    outcol.r = max(a * col.r + b, 0.0);

9258    outcol.g = max(a * col.g + b, 0.0);

9259    outcol.b = max(a * col.b + b, 0.0);

9260    outcol.a = col.a;

9261  }

9262  

9263  void mix_blend(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9264  {

9265    fac = clamp(fac, 0.0, 1.0);

9266    outcol = mix(col1, col2, fac);

9267    outcol.a = col1.a;

9268  }

9269  

9270  void mix_add(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9271  {

9272    fac = clamp(fac, 0.0, 1.0);

9273    outcol = mix(col1, col1 + col2, fac);

9274    outcol.a = col1.a;

9275  }

9276  

9277  void mix_mult(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9278  {

9279    fac = clamp(fac, 0.0, 1.0);

9280    outcol = mix(col1, col1 * col2, fac);

9281    outcol.a = col1.a;

9282  }

9283  

9284  void mix_screen(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9285  {

9286    fac = clamp(fac, 0.0, 1.0);

9287    float facm = 1.0 - fac;

9288  

9289    outcol = vec4(1.0) - (vec4(facm) + fac * (vec4(1.0) - col2)) * (vec4(1.0) - col1);

9290    outcol.a = col1.a;

9291  }

9292  

9293  void mix_overlay(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9294  {

9295    fac = clamp(fac, 0.0, 1.0);

9296    float facm = 1.0 - fac;

9297  

9298    outcol = col1;

9299  

9300    if (outcol.r < 0.5)

9301      outcol.r *= facm + 2.0 * fac * col2.r;

9302    else

9303      outcol.r = 1.0 - (facm + 2.0 * fac * (1.0 - col2.r)) * (1.0 - outcol.r);

9304  

9305    if (outcol.g < 0.5)

9306      outcol.g *= facm + 2.0 * fac * col2.g;

9307    else

9308      outcol.g = 1.0 - (facm + 2.0 * fac * (1.0 - col2.g)) * (1.0 - outcol.g);

9309  

9310    if (outcol.b < 0.5)

9311      outcol.b *= facm + 2.0 * fac * col2.b;

9312    else

9313      outcol.b = 1.0 - (facm + 2.0 * fac * (1.0 - col2.b)) * (1.0 - outcol.b);

9314  }

9315  

9316  void mix_sub(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9317  {

9318    fac = clamp(fac, 0.0, 1.0);

9319    outcol = mix(col1, col1 - col2, fac);

9320    outcol.a = col1.a;

9321  }

9322  

9323  void mix_div(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9324  {

9325    fac = clamp(fac, 0.0, 1.0);

9326    float facm = 1.0 - fac;

9327  

9328    outcol = col1;

9329  

9330    if (col2.r != 0.0)

9331      outcol.r = facm * outcol.r + fac * outcol.r / col2.r;

9332    if (col2.g != 0.0)

9333      outcol.g = facm * outcol.g + fac * outcol.g / col2.g;

9334    if (col2.b != 0.0)

9335      outcol.b = facm * outcol.b + fac * outcol.b / col2.b;

9336  }

9337  

9338  void mix_diff(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9339  {

9340    fac = clamp(fac, 0.0, 1.0);

9341    outcol = mix(col1, abs(col1 - col2), fac);

9342    outcol.a = col1.a;

9343  }

9344  

9345  void mix_dark(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9346  {

9347    fac = clamp(fac, 0.0, 1.0);

9348    outcol.rgb = min(col1.rgb, col2.rgb * fac);

9349    outcol.a = col1.a;

9350  }

9351  

9352  void mix_light(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9353  {

9354    fac = clamp(fac, 0.0, 1.0);

9355    outcol.rgb = max(col1.rgb, col2.rgb * fac);

9356    outcol.a = col1.a;

9357  }

9358  

9359  void mix_dodge(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9360  {

9361    fac = clamp(fac, 0.0, 1.0);

9362    outcol = col1;

9363  

9364    if (outcol.r != 0.0) {

9365      float tmp = 1.0 - fac * col2.r;

9366      if (tmp <= 0.0)

9367        outcol.r = 1.0;

9368      else if ((tmp = outcol.r / tmp) > 1.0)

9369        outcol.r = 1.0;

9370      else

9371        outcol.r = tmp;

9372    }

9373    if (outcol.g != 0.0) {

9374      float tmp = 1.0 - fac * col2.g;

9375      if (tmp <= 0.0)

9376        outcol.g = 1.0;

9377      else if ((tmp = outcol.g / tmp) > 1.0)

9378        outcol.g = 1.0;

9379      else

9380        outcol.g = tmp;

9381    }

9382    if (outcol.b != 0.0) {

9383      float tmp = 1.0 - fac * col2.b;

9384      if (tmp <= 0.0)

9385        outcol.b = 1.0;

9386      else if ((tmp = outcol.b / tmp) > 1.0)

9387        outcol.b = 1.0;

9388      else

9389        outcol.b = tmp;

9390    }

9391  }

9392  

9393  void mix_burn(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9394  {

9395    fac = clamp(fac, 0.0, 1.0);

9396    float tmp, facm = 1.0 - fac;

9397  

9398    outcol = col1;

9399  

9400    tmp = facm + fac * col2.r;

9401    if (tmp <= 0.0)

9402      outcol.r = 0.0;

9403    else if ((tmp = (1.0 - (1.0 - outcol.r) / tmp)) < 0.0)

9404      outcol.r = 0.0;

9405    else if (tmp > 1.0)

9406      outcol.r = 1.0;

9407    else

9408      outcol.r = tmp;

9409  

9410    tmp = facm + fac * col2.g;

9411    if (tmp <= 0.0)

9412      outcol.g = 0.0;

9413    else if ((tmp = (1.0 - (1.0 - outcol.g) / tmp)) < 0.0)

9414      outcol.g = 0.0;

9415    else if (tmp > 1.0)

9416      outcol.g = 1.0;

9417    else

9418      outcol.g = tmp;

9419  

9420    tmp = facm + fac * col2.b;

9421    if (tmp <= 0.0)

9422      outcol.b = 0.0;

9423    else if ((tmp = (1.0 - (1.0 - outcol.b) / tmp)) < 0.0)

9424      outcol.b = 0.0;

9425    else if (tmp > 1.0)

9426      outcol.b = 1.0;

9427    else

9428      outcol.b = tmp;

9429  }

9430  

9431  void mix_hue(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9432  {

9433    fac = clamp(fac, 0.0, 1.0);

9434    float facm = 1.0 - fac;

9435  

9436    outcol = col1;

9437  

9438    vec4 hsv, hsv2, tmp;

9439    rgb_to_hsv(col2, hsv2);

9440  

9441    if (hsv2.y != 0.0) {

9442      rgb_to_hsv(outcol, hsv);

9443      hsv.x = hsv2.x;

9444      hsv_to_rgb(hsv, tmp);

9445  

9446      outcol = mix(outcol, tmp, fac);

9447      outcol.a = col1.a;

9448    }

9449  }

9450  

9451  void mix_sat(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9452  {

9453    fac = clamp(fac, 0.0, 1.0);

9454    float facm = 1.0 - fac;

9455  

9456    outcol = col1;

9457  

9458    vec4 hsv, hsv2;

9459    rgb_to_hsv(outcol, hsv);

9460  

9461    if (hsv.y != 0.0) {

9462      rgb_to_hsv(col2, hsv2);

9463  

9464      hsv.y = facm * hsv.y + fac * hsv2.y;

9465      hsv_to_rgb(hsv, outcol);

9466    }

9467  }

9468  

9469  void mix_val(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9470  {

9471    fac = clamp(fac, 0.0, 1.0);

9472    float facm = 1.0 - fac;

9473  

9474    vec4 hsv, hsv2;

9475    rgb_to_hsv(col1, hsv);

9476    rgb_to_hsv(col2, hsv2);

9477  

9478    hsv.z = facm * hsv.z + fac * hsv2.z;

9479    hsv_to_rgb(hsv, outcol);

9480  }

9481  

9482  void mix_color(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9483  {

9484    fac = clamp(fac, 0.0, 1.0);

9485    float facm = 1.0 - fac;

9486  

9487    outcol = col1;

9488  

9489    vec4 hsv, hsv2, tmp;

9490    rgb_to_hsv(col2, hsv2);

9491  

9492    if (hsv2.y != 0.0) {

9493      rgb_to_hsv(outcol, hsv);

9494      hsv.x = hsv2.x;

9495      hsv.y = hsv2.y;

9496      hsv_to_rgb(hsv, tmp);

9497  

9498      outcol = mix(outcol, tmp, fac);

9499      outcol.a = col1.a;

9500    }

9501  }

9502  

9503  void mix_soft(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9504  {

9505    fac = clamp(fac, 0.0, 1.0);

9506    float facm = 1.0 - fac;

9507  

9508    vec4 one = vec4(1.0);

9509    vec4 scr = one - (one - col2) * (one - col1);

9510    outcol = facm * col1 + fac * ((one - col1) * col2 * col1 + col1 * scr);

9511  }

9512  

9513  void mix_linear(float fac, vec4 col1, vec4 col2, out vec4 outcol)

9514  {

9515    fac = clamp(fac, 0.0, 1.0);

9516  

9517    outcol = col1 + fac * (2.0 * (col2 - vec4(0.5)));

9518  }

9519  

9520  void valtorgb_opti_constant(

9521      float fac, float edge, vec4 color1, vec4 color2, out vec4 outcol, out float outalpha)

9522  {

9523    outcol = (fac > edge) ? color2 : color1;

9524    outalpha = outcol.a;

9525  }

9526  

9527  void valtorgb_opti_linear(

9528      float fac, vec2 mulbias, vec4 color1, vec4 color2, out vec4 outcol, out float outalpha)

9529  {

9530    fac = clamp(fac * mulbias.x + mulbias.y, 0.0, 1.0);

9531    outcol = mix(color1, color2, fac);

9532    outalpha = outcol.a;

9533  }

9534  

9535  void valtorgb(float fac, sampler1DArray colormap, float layer, out vec4 outcol, out float outalpha)

9536  {

9537    outcol = texture(colormap, vec2(fac, layer));

9538    outalpha = outcol.a;

9539  }

9540  

9541  void valtorgb_nearest(

9542      float fac, sampler1DArray colormap, float layer, out vec4 outcol, out float outalpha)

9543  {

9544    fac = clamp(fac, 0.0, 1.0);

9545    outcol = texelFetch(colormap, ivec2(fac * (textureSize(colormap, 0).x - 1), layer), 0);

9546    outalpha = outcol.a;

9547  }

9548  

9549  void rgbtobw(vec4 color, out float outval)

9550  {

9551    vec3 factors = vec3(0.2126, 0.7152, 0.0722);

9552    outval = dot(color.rgb, factors);

9553  }

9554  

9555  void invert(float fac, vec4 col, out vec4 outcol)

9556  {

9557    outcol.xyz = mix(col.xyz, vec3(1.0) - col.xyz, fac);

9558    outcol.w = col.w;

9559  }

9560  

9561  void clamp_vec3(vec3 vec, vec3 min, vec3 max, out vec3 out_vec)

9562  {

9563    out_vec = clamp(vec, min, max);

9564  }

9565  

9566  void clamp_val(float value, float min, float max, out float out_value)

9567  {

9568    out_value = clamp(value, min, max);

9569  }

9570  

9571  void hue_sat(float hue, float sat, float value, float fac, vec4 col, out vec4 outcol)

9572  {

9573    vec4 hsv;

9574  

9575    rgb_to_hsv(col, hsv);

9576  

9577    hsv[0] = fract(hsv[0] + hue + 0.5);

9578    hsv[1] = clamp(hsv[1] * sat, 0.0, 1.0);

9579    hsv[2] = hsv[2] * value;

9580  

9581    hsv_to_rgb(hsv, outcol);

9582  

9583    outcol = mix(col, outcol, fac);

9584  }

9585  

9586  void separate_rgb(vec4 col, out float r, out float g, out float b)

9587  {

9588    r = col.r;

9589    g = col.g;

9590    b = col.b;

9591  }

9592  

9593  void combine_rgb(float r, float g, float b, out vec4 col)

9594  {

9595    col = vec4(r, g, b, 1.0);

9596  }

9597  

9598  void separate_xyz(vec3 vec, out float x, out float y, out float z)

9599  {

9600    x = vec.r;

9601    y = vec.g;

9602    z = vec.b;

9603  }

9604  

9605  void combine_xyz(float x, float y, float z, out vec3 vec)

9606  {

9607    vec = vec3(x, y, z);

9608  }

9609  

9610  void separate_hsv(vec4 col, out float h, out float s, out float v)

9611  {

9612    vec4 hsv;

9613  

9614    rgb_to_hsv(col, hsv);

9615    h = hsv[0];

9616    s = hsv[1];

9617    v = hsv[2];

9618  }

9619  

9620  void combine_hsv(float h, float s, float v, out vec4 col)

9621  {

9622    hsv_to_rgb(vec4(h, s, v, 1.0), col);

9623  }

9624  

9625  void output_node(vec4 rgb, float alpha, out vec4 outrgb)

9626  {

9627    outrgb = vec4(rgb.rgb, alpha);

9628  }

9629  

9630  /*********** TEXTURES ***************/

9631  

9632  void texco_norm(vec3 normal, out vec3 outnormal)

9633  {

9634    /* corresponds to shi->orn, which is negated so cancels

9635       out blender normal negation */

9636    outnormal = normalize(normal);

9637  }

9638  

9639  vec3 mtex_2d_mapping(vec3 vec)

9640  {

9641    return vec3(vec.xy * 0.5 + vec2(0.5), vec.z);

9642  }

9643  

9644  /** helper method to extract the upper left 3x3 matrix from a 4x4 matrix */

9645  mat3 to_mat3(mat4 m4)

9646  {

9647    mat3 m3;

9648    m3[0] = m4[0].xyz;

9649    m3[1] = m4[1].xyz;

9650    m3[2] = m4[2].xyz;

9651    return m3;

9652  }

9653  

9654  /*********** NEW SHADER UTILITIES **************/

9655  

9656  float fresnel_dielectric_0(float eta)

9657  {

9658    /* compute fresnel reflactance at normal incidence => cosi = 1.0 */

9659    float A = (eta - 1.0) / (eta + 1.0);

9660  

9661    return A * A;

9662  }

9663  

9664  float fresnel_dielectric_cos(float cosi, float eta)

9665  {

9666    /* compute fresnel reflectance without explicitly computing

9667     * the refracted direction */

9668    float c = abs(cosi);

9669    float g = eta * eta - 1.0 + c * c;

9670    float result;

9671  

9672    if (g > 0.0) {

9673      g = sqrt(g);

9674      float A = (g - c) / (g + c);

9675      float B = (c * (g + c) - 1.0) / (c * (g - c) + 1.0);

9676      result = 0.5 * A * A * (1.0 + B * B);

9677    }

9678    else {

9679      result = 1.0; /* TIR (no refracted component) */

9680    }

9681  

9682    return result;

9683  }

9684  

9685  float fresnel_dielectric(vec3 Incoming, vec3 Normal, float eta)

9686  {

9687    /* compute fresnel reflectance without explicitly computing

9688     * the refracted direction */

9689    return fresnel_dielectric_cos(dot(Incoming, Normal), eta);

9690  }

9691  

9692  float hypot(float x, float y)

9693  {

9694    return sqrt(x * x + y * y);

9695  }

9696  

9697  void generated_from_orco(vec3 orco, out vec3 generated)

9698  {

9699  #ifdef VOLUMETRICS

9700  #  ifdef MESH_SHADER

9701    generated = volumeObjectLocalCoord;

9702  #  else

9703    generated = worldPosition;

9704  #  endif

9705  #else

9706    generated = orco;

9707  #endif

9708  }

9709  

9710  int floor_to_int(float x)

9711  {

9712    return int(floor(x));

9713  }

9714  

9715  int quick_floor(float x)

9716  {

9717    return int(x) - ((x < 0) ? 1 : 0);

9718  }

9719  

9720  float integer_noise(int n)

9721  {

9722    int nn;

9723    n = (n + 1013) & 0x7fffffff;

9724    n = (n >> 13) ^ n;

9725    nn = (n * (n * n * 60493 + 19990303) + 1376312589) & 0x7fffffff;

9726    return 0.5 * (float(nn) / 1073741824.0);

9727  }

9728  

9729  uint hash(uint kx, uint ky, uint kz)

9730  {

9731  #define rot(x, k) (((x) << (k)) | ((x) >> (32 - (k))))

9732  #define final(a, b, c) \

9733    { \

9734      c ^= b; \

9735      c -= rot(b, 14); \

9736      a ^= c; \

9737      a -= rot(c, 11); \

9738      b ^= a; \

9739      b -= rot(a, 25); \

9740      c ^= b; \

9741      c -= rot(b, 16); \

9742      a ^= c; \

9743      a -= rot(c, 4); \

9744      b ^= a; \

9745      b -= rot(a, 14); \

9746      c ^= b; \

9747      c -= rot(b, 24); \

9748    }

9749    // now hash the data!

9750    uint a, b, c, len = 3u;

9751    a = b = c = 0xdeadbeefu + (len << 2u) + 13u;

9752  

9753    c += kz;

9754    b += ky;

9755    a += kx;

9756    final(a, b, c);

9757  

9758    return c;

9759  #undef rot

9760  #undef final

9761  }

9762  

9763  uint hash(int kx, int ky, int kz)

9764  {

9765    return hash(uint(kx), uint(ky), uint(kz));

9766  }

9767  

9768  float bits_to_01(uint bits)

9769  {

9770    return (float(bits) / 4294967295.0);

9771  }

9772  

9773  float cellnoise(vec3 p)

9774  {

9775    int ix = quick_floor(p.x);

9776    int iy = quick_floor(p.y);

9777    int iz = quick_floor(p.z);

9778  

9779    return bits_to_01(hash(uint(ix), uint(iy), uint(iz)));

9780  }

9781  

9782  vec3 cellnoise_color(vec3 p)

9783  {

9784    float r = cellnoise(p.xyz);

9785    float g = cellnoise(p.yxz);

9786    float b = cellnoise(p.yzx);

9787  

9788    return vec3(r, g, b);

9789  }

9790  

9791  float floorfrac(float x, out int i)

9792  {

9793    i = floor_to_int(x);

9794    return x - i;

9795  }

9796  

9797  /* bsdfs */

9798  

9799  vec3 tint_from_color(vec3 color)

9800  {

9801    float lum = dot(color, vec3(0.3, 0.6, 0.1)); /* luminance approx. */

9802    return (lum > 0) ? color / lum : vec3(1.0);  /* normalize lum. to isolate hue+sat */

9803  }

9804  

9805  void convert_metallic_to_specular_tinted(vec3 basecol,

9806                                           vec3 basecol_tint,

9807                                           float metallic,

9808                                           float specular_fac,

9809                                           float specular_tint,

9810                                           out vec3 diffuse,

9811                                           out vec3 f0)

9812  {

9813    vec3 tmp_col = mix(vec3(1.0), basecol_tint, specular_tint);

9814    f0 = mix((0.08 * specular_fac) * tmp_col, basecol, metallic);

9815    diffuse = basecol * (1.0 - metallic);

9816  }

9817  

9818  vec3 principled_sheen(float NV, vec3 basecol_tint, float sheen_tint)

9819  {

9820    float f = 1.0 - NV;

9821    /* Temporary fix for T59784. Normal map seems to contain NaNs for tangent space normal maps, therefore we need to clamp value. */

9822    f = clamp(f, 0.0, 1.0);

9823    /* Empirical approximation (manual curve fitting). Can be refined. */

9824    float sheen = f * f * f * 0.077 + f * 0.01 + 0.00026;

9825    return sheen * mix(vec3(1.0), basecol_tint, sheen_tint);

9826  }

9827  

9828  #ifndef VOLUMETRICS

9829  void node_bsdf_diffuse(vec4 color, float roughness, vec3 N, out Closure result)

9830  {

9831    N = normalize(N);

9832    vec3 vN = mat3(ViewMatrix) * N;

9833    result = CLOSURE_DEFAULT;

9834    result.ssr_normal = normal_encode(vN, viewCameraVec);

9835    eevee_closure_diffuse(N, color.rgb, 1.0, result.radiance);

9836    result.radiance *= color.rgb;

9837  }

9838  

9839  void node_bsdf_glossy(vec4 color, float roughness, vec3 N, float ssr_id, out Closure result)

9840  {

9841    N = normalize(N);

9842    vec3 out_spec, ssr_spec;

9843    eevee_closure_glossy(N, vec3(1.0), int(ssr_id), roughness, 1.0, out_spec, ssr_spec);

9844    vec3 vN = mat3(ViewMatrix) * N;

9845    result = CLOSURE_DEFAULT;

9846    result.radiance = out_spec * color.rgb;

9847    result.ssr_data = vec4(ssr_spec * color.rgb, roughness);

9848    result.ssr_normal = normal_encode(vN, viewCameraVec);

9849    result.ssr_id = int(ssr_id);

9850  }

9851  

9852  void node_bsdf_anisotropic(vec4 color,

9853                             float roughness,

9854                             float anisotropy,

9855                             float rotation,

9856                             vec3 N,

9857                             vec3 T,

9858                             out Closure result)

9859  {

9860    node_bsdf_glossy(color, roughness, N, -1, result);

9861  }

9862  

9863  void node_bsdf_glass(

9864      vec4 color, float roughness, float ior, vec3 N, float ssr_id, out Closure result)

9865  {

9866    N = normalize(N);

9867    vec3 out_spec, out_refr, ssr_spec;

9868    vec3 refr_color = (refractionDepth > 0.0) ? color.rgb * color.rgb :

9869                                                color.rgb; /* Simulate 2 transmission event */

9870    eevee_closure_glass(

9871        N, vec3(1.0), int(ssr_id), roughness, 1.0, ior, out_spec, out_refr, ssr_spec);

9872    out_refr *= refr_color;

9873    out_spec *= color.rgb;

9874    float fresnel = F_eta(ior, dot(N, cameraVec));

9875    vec3 vN = mat3(ViewMatrix) * N;

9876    result = CLOSURE_DEFAULT;

9877    result.radiance = mix(out_refr, out_spec, fresnel);

9878    result.ssr_data = vec4(ssr_spec * color.rgb * fresnel, roughness);

9879    result.ssr_normal = normal_encode(vN, viewCameraVec);

9880    result.ssr_id = int(ssr_id);

9881  }

9882  

9883  void node_bsdf_toon(vec4 color, float size, float tsmooth, vec3 N, out Closure result)

9884  {

9885    node_bsdf_diffuse(color, 0.0, N, result);

9886  }

9887  

9888  void node_bsdf_principled(vec4 base_color,

9889                            float subsurface,

9890                            vec3 subsurface_radius,

9891                            vec4 subsurface_color,

9892                            float metallic,

9893                            float specular,

9894                            float specular_tint,

9895                            float roughness,

9896                            float anisotropic,

9897                            float anisotropic_rotation,

9898                            float sheen,

9899                            float sheen_tint,

9900                            float clearcoat,

9901                            float clearcoat_roughness,

9902                            float ior,

9903                            float transmission,

9904                            float transmission_roughness,

9905                            vec3 N,

9906                            vec3 CN,

9907                            vec3 T,

9908                            vec3 I,

9909                            float ssr_id,

9910                            float sss_id,

9911                            vec3 sss_scale,

9912                            out Closure result)

9913  {

9914    N = normalize(N);

9915    ior = max(ior, 1e-5);

9916    metallic = saturate(metallic);

9917    transmission = saturate(transmission);

9918    float dielectric = 1.0 - metallic;

9919    transmission *= dielectric;

9920    sheen *= dielectric;

9921    subsurface_color *= dielectric;

9922  

9923    vec3 diffuse, f0, out_diff, out_spec, out_trans, out_refr, ssr_spec;

9924    vec3 ctint = tint_from_color(base_color.rgb);

9925    convert_metallic_to_specular_tinted(

9926        base_color.rgb, ctint, metallic, specular, specular_tint, diffuse, f0);

9927  

9928    float NV = dot(N, cameraVec);

9929    vec3 out_sheen = sheen * principled_sheen(NV, ctint, sheen_tint);

9930  

9931    /* Far from being accurate, but 2 glossy evaluation is too expensive.

9932     * Most noticeable difference is at grazing angles since the bsdf lut

9933     * f0 color interpolation is done on top of this interpolation. */

9934    vec3 f0_glass = mix(vec3(1.0), base_color.rgb, specular_tint);

9935    float fresnel = F_eta(ior, NV);

9936    vec3 spec_col = F_color_blend(ior, fresnel, f0_glass) * fresnel;

9937    f0 = mix(f0, spec_col, transmission);

9938  

9939    vec3 mixed_ss_base_color = mix(diffuse, subsurface_color.rgb, subsurface);

9940  

9941    float sss_scalef = dot(sss_scale, vec3(1.0 / 3.0)) * subsurface;

9942    eevee_closure_principled(N,

9943                             mixed_ss_base_color,

9944                             f0,

9945                             int(ssr_id),

9946                             roughness,

9947                             CN,

9948                             clearcoat * 0.25,

9949                             clearcoat_roughness,

9950                             1.0,

9951                             sss_scalef,

9952                             ior,

9953                             out_diff,

9954                             out_trans,

9955                             out_spec,

9956                             out_refr,

9957                             ssr_spec);

9958  

9959    vec3 refr_color = base_color.rgb;

9960    refr_color *= (refractionDepth > 0.0) ? refr_color :

9961                                            vec3(1.0); /* Simulate 2 transmission event */

9962    out_refr *= refr_color * (1.0 - fresnel) * transmission;

9963  

9964    vec3 vN = mat3(ViewMatrix) * N;

9965    result = CLOSURE_DEFAULT;

9966    result.radiance = out_spec + out_refr;

9967    result.radiance += out_diff * out_sheen; /* Coarse approx. */

9968  #  ifndef USE_SSS

9969    result.radiance += (out_diff + out_trans) * mixed_ss_base_color * (1.0 - transmission);

9970  #  endif

9971    result.ssr_data = vec4(ssr_spec, roughness);

9972    result.ssr_normal = normal_encode(vN, viewCameraVec);

9973    result.ssr_id = int(ssr_id);

9974  #  ifdef USE_SSS

9975    result.sss_data.a = sss_scalef;

9976    result.sss_data.rgb = out_diff + out_trans;

9977  #    ifdef USE_SSS_ALBEDO

9978    result.sss_albedo.rgb = mixed_ss_base_color;

9979  #    else

9980    result.sss_data.rgb *= mixed_ss_base_color;

9981  #    endif

9982    result.sss_data.rgb *= (1.0 - transmission);

9983  #  endif

9984  }

9985  

9986  void node_bsdf_principled_dielectric(vec4 base_color,

9987                                       float subsurface,

9988                                       vec3 subsurface_radius,

9989                                       vec4 subsurface_color,

9990                                       float metallic,

9991                                       float specular,

9992                                       float specular_tint,

9993                                       float roughness,

9994                                       float anisotropic,

9995                                       float anisotropic_rotation,

9996                                       float sheen,

9997                                       float sheen_tint,

9998                                       float clearcoat,

9999                                       float clearcoat_roughness,

10000                                       float ior,

10001                                       float transmission,

10002                                       float transmission_roughness,

10003                                       vec3 N,

10004                                       vec3 CN,

10005                                       vec3 T,

10006                                       vec3 I,

10007                                       float ssr_id,

10008                                       float sss_id,

10009                                       vec3 sss_scale,

10010                                       out Closure result)

10011  {

10012    N = normalize(N);

10013    metallic = saturate(metallic);

10014    float dielectric = 1.0 - metallic;

10015  

10016    vec3 diffuse, f0, out_diff, out_spec, ssr_spec;

10017    vec3 ctint = tint_from_color(base_color.rgb);

10018    convert_metallic_to_specular_tinted(

10019        base_color.rgb, ctint, metallic, specular, specular_tint, diffuse, f0);

10020  

10021    float NV = dot(N, cameraVec);

10022    vec3 out_sheen = sheen * principled_sheen(NV, ctint, sheen_tint);

10023  

10024    eevee_closure_default(N, diffuse, f0, int(ssr_id), roughness, 1.0, out_diff, out_spec, ssr_spec);

10025  

10026    vec3 vN = mat3(ViewMatrix) * N;

10027    result = CLOSURE_DEFAULT;

10028    result.radiance = out_spec + out_diff * (diffuse + out_sheen);

10029    result.ssr_data = vec4(ssr_spec, roughness);

10030    result.ssr_normal = normal_encode(vN, viewCameraVec);

10031    result.ssr_id = int(ssr_id);

10032  }

10033  

10034  void node_bsdf_principled_metallic(vec4 base_color,

10035                                     float subsurface,

10036                                     vec3 subsurface_radius,

10037                                     vec4 subsurface_color,

10038                                     float metallic,

10039                                     float specular,

10040                                     float specular_tint,

10041                                     float roughness,

10042                                     float anisotropic,

10043                                     float anisotropic_rotation,

10044                                     float sheen,

10045                                     float sheen_tint,

10046                                     float clearcoat,

10047                                     float clearcoat_roughness,

10048                                     float ior,

10049                                     float transmission,

10050                                     float transmission_roughness,

10051                                     vec3 N,

10052                                     vec3 CN,

10053                                     vec3 T,

10054                                     vec3 I,

10055                                     float ssr_id,

10056                                     float sss_id,

10057                                     vec3 sss_scale,

10058                                     out Closure result)

10059  {

10060    N = normalize(N);

10061    vec3 out_spec, ssr_spec;

10062  

10063    eevee_closure_glossy(N, base_color.rgb, int(ssr_id), roughness, 1.0, out_spec, ssr_spec);

10064  

10065    vec3 vN = mat3(ViewMatrix) * N;

10066    result = CLOSURE_DEFAULT;

10067    result.radiance = out_spec;

10068    result.ssr_data = vec4(ssr_spec, roughness);

10069    result.ssr_normal = normal_encode(vN, viewCameraVec);

10070    result.ssr_id = int(ssr_id);

10071  }

10072  

10073  void node_bsdf_principled_clearcoat(vec4 base_color,

10074                                      float subsurface,

10075                                      vec3 subsurface_radius,

10076                                      vec4 subsurface_color,

10077                                      float metallic,

10078                                      float specular,

10079                                      float specular_tint,

10080                                      float roughness,

10081                                      float anisotropic,

10082                                      float anisotropic_rotation,

10083                                      float sheen,

10084                                      float sheen_tint,

10085                                      float clearcoat,

10086                                      float clearcoat_roughness,

10087                                      float ior,

10088                                      float transmission,

10089                                      float transmission_roughness,

10090                                      vec3 N,

10091                                      vec3 CN,

10092                                      vec3 T,

10093                                      vec3 I,

10094                                      float ssr_id,

10095                                      float sss_id,

10096                                      vec3 sss_scale,

10097                                      out Closure result)

10098  {

10099    vec3 out_spec, ssr_spec;

10100    N = normalize(N);

10101  

10102    eevee_closure_clearcoat(N,

10103                            base_color.rgb,

10104                            int(ssr_id),

10105                            roughness,

10106                            CN,

10107                            clearcoat * 0.25,

10108                            clearcoat_roughness,

10109                            1.0,

10110                            out_spec,

10111                            ssr_spec);

10112  

10113    vec3 vN = mat3(ViewMatrix) * N;

10114    result = CLOSURE_DEFAULT;

10115    result.radiance = out_spec;

10116    result.ssr_data = vec4(ssr_spec, roughness);

10117    result.ssr_normal = normal_encode(vN, viewCameraVec);

10118    result.ssr_id = int(ssr_id);

10119  }

10120  

10121  void node_bsdf_principled_subsurface(vec4 base_color,

10122                                       float subsurface,

10123                                       vec3 subsurface_radius,

10124                                       vec4 subsurface_color,

10125                                       float metallic,

10126                                       float specular,

10127                                       float specular_tint,

10128                                       float roughness,

10129                                       float anisotropic,

10130                                       float anisotropic_rotation,

10131                                       float sheen,

10132                                       float sheen_tint,

10133                                       float clearcoat,

10134                                       float clearcoat_roughness,

10135                                       float ior,

10136                                       float transmission,

10137                                       float transmission_roughness,

10138                                       vec3 N,

10139                                       vec3 CN,

10140                                       vec3 T,

10141                                       vec3 I,

10142                                       float ssr_id,

10143                                       float sss_id,

10144                                       vec3 sss_scale,

10145                                       out Closure result)

10146  {

10147    metallic = saturate(metallic);

10148    N = normalize(N);

10149  

10150    vec3 diffuse, f0, out_diff, out_spec, out_trans, ssr_spec;

10151    vec3 ctint = tint_from_color(base_color.rgb);

10152    convert_metallic_to_specular_tinted(

10153        base_color.rgb, ctint, metallic, specular, specular_tint, diffuse, f0);

10154  

10155    subsurface_color = subsurface_color * (1.0 - metallic);

10156    vec3 mixed_ss_base_color = mix(diffuse, subsurface_color.rgb, subsurface);

10157    float sss_scalef = dot(sss_scale, vec3(1.0 / 3.0)) * subsurface;

10158  

10159    float NV = dot(N, cameraVec);

10160    vec3 out_sheen = sheen * principled_sheen(NV, ctint, sheen_tint);

10161  

10162    eevee_closure_skin(N,

10163                       mixed_ss_base_color,

10164                       f0,

10165                       int(ssr_id),

10166                       roughness,

10167                       1.0,

10168                       sss_scalef,

10169                       out_diff,

10170                       out_trans,

10171                       out_spec,

10172                       ssr_spec);

10173  

10174    vec3 vN = mat3(ViewMatrix) * N;

10175    result = CLOSURE_DEFAULT;

10176    result.radiance = out_spec;

10177    result.ssr_data = vec4(ssr_spec, roughness);

10178    result.ssr_normal = normal_encode(vN, viewCameraVec);

10179    result.ssr_id = int(ssr_id);

10180  #  ifdef USE_SSS

10181    result.sss_data.a = sss_scalef;

10182    result.sss_data.rgb = out_diff + out_trans;

10183  #    ifdef USE_SSS_ALBEDO

10184    result.sss_albedo.rgb = mixed_ss_base_color;

10185  #    else

10186    result.sss_data.rgb *= mixed_ss_base_color;

10187  #    endif

10188  #  else

10189    result.radiance += (out_diff + out_trans) * mixed_ss_base_color;

10190  #  endif

10191    result.radiance += out_diff * out_sheen;

10192  }

10193  

10194  void node_bsdf_principled_glass(vec4 base_color,

10195                                  float subsurface,

10196                                  vec3 subsurface_radius,

10197                                  vec4 subsurface_color,

10198                                  float metallic,

10199                                  float specular,

10200                                  float specular_tint,

10201                                  float roughness,

10202                                  float anisotropic,

10203                                  float anisotropic_rotation,

10204                                  float sheen,

10205                                  float sheen_tint,

10206                                  float clearcoat,

10207                                  float clearcoat_roughness,

10208                                  float ior,

10209                                  float transmission,

10210                                  float transmission_roughness,

10211                                  vec3 N,

10212                                  vec3 CN,

10213                                  vec3 T,

10214                                  vec3 I,

10215                                  float ssr_id,

10216                                  float sss_id,

10217                                  vec3 sss_scale,

10218                                  out Closure result)

10219  {

10220    ior = max(ior, 1e-5);

10221    N = normalize(N);

10222  

10223    vec3 f0, out_spec, out_refr, ssr_spec;

10224    f0 = mix(vec3(1.0), base_color.rgb, specular_tint);

10225  

10226    eevee_closure_glass(

10227        N, vec3(1.0), int(ssr_id), roughness, 1.0, ior, out_spec, out_refr, ssr_spec);

10228  

10229    vec3 refr_color = base_color.rgb;

10230    refr_color *= (refractionDepth > 0.0) ? refr_color :

10231                                            vec3(1.0); /* Simulate 2 transmission events */

10232    out_refr *= refr_color;

10233  

10234    float fresnel = F_eta(ior, dot(N, cameraVec));

10235    vec3 spec_col = F_color_blend(ior, fresnel, f0);

10236    out_spec *= spec_col;

10237    ssr_spec *= spec_col * fresnel;

10238  

10239    vec3 vN = mat3(ViewMatrix) * N;

10240    result = CLOSURE_DEFAULT;

10241    result.radiance = mix(out_refr, out_spec, fresnel);

10242    result.ssr_data = vec4(ssr_spec, roughness);

10243    result.ssr_normal = normal_encode(vN, viewCameraVec);

10244    result.ssr_id = int(ssr_id);

10245  }

10246  

10247  void node_bsdf_translucent(vec4 color, vec3 N, out Closure result)

10248  {

10249    node_bsdf_diffuse(color, 0.0, -N, result);

10250  }

10251  

10252  void node_bsdf_transparent(vec4 color, out Closure result)

10253  {

10254    /* this isn't right */

10255    result = CLOSURE_DEFAULT;

10256    result.radiance = vec3(0.0);

10257    result.opacity = clamp(1.0 - dot(color.rgb, vec3(0.3333334)), 0.0, 1.0);

10258    result.ssr_id = TRANSPARENT_CLOSURE_FLAG;

10259  }

10260  

10261  void node_bsdf_velvet(vec4 color, float sigma, vec3 N, out Closure result)

10262  {

10263    node_bsdf_diffuse(color, 0.0, N, result);

10264  }

10265  

10266  void node_subsurface_scattering(vec4 color,

10267                                  float scale,

10268                                  vec3 radius,

10269                                  float sharpen,

10270                                  float texture_blur,

10271                                  vec3 N,

10272                                  float sss_id,

10273                                  out Closure result)

10274  {

10275  #  if defined(USE_SSS)

10276    N = normalize(N);

10277    vec3 out_diff, out_trans;

10278    vec3 vN = mat3(ViewMatrix) * N;

10279    result = CLOSURE_DEFAULT;

10280    result.ssr_data = vec4(0.0);

10281    result.ssr_normal = normal_encode(vN, viewCameraVec);

10282    result.ssr_id = -1;

10283    result.sss_data.a = scale;

10284    eevee_closure_subsurface(N, color.rgb, 1.0, scale, out_diff, out_trans);

10285    result.sss_data.rgb = out_diff + out_trans;

10286  #    ifdef USE_SSS_ALBEDO

10287    /* Not perfect for texture_blur not exactly equal to 0.0 or 1.0. */

10288    result.sss_albedo.rgb = mix(color.rgb, vec3(1.0), texture_blur);

10289    result.sss_data.rgb *= mix(vec3(1.0), color.rgb, texture_blur);

10290  #    else

10291    result.sss_data.rgb *= color.rgb;

10292  #    endif

10293  #  else

10294    node_bsdf_diffuse(color, 0.0, N, result);

10295  #  endif

10296  }

10297  

10298  void node_bsdf_refraction(vec4 color, float roughness, float ior, vec3 N, out Closure result)

10299  {

10300    N = normalize(N);

10301    vec3 out_refr;

10302    color.rgb *= (refractionDepth > 0.0) ? color.rgb : vec3(1.0); /* Simulate 2 absorption event. */

10303    eevee_closure_refraction(N, roughness, ior, out_refr);

10304    vec3 vN = mat3(ViewMatrix) * N;

10305    result = CLOSURE_DEFAULT;

10306    result.ssr_normal = normal_encode(vN, viewCameraVec);

10307    result.radiance = out_refr * color.rgb;

10308    result.ssr_id = REFRACT_CLOSURE_FLAG;

10309  }

10310  

10311  void node_ambient_occlusion(

10312      vec4 color, float distance, vec3 normal, out vec4 result_color, out float result_ao)

10313  {

10314    vec3 bent_normal;

10315    vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

10316    result_ao = occlusion_compute(normalize(normal), viewPosition, 1.0, rand, bent_normal);

10317    result_color = result_ao * color;

10318  }

10319  

10320  #endif /* VOLUMETRICS */

10321  

10322  /* emission */

10323  

10324  void node_emission(vec4 color, float strength, vec3 vN, out Closure result)

10325  {

10326  #ifndef VOLUMETRICS

10327    color *= strength;

10328    result = CLOSURE_DEFAULT;

10329    result.radiance = color.rgb;

10330    result.opacity = color.a;

10331    result.ssr_normal = normal_encode(vN, viewCameraVec);

10332  #else

10333    result = Closure(vec3(0.0), vec3(0.0), color.rgb * strength, 0.0);

10334  #endif

10335  }

10336  

10337  void node_wireframe(float size, vec2 barycentric, vec3 barycentric_dist, out float fac)

10338  {

10339    vec3 barys = barycentric.xyy;

10340    barys.z = 1.0 - barycentric.x - barycentric.y;

10341  

10342    size *= 0.5;

10343    vec3 s = step(-size, -barys * barycentric_dist);

10344  

10345    fac = max(s.x, max(s.y, s.z));

10346  }

10347  

10348  void node_wireframe_screenspace(float size, vec2 barycentric, out float fac)

10349  {

10350    vec3 barys = barycentric.xyy;

10351    barys.z = 1.0 - barycentric.x - barycentric.y;

10352  

10353    size *= (1.0 / 3.0);

10354    vec3 dx = dFdx(barys);

10355    vec3 dy = dFdy(barys);

10356    vec3 deltas = sqrt(dx * dx + dy * dy);

10357  

10358    vec3 s = step(-deltas * size, -barys);

10359  

10360    fac = max(s.x, max(s.y, s.z));

10361  }

10362  

10363  /* background */

10364  

10365  void node_tex_environment_texco(vec3 viewvec, out vec3 worldvec)

10366  {

10367  #ifdef MESH_SHADER

10368    worldvec = worldPosition;

10369  #else

10370    vec4 v = (ProjectionMatrix[3][3] == 0.0) ? vec4(viewvec, 1.0) : vec4(0.0, 0.0, 1.0, 1.0);

10371    vec4 co_homogenous = (ProjectionMatrixInverse * v);

10372  

10373    vec4 co = vec4(co_homogenous.xyz / co_homogenous.w, 0.0);

10374  #  if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10375    worldvec = (ViewMatrixInverse * co).xyz;

10376  #  else

10377    worldvec = (ModelViewMatrixInverse * co).xyz;

10378  #  endif

10379  #endif

10380  }

10381  

10382  void node_background(vec4 color, float strength, out Closure result)

10383  {

10384  #ifndef VOLUMETRICS

10385    color *= strength;

10386    result = CLOSURE_DEFAULT;

10387    result.radiance = color.rgb;

10388    result.opacity = color.a;

10389  #else

10390    result = CLOSURE_DEFAULT;

10391  #endif

10392  }

10393  

10394  /* volumes */

10395  

10396  void node_volume_scatter(vec4 color, float density, float anisotropy, out Closure result)

10397  {

10398  #ifdef VOLUMETRICS

10399    result = Closure(vec3(0.0), color.rgb * density, vec3(0.0), anisotropy);

10400  #else

10401    result = CLOSURE_DEFAULT;

10402  #endif

10403  }

10404  

10405  void node_volume_absorption(vec4 color, float density, out Closure result)

10406  {

10407  #ifdef VOLUMETRICS

10408    result = Closure((1.0 - color.rgb) * density, vec3(0.0), vec3(0.0), 0.0);

10409  #else

10410    result = CLOSURE_DEFAULT;

10411  #endif

10412  }

10413  

10414  void node_blackbody(float temperature, sampler1DArray spectrummap, float layer, out vec4 color)

10415  {

10416    if (temperature >= 12000.0) {

10417      color = vec4(0.826270103, 0.994478524, 1.56626022, 1.0);

10418    }

10419    else if (temperature < 965.0) {

10420      color = vec4(4.70366907, 0.0, 0.0, 1.0);

10421    }

10422    else {

10423      float t = (temperature - 965.0) / (12000.0 - 965.0);

10424      color = vec4(texture(spectrummap, vec2(t, layer)).rgb, 1.0);

10425    }

10426  }

10427  

10428  void node_volume_principled(vec4 color,

10429                              float density,

10430                              float anisotropy,

10431                              vec4 absorption_color,

10432                              float emission_strength,

10433                              vec4 emission_color,

10434                              float blackbody_intensity,

10435                              vec4 blackbody_tint,

10436                              float temperature,

10437                              float density_attribute,

10438                              vec4 color_attribute,

10439                              float temperature_attribute,

10440                              sampler1DArray spectrummap,

10441                              float layer,

10442                              out Closure result)

10443  {

10444  #ifdef VOLUMETRICS

10445    vec3 absorption_coeff = vec3(0.0);

10446    vec3 scatter_coeff = vec3(0.0);

10447    vec3 emission_coeff = vec3(0.0);

10448  

10449    /* Compute density. */

10450    density = max(density, 0.0);

10451  

10452    if (density > 1e-5) {

10453      density = max(density * density_attribute, 0.0);

10454    }

10455  

10456    if (density > 1e-5) {

10457      /* Compute scattering and absorption coefficients. */

10458      vec3 scatter_color = color.rgb * color_attribute.rgb;

10459  

10460      scatter_coeff = scatter_color * density;

10461      absorption_color.rgb = sqrt(max(absorption_color.rgb, 0.0));

10462      absorption_coeff = max(1.0 - scatter_color, 0.0) * max(1.0 - absorption_color.rgb, 0.0) *

10463                         density;

10464    }

10465  

10466    /* Compute emission. */

10467    emission_strength = max(emission_strength, 0.0);

10468  

10469    if (emission_strength > 1e-5) {

10470      emission_coeff += emission_strength * emission_color.rgb;

10471    }

10472  

10473    if (blackbody_intensity > 1e-3) {

10474      /* Add temperature from attribute. */

10475      float T = max(temperature * max(temperature_attribute, 0.0), 0.0);

10476  

10477      /* Stefan-Boltzman law. */

10478      float T2 = T * T;

10479      float T4 = T2 * T2;

10480      float sigma = 5.670373e-8 * 1e-6 / M_PI;

10481      float intensity = sigma * mix(1.0, T4, blackbody_intensity);

10482  

10483      if (intensity > 1e-5) {

10484        vec4 bb;

10485        node_blackbody(T, spectrummap, layer, bb);

10486        emission_coeff += bb.rgb * blackbody_tint.rgb * intensity;

10487      }

10488    }

10489  

10490    result = Closure(absorption_coeff, scatter_coeff, emission_coeff, anisotropy);

10491  #else

10492    result = CLOSURE_DEFAULT;

10493  #endif

10494  }

10495  

10496  /* closures */

10497  

10498  void node_mix_shader(float fac, Closure shader1, Closure shader2, out Closure shader)

10499  {

10500    shader = closure_mix(shader1, shader2, fac);

10501  }

10502  

10503  void node_add_shader(Closure shader1, Closure shader2, out Closure shader)

10504  {

10505    shader = closure_add(shader1, shader2);

10506  }

10507  

10508  /* fresnel */

10509  

10510  void node_fresnel(float ior, vec3 N, vec3 I, out float result)

10511  {

10512    N = normalize(N);

10513    /* handle perspective/orthographic */

10514    vec3 I_view = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10515  

10516    float eta = max(ior, 0.00001);

10517    result = fresnel_dielectric(I_view, N, (gl_FrontFacing) ? eta : 1.0 / eta);

10518  }

10519  

10520  /* layer_weight */

10521  

10522  void node_layer_weight(float blend, vec3 N, vec3 I, out float fresnel, out float facing)

10523  {

10524    N = normalize(N);

10525  

10526    /* fresnel */

10527    float eta = max(1.0 - blend, 0.00001);

10528    vec3 I_view = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10529  

10530    fresnel = fresnel_dielectric(I_view, N, (gl_FrontFacing) ? 1.0 / eta : eta);

10531  

10532    /* facing */

10533    facing = abs(dot(I_view, N));

10534    if (blend != 0.5) {

10535      blend = clamp(blend, 0.0, 0.99999);

10536      blend = (blend < 0.5) ? 2.0 * blend : 0.5 / (1.0 - blend);

10537      facing = pow(facing, blend);

10538    }

10539    facing = 1.0 - facing;

10540  }

10541  

10542  /* gamma */

10543  

10544  void node_gamma(vec4 col, float gamma, out vec4 outcol)

10545  {

10546    outcol = col;

10547  

10548    if (col.r > 0.0)

10549      outcol.r = compatible_pow(col.r, gamma);

10550    if (col.g > 0.0)

10551      outcol.g = compatible_pow(col.g, gamma);

10552    if (col.b > 0.0)

10553      outcol.b = compatible_pow(col.b, gamma);

10554  }

10555  

10556  /* geometry */

10557  

10558  void node_attribute_volume_density(sampler3D tex, out vec4 outcol, out vec3 outvec, out float outf)

10559  {

10560  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10561    vec3 cos = volumeObjectLocalCoord;

10562  #else

10563    vec3 cos = vec3(0.0);

10564  #endif

10565    outvec = texture(tex, cos).aaa;

10566    outcol = vec4(outvec, 1.0);

10567    outf = dot(vec3(1.0 / 3.0), outvec);

10568  }

10569  

10570  uniform vec3 volumeColor = vec3(1.0);

10571  

10572  void node_attribute_volume_color(sampler3D tex, out vec4 outcol, out vec3 outvec, out float outf)

10573  {

10574  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10575    vec3 cos = volumeObjectLocalCoord;

10576  #else

10577    vec3 cos = vec3(0.0);

10578  #endif

10579  

10580    vec4 value = texture(tex, cos).rgba;

10581    /* Density is premultiplied for interpolation, divide it out here. */

10582    if (value.a > 1e-8)

10583      value.rgb /= value.a;

10584  

10585    outvec = value.rgb * volumeColor;

10586    outcol = vec4(outvec, 1.0);

10587    outf = dot(vec3(1.0 / 3.0), outvec);

10588  }

10589  

10590  void node_attribute_volume_flame(sampler3D tex, out vec4 outcol, out vec3 outvec, out float outf)

10591  {

10592  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10593    vec3 cos = volumeObjectLocalCoord;

10594  #else

10595    vec3 cos = vec3(0.0);

10596  #endif

10597    outf = texture(tex, cos).r;

10598    outvec = vec3(outf, outf, outf);

10599    outcol = vec4(outf, outf, outf, 1.0);

10600  }

10601  

10602  void node_attribute_volume_temperature(

10603      sampler3D tex, vec2 temperature, out vec4 outcol, out vec3 outvec, out float outf)

10604  {

10605  #if defined(MESH_SHADER) && defined(VOLUMETRICS)

10606    vec3 cos = volumeObjectLocalCoord;

10607  #else

10608    vec3 cos = vec3(0.0);

10609  #endif

10610    float flame = texture(tex, cos).r;

10611  

10612    outf = (flame > 0.01) ? temperature.x + flame * (temperature.y - temperature.x) : 0.0;

10613    outvec = vec3(outf, outf, outf);

10614    outcol = vec4(outf, outf, outf, 1.0);

10615  }

10616  

10617  void node_attribute(vec3 attr, out vec4 outcol, out vec3 outvec, out float outf)

10618  {

10619    outcol = vec4(attr, 1.0);

10620    outvec = attr;

10621    outf = dot(vec3(1.0 / 3.0), attr);

10622  }

10623  

10624  void node_uvmap(vec3 attr_uv, out vec3 outvec)

10625  {

10626    outvec = attr_uv;

10627  }

10628  

10629  void tangent_orco_x(vec3 orco_in, out vec3 orco_out)

10630  {

10631    orco_out = orco_in.xzy * vec3(0.0, -0.5, 0.5) + vec3(0.0, 0.25, -0.25);

10632  }

10633  

10634  void tangent_orco_y(vec3 orco_in, out vec3 orco_out)

10635  {

10636    orco_out = orco_in.zyx * vec3(-0.5, 0.0, 0.5) + vec3(0.25, 0.0, -0.25);

10637  }

10638  

10639  void tangent_orco_z(vec3 orco_in, out vec3 orco_out)

10640  {

10641    orco_out = orco_in.yxz * vec3(-0.5, 0.5, 0.0) + vec3(0.25, -0.25, 0.0);

10642  }

10643  

10644  void node_tangentmap(vec4 attr_tangent, mat4 toworld, out vec3 tangent)

10645  {

10646    tangent = normalize((toworld * vec4(attr_tangent.xyz, 0.0)).xyz);

10647  }

10648  

10649  void node_tangent(vec3 N, vec3 orco, mat4 objmat, mat4 toworld, out vec3 T)

10650  {

10651  #ifndef VOLUMETRICS

10652    N = normalize(gl_FrontFacing ? worldNormal : -worldNormal);

10653  #else

10654    N = (toworld * vec4(N, 0.0)).xyz;

10655  #endif

10656    T = (objmat * vec4(orco, 0.0)).xyz;

10657    T = cross(N, normalize(cross(T, N)));

10658  }

10659  

10660  void node_geometry(vec3 I,

10661                     vec3 N,

10662                     vec3 orco,

10663                     mat4 objmat,

10664                     mat4 toworld,

10665                     vec2 barycentric,

10666                     out vec3 position,

10667                     out vec3 normal,

10668                     out vec3 tangent,

10669                     out vec3 true_normal,

10670                     out vec3 incoming,

10671                     out vec3 parametric,

10672                     out float backfacing,

10673                     out float pointiness)

10674  {

10675    /* handle perspective/orthographic */

10676    vec3 I_view = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10677    incoming = -(toworld * vec4(I_view, 0.0)).xyz;

10678  

10679  #if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10680    position = -incoming;

10681    true_normal = normal = incoming;

10682    tangent = parametric = vec3(0.0);

10683    vec3(0.0);

10684    backfacing = 0.0;

10685    pointiness = 0.0;

10686  #else

10687  

10688    position = worldPosition;

10689  #  ifndef VOLUMETRICS

10690    normal = normalize(gl_FrontFacing ? worldNormal : -worldNormal);

10691    vec3 B = dFdx(worldPosition);

10692    vec3 T = dFdy(worldPosition);

10693    true_normal = normalize(cross(B, T));

10694  #  else

10695    normal = (toworld * vec4(N, 0.0)).xyz;

10696    true_normal = normal;

10697  #  endif

10698    tangent_orco_z(orco, orco);

10699    node_tangent(N, orco, objmat, toworld, tangent);

10700  

10701    parametric = vec3(barycentric, 0.0);

10702    backfacing = (gl_FrontFacing) ? 0.0 : 1.0;

10703    pointiness = 0.5;

10704  #endif

10705  }

10706  

10707  void generated_texco(vec3 I, vec3 attr_orco, out vec3 generated)

10708  {

10709    vec4 v = (ProjectionMatrix[3][3] == 0.0) ? vec4(I, 1.0) : vec4(0.0, 0.0, 1.0, 1.0);

10710    vec4 co_homogenous = (ProjectionMatrixInverse * v);

10711    vec4 co = vec4(co_homogenous.xyz / co_homogenous.w, 0.0);

10712    co.xyz = normalize(co.xyz);

10713  #if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10714    generated = (ViewMatrixInverse * co).xyz;

10715  #else

10716    generated_from_orco(attr_orco, generated);

10717  #endif

10718  }

10719  

10720  void node_tex_coord(vec3 I,

10721                      vec3 N,

10722                      mat4 viewinvmat,

10723                      mat4 obinvmat,

10724                      vec4 camerafac,

10725                      vec3 attr_orco,

10726                      vec3 attr_uv,

10727                      out vec3 generated,

10728                      out vec3 normal,

10729                      out vec3 uv,

10730                      out vec3 object,

10731                      out vec3 camera,

10732                      out vec3 window,

10733                      out vec3 reflection)

10734  {

10735    generated = attr_orco;

10736    normal = normalize(NormalMatrixInverse * N);

10737    uv = attr_uv;

10738    object = (obinvmat * (viewinvmat * vec4(I, 1.0))).xyz;

10739    camera = vec3(I.xy, -I.z);

10740    vec4 projvec = ProjectionMatrix * vec4(I, 1.0);

10741    window = vec3(mtex_2d_mapping(projvec.xyz / projvec.w).xy * camerafac.xy + camerafac.zw, 0.0);

10742  

10743    vec3 shade_I = (ProjectionMatrix[3][3] == 0.0) ? normalize(I) : vec3(0.0, 0.0, -1.0);

10744    vec3 view_reflection = reflect(shade_I, normalize(N));

10745    reflection = (viewinvmat * vec4(view_reflection, 0.0)).xyz;

10746  }

10747  

10748  void node_tex_coord_background(vec3 I,

10749                                 vec3 N,

10750                                 mat4 viewinvmat,

10751                                 mat4 obinvmat,

10752                                 vec4 camerafac,

10753                                 vec3 attr_orco,

10754                                 vec3 attr_uv,

10755                                 out vec3 generated,

10756                                 out vec3 normal,

10757                                 out vec3 uv,

10758                                 out vec3 object,

10759                                 out vec3 camera,

10760                                 out vec3 window,

10761                                 out vec3 reflection)

10762  {

10763    vec4 v = (ProjectionMatrix[3][3] == 0.0) ? vec4(I, 1.0) : vec4(0.0, 0.0, 1.0, 1.0);

10764    vec4 co_homogenous = (ProjectionMatrixInverse * v);

10765  

10766    vec4 co = vec4(co_homogenous.xyz / co_homogenous.w, 0.0);

10767  

10768    co = normalize(co);

10769  

10770  #if defined(WORLD_BACKGROUND) || defined(PROBE_CAPTURE)

10771    vec3 coords = (ViewMatrixInverse * co).xyz;

10772  #else

10773    vec3 coords = (ModelViewMatrixInverse * co).xyz;

10774  #endif

10775  

10776    generated = coords;

10777    normal = -coords;

10778    uv = vec3(attr_uv.xy, 0.0);

10779    object = coords;

10780  

10781    camera = vec3(co.xy, -co.z);

10782    window = vec3(mtex_2d_mapping(I).xy * camerafac.xy + camerafac.zw, 0.0);

10783  

10784    reflection = -coords;

10785  }

10786  

10787  #if defined(WORLD_BACKGROUND) || (defined(PROBE_CAPTURE) && !defined(MESH_SHADER))

10788  #  define node_tex_coord node_tex_coord_background

10789  #endif

10790  

10791  /* textures */

10792  

10793  float calc_gradient(vec3 p, int gradient_type)

10794  {

10795    float x, y, z;

10796    x = p.x;

10797    y = p.y;

10798    z = p.z;

10799    if (gradient_type == 0) { /* linear */

10800      return x;

10801    }

10802    else if (gradient_type == 1) { /* quadratic */

10803      float r = max(x, 0.0);

10804      return r * r;

10805    }

10806    else if (gradient_type == 2) { /* easing */

10807      float r = min(max(x, 0.0), 1.0);

10808      float t = r * r;

10809      return (3.0 * t - 2.0 * t * r);

10810    }

10811    else if (gradient_type == 3) { /* diagonal */

10812      return (x + y) * 0.5;

10813    }

10814    else if (gradient_type == 4) { /* radial */

10815      return atan(y, x) / (M_PI * 2) + 0.5;

10816    }

10817    else {

10818      /* Bias a little bit for the case where p is a unit length vector,

10819       * to get exactly zero instead of a small random value depending

10820       * on float precision. */

10821      float r = max(0.999999 - sqrt(x * x + y * y + z * z), 0.0);

10822      if (gradient_type == 5) { /* quadratic sphere */

10823        return r * r;

10824      }

10825      else if (gradient_type == 6) { /* sphere */

10826        return r;

10827      }

10828    }

10829    return 0.0;

10830  }

10831  

10832  void node_tex_gradient(vec3 co, float gradient_type, out vec4 color, out float fac)

10833  {

10834    float f = calc_gradient(co, int(gradient_type));

10835    f = clamp(f, 0.0, 1.0);

10836  

10837    color = vec4(f, f, f, 1.0);

10838    fac = f;

10839  }

10840  

10841  void node_tex_checker(

10842      vec3 co, vec4 color1, vec4 color2, float scale, out vec4 color, out float fac)

10843  {

10844    vec3 p = co * scale;

10845  

10846    /* Prevent precision issues on unit coordinates. */

10847    p = (p + 0.000001) * 0.999999;

10848  

10849    int xi = int(abs(floor(p.x)));

10850    int yi = int(abs(floor(p.y)));

10851    int zi = int(abs(floor(p.z)));

10852  

10853    bool check = ((mod(xi, 2) == mod(yi, 2)) == bool(mod(zi, 2)));

10854  

10855    color = check ? color1 : color2;

10856    fac = check ? 1.0 : 0.0;

10857  }

10858  

10859  vec2 calc_brick_texture(vec3 p,

10860                          float mortar_size,

10861                          float mortar_smooth,

10862                          float bias,

10863                          float brick_width,

10864                          float row_height,

10865                          float offset_amount,

10866                          int offset_frequency,

10867                          float squash_amount,

10868                          int squash_frequency)

10869  {

10870    int bricknum, rownum;

10871    float offset = 0.0;

10872    float x, y;

10873  

10874    rownum = floor_to_int(p.y / row_height);

10875  

10876    if (offset_frequency != 0 && squash_frequency != 0) {

10877      brick_width *= (rownum % squash_frequency != 0) ? 1.0 : squash_amount;           /* squash */

10878      offset = (rownum % offset_frequency != 0) ? 0.0 : (brick_width * offset_amount); /* offset */

10879    }

10880  

10881    bricknum = floor_to_int((p.x + offset) / brick_width);

10882  

10883    x = (p.x + offset) - brick_width * bricknum;

10884    y = p.y - row_height * rownum;

10885  

10886    float tint = clamp((integer_noise((rownum << 16) + (bricknum & 0xFFFF)) + bias), 0.0, 1.0);

10887  

10888    float min_dist = min(min(x, y), min(brick_width - x, row_height - y));

10889    if (min_dist >= mortar_size) {

10890      return vec2(tint, 0.0);

10891    }

10892    else if (mortar_smooth == 0.0) {

10893      return vec2(tint, 1.0);

10894    }

10895    else {

10896      min_dist = 1.0 - min_dist / mortar_size;

10897      return vec2(tint, smoothstep(0.0, mortar_smooth, min_dist));

10898    }

10899  }

10900  

10901  void node_tex_brick(vec3 co,

10902                      vec4 color1,

10903                      vec4 color2,

10904                      vec4 mortar,

10905                      float scale,

10906                      float mortar_size,

10907                      float mortar_smooth,

10908                      float bias,

10909                      float brick_width,

10910                      float row_height,

10911                      float offset_amount,

10912                      float offset_frequency,

10913                      float squash_amount,

10914                      float squash_frequency,

10915                      out vec4 color,

10916                      out float fac)

10917  {

10918    vec2 f2 = calc_brick_texture(co * scale,

10919                                 mortar_size,

10920                                 mortar_smooth,

10921                                 bias,

10922                                 brick_width,

10923                                 row_height,

10924                                 offset_amount,

10925                                 int(offset_frequency),

10926                                 squash_amount,

10927                                 int(squash_frequency));

10928    float tint = f2.x;

10929    float f = f2.y;

10930    if (f != 1.0) {

10931      float facm = 1.0 - tint;

10932      color1 = facm * color1 + tint * color2;

10933    }

10934    color = mix(color1, mortar, f);

10935    fac = f;

10936  }

10937  

10938  void node_tex_clouds(vec3 co, float size, out vec4 color, out float fac)

10939  {

10940    color = vec4(1.0);

10941    fac = 1.0;

10942  }

10943  

10944  void node_tex_environment_equirectangular(vec3 co, float clamp_size, sampler2D ima, out vec3 uv)

10945  {

10946    vec3 nco = normalize(co);

10947    uv.x = -atan(nco.y, nco.x) / (2.0 * M_PI) + 0.5;

10948    uv.y = atan(nco.z, hypot(nco.x, nco.y)) / M_PI + 0.5;

10949  

10950    /* Fix pole bleeding */

10951    float half_height = clamp_size / float(textureSize(ima, 0).y);

10952    uv.y = clamp(uv.y, half_height, 1.0 - half_height);

10953    uv.z = 0.0;

10954  }

10955  

10956  void node_tex_environment_mirror_ball(vec3 co, out vec3 uv)

10957  {

10958    vec3 nco = normalize(co);

10959    nco.y -= 1.0;

10960  

10961    float div = 2.0 * sqrt(max(-0.5 * nco.y, 0.0));

10962    nco /= max(1e-8, div);

10963  

10964    uv = 0.5 * nco.xzz + 0.5;

10965  }

10966  

10967  void node_tex_environment_empty(vec3 co, out vec4 color)

10968  {

10969    color = vec4(1.0, 0.0, 1.0, 1.0);

10970  }

10971  

10972  /* 16bits floats limits. Higher/Lower values produce +/-inf. */

10973  #define safe_color(a) (clamp(a, -65520.0, 65520.0))

10974  

10975  void node_tex_image_linear(vec3 co, sampler2D ima, out vec4 color, out float alpha)

10976  {

10977    color = safe_color(texture(ima, co.xy));

10978    alpha = color.a;

10979  }

10980  

10981  void node_tex_image_linear_no_mip(vec3 co, sampler2D ima, out vec4 color, out float alpha)

10982  {

10983    color = safe_color(textureLod(ima, co.xy, 0.0));

10984    alpha = color.a;

10985  }

10986  

10987  void node_tex_image_nearest(vec3 co, sampler2D ima, out vec4 color, out float alpha)

10988  {

10989    ivec2 pix = ivec2(fract(co.xy) * textureSize(ima, 0).xy);

10990    color = safe_color(texelFetch(ima, pix, 0));

10991    alpha = color.a;

10992  }

10993  

10994  /* @arg f: signed distance to texel center. */

10995  void cubic_bspline_coefs(vec2 f, out vec2 w0, out vec2 w1, out vec2 w2, out vec2 w3)

10996  {

10997    vec2 f2 = f * f;

10998    vec2 f3 = f2 * f;

10999    /* Bspline coefs (optimized) */

11000    w3 = f3 / 6.0;

11001    w0 = -w3 + f2 * 0.5 - f * 0.5 + 1.0 / 6.0;

11002    w1 = f3 * 0.5 - f2 * 1.0 + 2.0 / 3.0;

11003    w2 = 1.0 - w0 - w1 - w3;

11004  }

11005  

11006  void node_tex_image_cubic_ex(

11007      vec3 co, sampler2D ima, float do_extend, out vec4 color, out float alpha)

11008  {

11009    vec2 tex_size = vec2(textureSize(ima, 0).xy);

11010  

11011    co.xy *= tex_size;

11012    /* texel center */

11013    vec2 tc = floor(co.xy - 0.5) + 0.5;

11014    vec2 w0, w1, w2, w3;

11015    cubic_bspline_coefs(co.xy - tc, w0, w1, w2, w3);

11016  

11017  #if 1 /* Optimized version using 4 filtered tap. */

11018    vec2 s0 = w0 + w1;

11019    vec2 s1 = w2 + w3;

11020  

11021    vec2 f0 = w1 / (w0 + w1);

11022    vec2 f1 = w3 / (w2 + w3);

11023  

11024    vec4 final_co;

11025    final_co.xy = tc - 1.0 + f0;

11026    final_co.zw = tc + 1.0 + f1;

11027  

11028    if (do_extend == 1.0) {

11029      final_co = clamp(final_co, vec4(0.5), tex_size.xyxy - 0.5);

11030    }

11031    final_co /= tex_size.xyxy;

11032  

11033    color = safe_color(textureLod(ima, final_co.xy, 0.0)) * s0.x * s0.y;

11034    color += safe_color(textureLod(ima, final_co.zy, 0.0)) * s1.x * s0.y;

11035    color += safe_color(textureLod(ima, final_co.xw, 0.0)) * s0.x * s1.y;

11036    color += safe_color(textureLod(ima, final_co.zw, 0.0)) * s1.x * s1.y;

11037  

11038  #else /* Reference bruteforce 16 tap. */

11039    color = texelFetch(ima, ivec2(tc + vec2(-1.0, -1.0)), 0) * w0.x * w0.y;

11040    color += texelFetch(ima, ivec2(tc + vec2(0.0, -1.0)), 0) * w1.x * w0.y;

11041    color += texelFetch(ima, ivec2(tc + vec2(1.0, -1.0)), 0) * w2.x * w0.y;

11042    color += texelFetch(ima, ivec2(tc + vec2(2.0, -1.0)), 0) * w3.x * w0.y;

11043  

11044    color += texelFetch(ima, ivec2(tc + vec2(-1.0, 0.0)), 0) * w0.x * w1.y;

11045    color += texelFetch(ima, ivec2(tc + vec2(0.0, 0.0)), 0) * w1.x * w1.y;

11046    color += texelFetch(ima, ivec2(tc + vec2(1.0, 0.0)), 0) * w2.x * w1.y;

11047    color += texelFetch(ima, ivec2(tc + vec2(2.0, 0.0)), 0) * w3.x * w1.y;

11048  

11049    color += texelFetch(ima, ivec2(tc + vec2(-1.0, 1.0)), 0) * w0.x * w2.y;

11050    color += texelFetch(ima, ivec2(tc + vec2(0.0, 1.0)), 0) * w1.x * w2.y;

11051    color += texelFetch(ima, ivec2(tc + vec2(1.0, 1.0)), 0) * w2.x * w2.y;

11052    color += texelFetch(ima, ivec2(tc + vec2(2.0, 1.0)), 0) * w3.x * w2.y;

11053  

11054    color += texelFetch(ima, ivec2(tc + vec2(-1.0, 2.0)), 0) * w0.x * w3.y;

11055    color += texelFetch(ima, ivec2(tc + vec2(0.0, 2.0)), 0) * w1.x * w3.y;

11056    color += texelFetch(ima, ivec2(tc + vec2(1.0, 2.0)), 0) * w2.x * w3.y;

11057    color += texelFetch(ima, ivec2(tc + vec2(2.0, 2.0)), 0) * w3.x * w3.y;

11058  #endif

11059  

11060    alpha = color.a;

11061  }

11062  

11063  void node_tex_image_cubic(vec3 co, sampler2D ima, out vec4 color, out float alpha)

11064  {

11065    node_tex_image_cubic_ex(co, ima, 0.0, color, alpha);

11066  }

11067  

11068  void node_tex_image_cubic_extend(vec3 co, sampler2D ima, out vec4 color, out float alpha)

11069  {

11070    node_tex_image_cubic_ex(co, ima, 1.0, color, alpha);

11071  }

11072  

11073  void node_tex_image_smart(vec3 co, sampler2D ima, out vec4 color, out float alpha)

11074  {

11075    /* use cubic for now */

11076    node_tex_image_cubic_ex(co, ima, 0.0, color, alpha);

11077  }

11078  

11079  void tex_box_sample_linear(

11080      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11081  {

11082    /* X projection */

11083    vec2 uv = texco.yz;

11084    if (N.x < 0.0) {

11085      uv.x = 1.0 - uv.x;

11086    }

11087    color1 = texture(ima, uv);

11088    /* Y projection */

11089    uv = texco.xz;

11090    if (N.y > 0.0) {

11091      uv.x = 1.0 - uv.x;

11092    }

11093    color2 = texture(ima, uv);

11094    /* Z projection */

11095    uv = texco.yx;

11096    if (N.z > 0.0) {

11097      uv.x = 1.0 - uv.x;

11098    }

11099    color3 = texture(ima, uv);

11100  }

11101  

11102  void tex_box_sample_nearest(

11103      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11104  {

11105    /* X projection */

11106    vec2 uv = texco.yz;

11107    if (N.x < 0.0) {

11108      uv.x = 1.0 - uv.x;

11109    }

11110    ivec2 pix = ivec2(uv.xy * textureSize(ima, 0).xy);

11111    color1 = texelFetch(ima, pix, 0);

11112    /* Y projection */

11113    uv = texco.xz;

11114    if (N.y > 0.0) {

11115      uv.x = 1.0 - uv.x;

11116    }

11117    pix = ivec2(uv.xy * textureSize(ima, 0).xy);

11118    color2 = texelFetch(ima, pix, 0);

11119    /* Z projection */

11120    uv = texco.yx;

11121    if (N.z > 0.0) {

11122      uv.x = 1.0 - uv.x;

11123    }

11124    pix = ivec2(uv.xy * textureSize(ima, 0).xy);

11125    color3 = texelFetch(ima, pix, 0);

11126  }

11127  

11128  void tex_box_sample_cubic(

11129      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11130  {

11131    float alpha;

11132    /* X projection */

11133    vec2 uv = texco.yz;

11134    if (N.x < 0.0) {

11135      uv.x = 1.0 - uv.x;

11136    }

11137    node_tex_image_cubic_ex(uv.xyy, ima, 0.0, color1, alpha);

11138    /* Y projection */

11139    uv = texco.xz;

11140    if (N.y > 0.0) {

11141      uv.x = 1.0 - uv.x;

11142    }

11143    node_tex_image_cubic_ex(uv.xyy, ima, 0.0, color2, alpha);

11144    /* Z projection */

11145    uv = texco.yx;

11146    if (N.z > 0.0) {

11147      uv.x = 1.0 - uv.x;

11148    }

11149    node_tex_image_cubic_ex(uv.xyy, ima, 0.0, color3, alpha);

11150  }

11151  

11152  void tex_box_sample_smart(

11153      vec3 texco, vec3 N, sampler2D ima, out vec4 color1, out vec4 color2, out vec4 color3)

11154  {

11155    tex_box_sample_cubic(texco, N, ima, color1, color2, color3);

11156  }

11157  

11158  void node_tex_image_box(vec3 texco,

11159                          vec3 N,

11160                          vec4 color1,

11161                          vec4 color2,

11162                          vec4 color3,

11163                          sampler2D ima,

11164                          float blend,

11165                          out vec4 color,

11166                          out float alpha)

11167  {

11168    /* project from direction vector to barycentric coordinates in triangles */

11169    N = abs(N);

11170    N /= dot(N, vec3(1.0));

11171  

11172    /* basic idea is to think of this as a triangle, each corner representing

11173     * one of the 3 faces of the cube. in the corners we have single textures,

11174     * in between we blend between two textures, and in the middle we a blend

11175     * between three textures.

11176     *

11177     * the Nxyz values are the barycentric coordinates in an equilateral

11178     * triangle, which in case of blending, in the middle has a smaller

11179     * equilateral triangle where 3 textures blend. this divides things into

11180     * 7 zones, with an if () test for each zone

11181     * EDIT: Now there is only 4 if's. */

11182  

11183    float limit = 0.5 + 0.5 * blend;

11184  

11185    vec3 weight;

11186    weight = N.xyz / (N.xyx + N.yzz);

11187    weight = clamp((weight - 0.5 * (1.0 - blend)) / max(1e-8, blend), 0.0, 1.0);

11188  

11189    /* test for mixes between two textures */

11190    if (N.z < (1.0 - limit) * (N.y + N.x)) {

11191      weight.z = 0.0;

11192      weight.y = 1.0 - weight.x;

11193    }

11194    else if (N.x < (1.0 - limit) * (N.y + N.z)) {

11195      weight.x = 0.0;

11196      weight.z = 1.0 - weight.y;

11197    }

11198    else if (N.y < (1.0 - limit) * (N.x + N.z)) {

11199      weight.y = 0.0;

11200      weight.x = 1.0 - weight.z;

11201    }

11202    else {

11203      /* last case, we have a mix between three */

11204      weight = ((2.0 - limit) * N + (limit - 1.0)) / max(1e-8, blend);

11205    }

11206  

11207    color = weight.x * color1 + weight.y * color2 + weight.z * color3;

11208    alpha = color.a;

11209  }

11210  

11211  void tex_clip_linear(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11212  {

11213    vec2 tex_size = vec2(textureSize(ima, 0).xy);

11214    vec2 minco = min(co.xy, 1.0 - co.xy);

11215    minco = clamp(minco * tex_size + 0.5, 0.0, 1.0);

11216    float fac = minco.x * minco.y;

11217  

11218    color = mix(vec4(0.0), icolor, fac);

11219    alpha = color.a;

11220  }

11221  

11222  void tex_clip_nearest(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11223  {

11224    vec4 minco = vec4(co.xy, 1.0 - co.xy);

11225    color = (any(lessThan(minco, vec4(0.0)))) ? vec4(0.0) : icolor;

11226    alpha = color.a;

11227  }

11228  

11229  void tex_clip_cubic(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11230  {

11231    vec2 tex_size = vec2(textureSize(ima, 0).xy);

11232  

11233    co.xy *= tex_size;

11234    /* texel center */

11235    vec2 tc = floor(co.xy - 0.5) + 0.5;

11236    vec2 w0, w1, w2, w3;

11237    cubic_bspline_coefs(co.xy - tc, w0, w1, w2, w3);

11238  

11239    /* TODO Optimize this part. I'm sure there is a smarter way to do that.

11240     * Could do that when sampling? */

11241  #define CLIP_CUBIC_SAMPLE(samp, size) \

11242    (float(all(greaterThan(samp, vec2(-0.5)))) * float(all(lessThan(ivec2(samp), itex_size))))

11243    ivec2 itex_size = textureSize(ima, 0).xy;

11244    float fac;

11245    fac = CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, -1.0), itex_size) * w0.x * w0.y;

11246    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, -1.0), itex_size) * w1.x * w0.y;

11247    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, -1.0), itex_size) * w2.x * w0.y;

11248    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, -1.0), itex_size) * w3.x * w0.y;

11249  

11250    fac += CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, 0.0), itex_size) * w0.x * w1.y;

11251    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, 0.0), itex_size) * w1.x * w1.y;

11252    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, 0.0), itex_size) * w2.x * w1.y;

11253    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, 0.0), itex_size) * w3.x * w1.y;

11254  

11255    fac += CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, 1.0), itex_size) * w0.x * w2.y;

11256    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, 1.0), itex_size) * w1.x * w2.y;

11257    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, 1.0), itex_size) * w2.x * w2.y;

11258    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, 1.0), itex_size) * w3.x * w2.y;

11259  

11260    fac += CLIP_CUBIC_SAMPLE(tc + vec2(-1.0, 2.0), itex_size) * w0.x * w3.y;

11261    fac += CLIP_CUBIC_SAMPLE(tc + vec2(0.0, 2.0), itex_size) * w1.x * w3.y;

11262    fac += CLIP_CUBIC_SAMPLE(tc + vec2(1.0, 2.0), itex_size) * w2.x * w3.y;

11263    fac += CLIP_CUBIC_SAMPLE(tc + vec2(2.0, 2.0), itex_size) * w3.x * w3.y;

11264  #undef CLIP_CUBIC_SAMPLE

11265  

11266    color = mix(vec4(0.0), icolor, fac);

11267    alpha = color.a;

11268  }

11269  

11270  void tex_clip_smart(vec3 co, sampler2D ima, vec4 icolor, out vec4 color, out float alpha)

11271  {

11272    tex_clip_cubic(co, ima, icolor, color, alpha);

11273  }

11274  

11275  void node_tex_image_empty(vec3 co, out vec4 color, out float alpha)

11276  {

11277    color = vec4(0.0);

11278    alpha = 0.0;

11279  }

11280  

11281  void node_tex_magic(

11282      vec3 co, float scale, float distortion, float depth, out vec4 color, out float fac)

11283  {

11284    vec3 p = co * scale;

11285    float x = sin((p.x + p.y + p.z) * 5.0);

11286    float y = cos((-p.x + p.y - p.z) * 5.0);

11287    float z = -cos((-p.x - p.y + p.z) * 5.0);

11288  

11289    if (depth > 0) {

11290      x *= distortion;

11291      y *= distortion;

11292      z *= distortion;

11293      y = -cos(x - y + z);

11294      y *= distortion;

11295      if (depth > 1) {

11296        x = cos(x - y - z);

11297        x *= distortion;

11298        if (depth > 2) {

11299          z = sin(-x - y - z);

11300          z *= distortion;

11301          if (depth > 3) {

11302            x = -cos(-x + y - z);

11303            x *= distortion;

11304            if (depth > 4) {

11305              y = -sin(-x + y + z);

11306              y *= distortion;

11307              if (depth > 5) {

11308                y = -cos(-x + y + z);

11309                y *= distortion;

11310                if (depth > 6) {

11311                  x = cos(x + y + z);

11312                  x *= distortion;

11313                  if (depth > 7) {

11314                    z = sin(x + y - z);

11315                    z *= distortion;

11316                    if (depth > 8) {

11317                      x = -cos(-x - y + z);

11318                      x *= distortion;

11319                      if (depth > 9) {

11320                        y = -sin(x - y + z);

11321                        y *= distortion;

11322                      }

11323                    }

11324                  }

11325                }

11326              }

11327            }

11328          }

11329        }

11330      }

11331    }

11332    if (distortion != 0.0) {

11333      distortion *= 2.0;

11334      x /= distortion;

11335      y /= distortion;

11336      z /= distortion;

11337    }

11338  

11339    color = vec4(0.5 - x, 0.5 - y, 0.5 - z, 1.0);

11340    fac = (color.x + color.y + color.z) / 3.0;

11341  }

11342  

11343  float noise_fade(float t)

11344  {

11345    return t * t * t * (t * (t * 6.0 - 15.0) + 10.0);

11346  }

11347  

11348  float noise_scale3(float result)

11349  {

11350    return 0.9820 * result;

11351  }

11352  

11353  float noise_nerp(float t, float a, float b)

11354  {

11355    return (1.0 - t) * a + t * b;

11356  }

11357  

11358  float noise_grad(uint hash, float x, float y, float z)

11359  {

11360    uint h = hash & 15u;

11361    float u = h < 8u ? x : y;

11362    float vt = ((h == 12u) || (h == 14u)) ? x : z;

11363    float v = h < 4u ? y : vt;

11364    return (((h & 1u) != 0u) ? -u : u) + (((h & 2u) != 0u) ? -v : v);

11365  }

11366  

11367  float noise_perlin(float x, float y, float z)

11368  {

11369    int X;

11370    float fx = floorfrac(x, X);

11371    int Y;

11372    float fy = floorfrac(y, Y);

11373    int Z;

11374    float fz = floorfrac(z, Z);

11375  

11376    float u = noise_fade(fx);

11377    float v = noise_fade(fy);

11378    float w = noise_fade(fz);

11379  

11380    float noise_u[2], noise_v[2];

11381  

11382    noise_u[0] = noise_nerp(

11383        u, noise_grad(hash(X, Y, Z), fx, fy, fz), noise_grad(hash(X + 1, Y, Z), fx - 1.0, fy, fz));

11384  

11385    noise_u[1] = noise_nerp(u,

11386                            noise_grad(hash(X, Y + 1, Z), fx, fy - 1.0, fz),

11387                            noise_grad(hash(X + 1, Y + 1, Z), fx - 1.0, fy - 1.0, fz));

11388  

11389    noise_v[0] = noise_nerp(v, noise_u[0], noise_u[1]);

11390  

11391    noise_u[0] = noise_nerp(u,

11392                            noise_grad(hash(X, Y, Z + 1), fx, fy, fz - 1.0),

11393                            noise_grad(hash(X + 1, Y, Z + 1), fx - 1.0, fy, fz - 1.0));

11394  

11395    noise_u[1] = noise_nerp(u,

11396                            noise_grad(hash(X, Y + 1, Z + 1), fx, fy - 1.0, fz - 1.0),

11397                            noise_grad(hash(X + 1, Y + 1, Z + 1), fx - 1.0, fy - 1.0, fz - 1.0));

11398  

11399    noise_v[1] = noise_nerp(v, noise_u[0], noise_u[1]);

11400  

11401    return noise_scale3(noise_nerp(w, noise_v[0], noise_v[1]));

11402  }

11403  

11404  float noise(vec3 p)

11405  {

11406    return 0.5 * noise_perlin(p.x, p.y, p.z) + 0.5;

11407  }

11408  

11409  float snoise(vec3 p)

11410  {

11411    return noise_perlin(p.x, p.y, p.z);

11412  }

11413  

11414  float noise_turbulence(vec3 p, float octaves, int hard)

11415  {

11416    float fscale = 1.0;

11417    float amp = 1.0;

11418    float sum = 0.0;

11419    octaves = clamp(octaves, 0.0, 16.0);

11420    int n = int(octaves);

11421    for (int i = 0; i <= n; i++) {

11422      float t = noise(fscale * p);

11423      if (hard != 0) {

11424        t = abs(2.0 * t - 1.0);

11425      }

11426      sum += t * amp;

11427      amp *= 0.5;

11428      fscale *= 2.0;

11429    }

11430    float rmd = octaves - floor(octaves);

11431    if (rmd != 0.0) {

11432      float t = noise(fscale * p);

11433      if (hard != 0) {

11434        t = abs(2.0 * t - 1.0);

11435      }

11436      float sum2 = sum + t * amp;

11437      sum *= (float(1 << n) / float((1 << (n + 1)) - 1));

11438      sum2 *= (float(1 << (n + 1)) / float((1 << (n + 2)) - 1));

11439      return (1.0 - rmd) * sum + rmd * sum2;

11440    }

11441    else {

11442      sum *= (float(1 << n) / float((1 << (n + 1)) - 1));

11443      return sum;

11444    }

11445  }

11446  

11447  void node_tex_noise(

11448      vec3 co, float scale, float detail, float distortion, out vec4 color, out float fac)

11449  {

11450    vec3 p = co * scale;

11451    int hard = 0;

11452    if (distortion != 0.0) {

11453      vec3 r, offset = vec3(13.5, 13.5, 13.5);

11454      r.x = noise(p + offset) * distortion;

11455      r.y = noise(p) * distortion;

11456      r.z = noise(p - offset) * distortion;

11457      p += r;

11458    }

11459  

11460    fac = noise_turbulence(p, detail, hard);

11461    color = vec4(fac,

11462                 noise_turbulence(vec3(p.y, p.x, p.z), detail, hard),

11463                 noise_turbulence(vec3(p.y, p.z, p.x), detail, hard),

11464                 1);

11465  }

11466  

11467  /* Musgrave fBm

11468   *

11469   * H: fractal increment parameter

11470   * lacunarity: gap between successive frequencies

11471   * octaves: number of frequencies in the fBm

11472   *

11473   * from "Texturing and Modelling: A procedural approach"

11474   */

11475  

11476  float noise_musgrave_fBm(vec3 p, float H, float lacunarity, float octaves)

11477  {

11478    float rmd;

11479    float value = 0.0;

11480    float pwr = 1.0;

11481    float pwHL = pow(lacunarity, -H);

11482  

11483    for (int i = 0; i < int(octaves); i++) {

11484      value += snoise(p) * pwr;

11485      pwr *= pwHL;

11486      p *= lacunarity;

11487    }

11488  

11489    rmd = octaves - floor(octaves);

11490    if (rmd != 0.0)

11491      value += rmd * snoise(p) * pwr;

11492  

11493    return value;

11494  }

11495  

11496  /* Musgrave Multifractal

11497   *

11498   * H: highest fractal dimension

11499   * lacunarity: gap between successive frequencies

11500   * octaves: number of frequencies in the fBm

11501   */

11502  

11503  float noise_musgrave_multi_fractal(vec3 p, float H, float lacunarity, float octaves)

11504  {

11505    float rmd;

11506    float value = 1.0;

11507    float pwr = 1.0;

11508    float pwHL = pow(lacunarity, -H);

11509  

11510    for (int i = 0; i < int(octaves); i++) {

11511      value *= (pwr * snoise(p) + 1.0);

11512      pwr *= pwHL;

11513      p *= lacunarity;

11514    }

11515  

11516    rmd = octaves - floor(octaves);

11517    if (rmd != 0.0)

11518      value *= (rmd * pwr * snoise(p) + 1.0); /* correct? */

11519  

11520    return value;

11521  }

11522  

11523  /* Musgrave Heterogeneous Terrain

11524   *

11525   * H: fractal dimension of the roughest area

11526   * lacunarity: gap between successive frequencies

11527   * octaves: number of frequencies in the fBm

11528   * offset: raises the terrain from `sea level'

11529   */

11530  

11531  float noise_musgrave_hetero_terrain(vec3 p, float H, float lacunarity, float octaves, float offset)

11532  {

11533    float value, increment, rmd;

11534    float pwHL = pow(lacunarity, -H);

11535    float pwr = pwHL;

11536  

11537    /* first unscaled octave of function; later octaves are scaled */

11538    value = offset + snoise(p);

11539    p *= lacunarity;

11540  

11541    for (int i = 1; i < int(octaves); i++) {

11542      increment = (snoise(p) + offset) * pwr * value;

11543      value += increment;

11544      pwr *= pwHL;

11545      p *= lacunarity;

11546    }

11547  

11548    rmd = octaves - floor(octaves);

11549    if (rmd != 0.0) {

11550      increment = (snoise(p) + offset) * pwr * value;

11551      value += rmd * increment;

11552    }

11553  

11554    return value;

11555  }

11556  

11557  /* Hybrid Additive/Multiplicative Multifractal Terrain

11558   *

11559   * H: fractal dimension of the roughest area

11560   * lacunarity: gap between successive frequencies

11561   * octaves: number of frequencies in the fBm

11562   * offset: raises the terrain from `sea level'

11563   */

11564  

11565  float noise_musgrave_hybrid_multi_fractal(

11566      vec3 p, float H, float lacunarity, float octaves, float offset, float gain)

11567  {

11568    float result, signal, weight, rmd;

11569    float pwHL = pow(lacunarity, -H);

11570    float pwr = pwHL;

11571  

11572    result = snoise(p) + offset;

11573    weight = gain * result;

11574    p *= lacunarity;

11575  

11576    for (int i = 1; (weight > 0.001f) && (i < int(octaves)); i++) {

11577      if (weight > 1.0)

11578        weight = 1.0;

11579  

11580      signal = (snoise(p) + offset) * pwr;

11581      pwr *= pwHL;

11582      result += weight * signal;

11583      weight *= gain * signal;

11584      p *= lacunarity;

11585    }

11586  

11587    rmd = octaves - floor(octaves);

11588    if (rmd != 0.0)

11589      result += rmd * ((snoise(p) + offset) * pwr);

11590  

11591    return result;

11592  }

11593  

11594  /* Ridged Multifractal Terrain

11595   *

11596   * H: fractal dimension of the roughest area

11597   * lacunarity: gap between successive frequencies

11598   * octaves: number of frequencies in the fBm

11599   * offset: raises the terrain from `sea level'

11600   */

11601  

11602  float noise_musgrave_ridged_multi_fractal(

11603      vec3 p, float H, float lacunarity, float octaves, float offset, float gain)

11604  {

11605    float result, signal, weight;

11606    float pwHL = pow(lacunarity, -H);

11607    float pwr = pwHL;

11608  

11609    signal = offset - abs(snoise(p));

11610    signal *= signal;

11611    result = signal;

11612    weight = 1.0;

11613  

11614    for (int i = 1; i < int(octaves); i++) {

11615      p *= lacunarity;

11616      weight = clamp(signal * gain, 0.0, 1.0);

11617      signal = offset - abs(snoise(p));

11618      signal *= signal;

11619      signal *= weight;

11620      result += signal * pwr;

11621      pwr *= pwHL;

11622    }

11623  

11624    return result;

11625  }

11626  

11627  float svm_musgrave(int type,

11628                     float dimension,

11629                     float lacunarity,

11630                     float octaves,

11631                     float offset,

11632                     float intensity,

11633                     float gain,

11634                     vec3 p)

11635  {

11636    if (type == 0 /* NODE_MUSGRAVE_MULTIFRACTAL */)

11637      return intensity * noise_musgrave_multi_fractal(p, dimension, lacunarity, octaves);

11638    else if (type == 1 /* NODE_MUSGRAVE_FBM */)

11639      return intensity * noise_musgrave_fBm(p, dimension, lacunarity, octaves);

11640    else if (type == 2 /* NODE_MUSGRAVE_HYBRID_MULTIFRACTAL */)

11641      return intensity *

11642             noise_musgrave_hybrid_multi_fractal(p, dimension, lacunarity, octaves, offset, gain);

11643    else if (type == 3 /* NODE_MUSGRAVE_RIDGED_MULTIFRACTAL */)

11644      return intensity *

11645             noise_musgrave_ridged_multi_fractal(p, dimension, lacunarity, octaves, offset, gain);

11646    else if (type == 4 /* NODE_MUSGRAVE_HETERO_TERRAIN */)

11647      return intensity * noise_musgrave_hetero_terrain(p, dimension, lacunarity, octaves, offset);

11648    return 0.0;

11649  }

11650  

11651  void node_tex_musgrave(vec3 co,

11652                         float scale,

11653                         float detail,

11654                         float dimension,

11655                         float lacunarity,

11656                         float offset,

11657                         float gain,

11658                         float type,

11659                         out vec4 color,

11660                         out float fac)

11661  {

11662    fac = svm_musgrave(int(type), dimension, lacunarity, detail, offset, 1.0, gain, co *scale);

11663  

11664    color = vec4(fac, fac, fac, 1.0);

11665  }

11666  

11667  void node_tex_sky(vec3 co, out vec4 color)

11668  {

11669    color = vec4(1.0);

11670  }

11671  

11672  void node_tex_voronoi(vec3 co,

11673                        float scale,

11674                        float exponent,

11675                        float coloring,

11676                        float metric,

11677                        float feature,

11678                        out vec4 color,

11679                        out float fac)

11680  {

11681    vec3 p = co * scale;

11682    int xx, yy, zz, xi, yi, zi;

11683    vec4 da = vec4(1e10);

11684    vec3 pa[4] = vec3[4](vec3(0.0), vec3(0.0), vec3(0.0), vec3(0.0));

11685  

11686    xi = floor_to_int(p[0]);

11687    yi = floor_to_int(p[1]);

11688    zi = floor_to_int(p[2]);

11689  

11690    for (xx = xi - 1; xx <= xi + 1; xx++) {

11691      for (yy = yi - 1; yy <= yi + 1; yy++) {

11692        for (zz = zi - 1; zz <= zi + 1; zz++) {

11693          vec3 ip = vec3(xx, yy, zz);

11694          vec3 vp = cellnoise_color(ip);

11695          vec3 pd = p - (vp + ip);

11696  

11697          float d = 0.0;

11698          if (metric == 0.0) { /* SHD_VORONOI_DISTANCE 0 */

11699            d = dot(pd, pd);

11700          }

11701          else if (metric == 1.0) { /* SHD_VORONOI_MANHATTAN 1 */

11702            d = abs(pd[0]) + abs(pd[1]) + abs(pd[2]);

11703          }

11704          else if (metric == 2.0) { /* SHD_VORONOI_CHEBYCHEV 2 */

11705            d = max(abs(pd[0]), max(abs(pd[1]), abs(pd[2])));

11706          }

11707          else if (metric == 3.0) { /* SHD_VORONOI_MINKOWSKI 3 */

11708            d = pow(pow(abs(pd[0]), exponent) + pow(abs(pd[1]), exponent) +

11709                        pow(abs(pd[2]), exponent),

11710                    1.0 / exponent);

11711          }

11712  

11713          vp += vec3(xx, yy, zz);

11714          if (d < da[0]) {

11715            da.yzw = da.xyz;

11716            da[0] = d;

11717  

11718            pa[3] = pa[2];

11719            pa[2] = pa[1];

11720            pa[1] = pa[0];

11721            pa[0] = vp;

11722          }

11723          else if (d < da[1]) {

11724            da.zw = da.yz;

11725            da[1] = d;

11726  

11727            pa[3] = pa[2];

11728            pa[2] = pa[1];

11729            pa[1] = vp;

11730          }

11731          else if (d < da[2]) {

11732            da[3] = da[2];

11733            da[2] = d;

11734  

11735            pa[3] = pa[2];

11736            pa[2] = vp;

11737          }

11738          else if (d < da[3]) {

11739            da[3] = d;

11740            pa[3] = vp;

11741          }

11742        }

11743      }

11744    }

11745  

11746    if (coloring == 0.0) {

11747      /* Intensity output */

11748      if (feature == 0.0) { /* F1 */

11749        fac = abs(da[0]);

11750      }

11751      else if (feature == 1.0) { /* F2 */

11752        fac = abs(da[1]);

11753      }

11754      else if (feature == 2.0) { /* F3 */

11755        fac = abs(da[2]);

11756      }

11757      else if (feature == 3.0) { /* F4 */

11758        fac = abs(da[3]);

11759      }

11760      else if (feature == 4.0) { /* F2F1 */

11761        fac = abs(da[1] - da[0]);

11762      }

11763      color = vec4(fac, fac, fac, 1.0);

11764    }

11765    else {

11766      /* Color output */

11767      vec3 col = vec3(fac, fac, fac);

11768      if (feature == 0.0) { /* F1 */

11769        col = pa[0];

11770      }

11771      else if (feature == 1.0) { /* F2 */

11772        col = pa[1];

11773      }

11774      else if (feature == 2.0) { /* F3 */

11775        col = pa[2];

11776      }

11777      else if (feature == 3.0) { /* F4 */

11778        col = pa[3];

11779      }

11780      else if (feature == 4.0) { /* F2F1 */

11781        col = abs(pa[1] - pa[0]);

11782      }

11783  

11784      color = vec4(cellnoise_color(col), 1.0);

11785      fac = (color.x + color.y + color.z) * (1.0 / 3.0);

11786    }

11787  }

11788  

11789  float calc_wave(

11790      vec3 p, float distortion, float detail, float detail_scale, int wave_type, int wave_profile)

11791  {

11792    float n;

11793  

11794    if (wave_type == 0) /* type bands */

11795      n = (p.x + p.y + p.z) * 10.0;

11796    else /* type rings */

11797      n = length(p) * 20.0;

11798  

11799    if (distortion != 0.0)

11800      n += distortion * noise_turbulence(p * detail_scale, detail, 0);

11801  

11802    if (wave_profile == 0) { /* profile sin */

11803      return 0.5 + 0.5 * sin(n);

11804    }

11805    else { /* profile saw */

11806      n /= 2.0 * M_PI;

11807      n -= int(n);

11808      return (n < 0.0) ? n + 1.0 : n;

11809    }

11810  }

11811  

11812  void node_tex_wave(vec3 co,

11813                     float scale,

11814                     float distortion,

11815                     float detail,

11816                     float detail_scale,

11817                     float wave_type,

11818                     float wave_profile,

11819                     out vec4 color,

11820                     out float fac)

11821  {

11822    float f;

11823    f = calc_wave(co * scale, distortion, detail, detail_scale, int(wave_type), int(wave_profile));

11824  

11825    color = vec4(f, f, f, 1.0);

11826    fac = f;

11827  }

11828  

11829  /* light path */

11830  

11831  void node_light_path(out float is_camera_ray,

11832                       out float is_shadow_ray,

11833                       out float is_diffuse_ray,

11834                       out float is_glossy_ray,

11835                       out float is_singular_ray,

11836                       out float is_reflection_ray,

11837                       out float is_transmission_ray,

11838                       out float ray_length,

11839                       out float ray_depth,

11840                       out float diffuse_depth,

11841                       out float glossy_depth,

11842                       out float transparent_depth,

11843                       out float transmission_depth)

11844  {

11845    /* Supported. */

11846    is_camera_ray = (rayType == EEVEE_RAY_CAMERA) ? 1.0 : 0.0;

11847    is_shadow_ray = (rayType == EEVEE_RAY_SHADOW) ? 1.0 : 0.0;

11848    is_diffuse_ray = (rayType == EEVEE_RAY_DIFFUSE) ? 1.0 : 0.0;

11849    is_glossy_ray = (rayType == EEVEE_RAY_GLOSSY) ? 1.0 : 0.0;

11850    /* Kind of supported. */

11851    is_singular_ray = is_glossy_ray;

11852    is_reflection_ray = is_glossy_ray;

11853    is_transmission_ray = is_glossy_ray;

11854    ray_depth = rayDepth;

11855    diffuse_depth = (is_diffuse_ray == 1.0) ? rayDepth : 0.0;

11856    glossy_depth = (is_glossy_ray == 1.0) ? rayDepth : 0.0;

11857    transmission_depth = (is_transmission_ray == 1.0) ? glossy_depth : 0.0;

11858    /* Not supported. */

11859    ray_length = 1.0;

11860    transparent_depth = 0.0;

11861  }

11862  

11863  void node_light_falloff(

11864      float strength, float tsmooth, out float quadratic, out float linear, out float constant)

11865  {

11866    quadratic = strength;

11867    linear = strength;

11868    constant = strength;

11869  }

11870  

11871  void node_object_info(mat4 obmat,

11872                        vec4 info,

11873                        out vec3 location,

11874                        out float object_index,

11875                        out float material_index,

11876                        out float random)

11877  {

11878    location = obmat[3].xyz;

11879    object_index = info.x;

11880    material_index = info.y;

11881    random = info.z;

11882  }

11883  

11884  void node_normal_map(vec4 info, vec4 tangent, vec3 normal, vec3 texnormal, out vec3 outnormal)

11885  {

11886    if (all(equal(tangent, vec4(0.0, 0.0, 0.0, 1.0)))) {

11887      outnormal = normal;

11888      return;

11889    }

11890    tangent *= (gl_FrontFacing ? 1.0 : -1.0);

11891    vec3 B = tangent.w * cross(normal, tangent.xyz) * info.w;

11892  

11893    outnormal = texnormal.x * tangent.xyz + texnormal.y * B + texnormal.z * normal;

11894    outnormal = normalize(outnormal);

11895  }

11896  

11897  void node_bump(

11898      float strength, float dist, float height, vec3 N, vec3 surf_pos, float invert, out vec3 result)

11899  {

11900    N = mat3(ViewMatrix) * normalize(N);

11901    dist *= invert;

11902  

11903    vec3 dPdx = dFdx(surf_pos);

11904    vec3 dPdy = dFdy(surf_pos);

11905  

11906    /* Get surface tangents from normal. */

11907    vec3 Rx = cross(dPdy, N);

11908    vec3 Ry = cross(N, dPdx);

11909  

11910    /* Compute surface gradient and determinant. */

11911    float det = dot(dPdx, Rx);

11912  

11913    float dHdx = dFdx(height);

11914    float dHdy = dFdy(height);

11915    vec3 surfgrad = dHdx * Rx + dHdy * Ry;

11916  

11917    strength = max(strength, 0.0);

11918  

11919    result = normalize(abs(det) * N - dist * sign(det) * surfgrad);

11920    result = normalize(mix(N, result, strength));

11921  

11922    result = mat3(ViewMatrixInverse) * result;

11923  }

11924  

11925  void node_bevel(float radius, vec3 N, out vec3 result)

11926  {

11927    result = N;

11928  }

11929  

11930  void node_hair_info(out float is_strand,

11931                      out float intercept,

11932                      out float thickness,

11933                      out vec3 tangent,

11934                      out float random)

11935  {

11936  #ifdef HAIR_SHADER

11937    is_strand = 1.0;

11938    intercept = hairTime;

11939    thickness = hairThickness;

11940    tangent = normalize(hairTangent);

11941    random = wang_hash_noise(

11942        uint(hairStrandID)); /* TODO: could be precomputed per strand instead. */

11943  #else

11944    is_strand = 0.0;

11945    intercept = 0.0;

11946    thickness = 0.0;

11947    tangent = vec3(1.0);

11948    random = 0.0;

11949  #endif

11950  }

11951  

11952  void node_displacement_object(

11953      float height, float midlevel, float scale, vec3 N, mat4 obmat, out vec3 result)

11954  {

11955    N = (vec4(N, 0.0) * obmat).xyz;

11956    result = (height - midlevel) * scale * normalize(N);

11957    result = (obmat * vec4(result, 0.0)).xyz;

11958  }

11959  

11960  void node_displacement_world(float height, float midlevel, float scale, vec3 N, out vec3 result)

11961  {

11962    result = (height - midlevel) * scale * normalize(N);

11963  }

11964  

11965  void node_vector_displacement_tangent(vec4 vector,

11966                                        float midlevel,

11967                                        float scale,

11968                                        vec4 tangent,

11969                                        vec3 normal,

11970                                        mat4 obmat,

11971                                        mat4 viewmat,

11972                                        out vec3 result)

11973  {

11974    vec3 N_object = normalize(((vec4(normal, 0.0) * viewmat) * obmat).xyz);

11975    vec3 T_object = normalize(((vec4(tangent.xyz, 0.0) * viewmat) * obmat).xyz);

11976    vec3 B_object = tangent.w * normalize(cross(N_object, T_object));

11977  

11978    vec3 offset = (vector.xyz - vec3(midlevel)) * scale;

11979    result = offset.x * T_object + offset.y * N_object + offset.z * B_object;

11980    result = (obmat * vec4(result, 0.0)).xyz;

11981  }

11982  

11983  void node_vector_displacement_object(

11984      vec4 vector, float midlevel, float scale, mat4 obmat, out vec3 result)

11985  {

11986    result = (vector.xyz - vec3(midlevel)) * scale;

11987    result = (obmat * vec4(result, 0.0)).xyz;

11988  }

11989  

11990  void node_vector_displacement_world(vec4 vector, float midlevel, float scale, out vec3 result)

11991  {

11992    result = (vector.xyz - vec3(midlevel)) * scale;

11993  }

11994  

11995  /* output */

11996  

11997  void node_output_material(Closure surface, Closure volume, vec3 displacement, out Closure result)

11998  {

11999  #ifdef VOLUMETRICS

12000    result = volume;

12001  #else

12002    result = surface;

12003  #endif

12004  }

12005  

12006  uniform float backgroundAlpha;

12007  

12008  void node_output_world(Closure surface, Closure volume, out Closure result)

12009  {

12010  #ifndef VOLUMETRICS

12011    result.radiance = surface.radiance * backgroundAlpha;

12012    result.opacity = backgroundAlpha;

12013  #else

12014    result = volume;

12015  #endif /* VOLUMETRICS */

12016  }

12017  

12018  #ifndef VOLUMETRICS

12019  /* TODO : clean this ifdef mess */

12020  /* EEVEE output */

12021  void world_normals_get(out vec3 N)

12022  {

12023  #  ifdef HAIR_SHADER

12024    vec3 B = normalize(cross(worldNormal, hairTangent));

12025    float cos_theta;

12026    if (hairThicknessRes == 1) {

12027      vec4 rand = texelFetch(utilTex, ivec3(ivec2(gl_FragCoord.xy) % LUT_SIZE, 2.0), 0);

12028      /* Random cosine normal distribution on the hair surface. */

12029      cos_theta = rand.x * 2.0 - 1.0;

12030    }

12031    else {

12032      /* Shade as a cylinder. */

12033      cos_theta = hairThickTime / hairThickness;

12034    }

12035    float sin_theta = sqrt(max(0.0, 1.0f - cos_theta * cos_theta));

12036    N = normalize(worldNormal * sin_theta + B * cos_theta);

12037  #  else

12038    N = gl_FrontFacing ? worldNormal : -worldNormal;

12039  #  endif

12040  }

12041  

12042  void node_eevee_specular(vec4 diffuse,

12043                           vec4 specular,

12044                           float roughness,

12045                           vec4 emissive,

12046                           float transp,

12047                           vec3 normal,

12048                           float clearcoat,

12049                           float clearcoat_roughness,

12050                           vec3 clearcoat_normal,

12051                           float occlusion,

12052                           float ssr_id,

12053                           out Closure result)

12054  {

12055    vec3 out_diff, out_spec, ssr_spec;

12056    eevee_closure_default(normal,

12057                          diffuse.rgb,

12058                          specular.rgb,

12059                          int(ssr_id),

12060                          roughness,

12061                          occlusion,

12062                          out_diff,

12063                          out_spec,

12064                          ssr_spec);

12065  

12066    vec3 vN = normalize(mat3(ViewMatrix) * normal);

12067    result = CLOSURE_DEFAULT;

12068    result.radiance = out_diff * diffuse.rgb + out_spec + emissive.rgb;

12069    result.opacity = 1.0 - transp;

12070    result.ssr_data = vec4(ssr_spec, roughness);

12071    result.ssr_normal = normal_encode(vN, viewCameraVec);

12072    result.ssr_id = int(ssr_id);

12073  }

12074  

12075  void node_shader_to_rgba(Closure cl, out vec4 outcol, out float outalpha)

12076  {

12077    vec4 spec_accum = vec4(0.0);

12078    if (ssrToggle && cl.ssr_id == outputSsrId) {

12079      vec3 V = cameraVec;

12080      vec3 vN = normal_decode(cl.ssr_normal, viewCameraVec);

12081      vec3 N = transform_direction(ViewMatrixInverse, vN);

12082      float roughness = cl.ssr_data.a;

12083      float roughnessSquared = max(1e-3, roughness * roughness);

12084      fallback_cubemap(N, V, worldPosition, viewPosition, roughness, roughnessSquared, spec_accum);

12085    }

12086  

12087    outalpha = cl.opacity;

12088    outcol = vec4((spec_accum.rgb * cl.ssr_data.rgb) + cl.radiance, 1.0);

12089  

12090  #  ifdef USE_SSS

12091  #    ifdef USE_SSS_ALBEDO

12092    outcol.rgb += cl.sss_data.rgb * cl.sss_albedo;

12093  #    else

12094    outcol.rgb += cl.sss_data.rgb;

12095  #    endif

12096  #  endif

12097  }

12098  

12099  #endif /* VOLUMETRICS */

12100  Closure strct5 = CLOSURE_DEFAULT;
12101  
12102  layout (std140) uniform nodeTree {
12103  	vec4 unf1;
12104  	float unf2;
12105  };
12106  
12107  Closure nodetree_exec(void)
12108  {
12109  	Closure tmp3;
12110  	Closure tmp6;
12111  
12112  	node_background(unf1, unf2, tmp3);
12113  	node_output_world(tmp3, strct5, tmp6);
12114  
12115  	return tmp6;
12116  }
12117  #ifndef NODETREE_EXEC
12118  out vec4 fragColor;
12119  void main()
12120  {
12121  	Closure cl = nodetree_exec();
12122  	fragColor = vec4(cl.radiance, cl.opacity);
12123  }
12124  #endif
12125  
0(973) : error C0105: Syntax error in #if
0(973) : error C0105: Syntax error in #if
0(974) : error C0000: syntax error, unexpected '!' at token "!"

GPUShader: compile error:
===== shader string 1 ====
 1  #version 330
===== shader string 2 ====
 2  #define GPU_FRAGMENT_SHADER
===== shader string 3 ====
 3  #extension GL_ARB_texture_gather: enable
 4  #define GPU_ARB_texture_gather
 5  #extension GL_ARB_texture_query_lod: enable
===== shader string 4 ====
 6  #define GPU_NVIDIA
 7  #define OS_WIN
===== shader string 5 ====
 8  

 9  layout(std140) uniform common_block

10  {

11    mat4 pastViewProjectionMatrix;

12    vec4 viewVecs[2];

13    vec2 mipRatio[10]; /* To correct mip level texel mis-alignement */

14    /* Ambient Occlusion */

15    vec4 aoParameters[2];

16    /* Volumetric */

17    ivec4 volTexSize;

18    vec4 volDepthParameters; /* Parameters to the volume Z equation */

19    vec4 volInvTexSize;

20    vec4 volJitter;

21    vec4 volCoordScale; /* To convert volume uvs to screen uvs */

22    float volHistoryAlpha;

23    float volLightClamp;

24    float volShadowSteps;

25    bool volUseLights;

26    /* Screen Space Reflections */

27    vec4 ssrParameters;

28    float ssrBorderFac;

29    float ssrMaxRoughness;

30    float ssrFireflyFac;

31    float ssrBrdfBias;

32    bool ssrToggle;

33    /* SubSurface Scattering */

34    float sssJitterThreshold;

35    bool sssToggle;

36    /* Specular */

37    bool specToggle;

38    /* Lights */

39    int laNumLight;

40    /* Probes */

41    int prbNumPlanar;

42    int prbNumRenderCube;

43    int prbNumRenderGrid;

44    int prbIrradianceVisSize;

45    float prbIrradianceSmooth;

46    float prbLodCubeMax;

47    float prbLodPlanarMax;

48    /* Misc*/

49    int hizMipOffset;

50    int rayType;

51    float rayDepth;

52  };

53  

54  /* rayType (keep in sync with ray_type) */

55  #define EEVEE_RAY_CAMERA 0

56  #define EEVEE_RAY_SHADOW 1

57  #define EEVEE_RAY_DIFFUSE 2

58  #define EEVEE_RAY_GLOSSY 3

59  

60  /* aoParameters */

61  #define aoDistance aoParameters[0].x

62  #define aoSamples aoParameters[0].y /* UNUSED */

63  #define aoFactor aoParameters[0].z

64  #define aoInvSamples aoParameters[0].w /* UNUSED */

65  

66  #define aoOffset aoParameters[1].x /* UNUSED */

67  #define aoBounceFac aoParameters[1].y

68  #define aoQuality aoParameters[1].z

69  #define aoSettings aoParameters[1].w

70  

71  /* ssrParameters */

72  #define ssrQuality ssrParameters.x

73  #define ssrThickness ssrParameters.y

74  #define ssrPixelSize ssrParameters.zw

75  /* keep in sync with DRWManager.view_data */

76  layout(std140) uniform viewBlock

77  {

78    /* Same order as DRWViewportMatrixType */

79    mat4 ViewProjectionMatrix;

80    mat4 ViewProjectionMatrixInverse;

81    mat4 ViewMatrix;

82    mat4 ViewMatrixInverse;

83    mat4 ProjectionMatrix;

84    mat4 ProjectionMatrixInverse;

85  

86    vec4 CameraTexCoFactors;

87  

88    vec4 clipPlanes[2];

89  };

90  

91  #define M_PI 3.14159265358979323846     /* pi */

92  #define M_2PI 6.28318530717958647692    /* 2*pi */

93  #define M_PI_2 1.57079632679489661923   /* pi/2 */

94  #define M_1_PI 0.318309886183790671538  /* 1/pi */

95  #define M_1_2PI 0.159154943091895335768 /* 1/(2*pi) */

96  #define M_1_PI2 0.101321183642337771443 /* 1/(pi^2) */

97  

98  #define LUT_SIZE 64

99  

100  /* Buffers */

101  uniform sampler2D colorBuffer;

102  uniform sampler2D depthBuffer;

103  uniform sampler2D maxzBuffer;

104  uniform sampler2D minzBuffer;

105  uniform sampler2DArray planarDepth;

106  

107  #define cameraForward normalize(ViewMatrixInverse[2].xyz)

108  #define cameraPos ViewMatrixInverse[3].xyz

109  #define cameraVec \

110    ((ProjectionMatrix[3][3] == 0.0) ? normalize(cameraPos - worldPosition) : cameraForward)

111  #define viewCameraVec \

112    ((ProjectionMatrix[3][3] == 0.0) ? normalize(-viewPosition) : vec3(0.0, 0.0, 1.0))

113  

114  /* ------- Structures -------- */

115  

116  /* ------ Lights ----- */

117  struct LightData {

118    vec4 position_influence;     /* w : InfluenceRadius (inversed and squared) */

119    vec4 color_spec;             /* w : Spec Intensity */

120    vec4 spotdata_radius_shadow; /* x : spot size, y : spot blend, z : radius, w: shadow id */

121    vec4 rightvec_sizex;         /* xyz: Normalized up vector, w: area size X or spot scale X */

122    vec4 upvec_sizey;            /* xyz: Normalized right vector, w: area size Y or spot scale Y */

123    vec4 forwardvec_type;        /* xyz: Normalized forward vector, w: Light Type */

124  };

125  

126  /* convenience aliases */

127  #define l_color color_spec.rgb

128  #define l_spec color_spec.a

129  #define l_position position_influence.xyz

130  #define l_influence position_influence.w

131  #define l_sizex rightvec_sizex.w

132  #define l_sizey upvec_sizey.w

133  #define l_right rightvec_sizex.xyz

134  #define l_up upvec_sizey.xyz

135  #define l_forward forwardvec_type.xyz

136  #define l_type forwardvec_type.w

137  #define l_spot_size spotdata_radius_shadow.x

138  #define l_spot_blend spotdata_radius_shadow.y

139  #define l_radius spotdata_radius_shadow.z

140  #define l_shadowid spotdata_radius_shadow.w

141  

142  /* ------ Shadows ----- */

143  #ifndef MAX_CASCADE_NUM

144  #  define MAX_CASCADE_NUM 4

145  #endif

146  

147  struct ShadowData {

148    vec4 near_far_bias_exp;

149    vec4 shadow_data_start_end;

150    vec4 contact_shadow_data;

151  };

152  

153  struct ShadowCubeData {

154    vec4 position;

155  };

156  

157  struct ShadowCascadeData {

158    mat4 shadowmat[MAX_CASCADE_NUM];

159    vec4 split_start_distances;

160    vec4 split_end_distances;

161  };

162  

163  /* convenience aliases */

164  #define sh_near near_far_bias_exp.x

165  #define sh_far near_far_bias_exp.y

166  #define sh_bias near_far_bias_exp.z

167  #define sh_exp near_far_bias_exp.w

168  #define sh_bleed near_far_bias_exp.w

169  #define sh_tex_start shadow_data_start_end.x

170  #define sh_data_start shadow_data_start_end.y

171  #define sh_multi_nbr shadow_data_start_end.z

172  #define sh_blur shadow_data_start_end.w

173  #define sh_contact_dist contact_shadow_data.x

174  #define sh_contact_offset contact_shadow_data.y

175  #define sh_contact_spread contact_shadow_data.z

176  #define sh_contact_thickness contact_shadow_data.w

177  

178  /* ------- Convenience functions --------- */

179  

180  vec3 mul(mat3 m, vec3 v)

181  {

182    return m * v;

183  }

184  mat3 mul(mat3 m1, mat3 m2)

185  {

186    return m1 * m2;

187  }

188  vec3 transform_direction(mat4 m, vec3 v)

189  {

190    return mat3(m) * v;

191  }

192  vec3 transform_point(mat4 m, vec3 v)

193  {

194    return (m * vec4(v, 1.0)).xyz;

195  }

196  vec3 project_point(mat4 m, vec3 v)

197  {

198    vec4 tmp = m * vec4(v, 1.0);

199    return tmp.xyz / tmp.w;

200  }

201  

202  #define min3(a, b, c) min(a, min(b, c))

203  #define min4(a, b, c, d) min(a, min3(b, c, d))

204  #define min5(a, b, c, d, e) min(a, min4(b, c, d, e))

205  #define min6(a, b, c, d, e, f) min(a, min5(b, c, d, e, f))

206  #define min7(a, b, c, d, e, f, g) min(a, min6(b, c, d, e, f, g))

207  #define min8(a, b, c, d, e, f, g, h) min(a, min7(b, c, d, e, f, g, h))

208  #define min9(a, b, c, d, e, f, g, h, i) min(a, min8(b, c, d, e, f, g, h, i))

209  

210  #define max3(a, b, c) max(a, max(b, c))

211  #define max4(a, b, c, d) max(a, max3(b, c, d))

212  #define max5(a, b, c, d, e) max(a, max4(b, c, d, e))

213  #define max6(a, b, c, d, e, f) max(a, max5(b, c, d, e, f))

214  #define max7(a, b, c, d, e, f, g) max(a, max6(b, c, d, e, f, g))

215  #define max8(a, b, c, d, e, f, g, h) max(a, max7(b, c, d, e, f, g, h))

216  #define max9(a, b, c, d, e, f, g, h, i) max(a, max8(b, c, d, e, f, g, h, i))

217  

218  #define avg3(a, b, c) (a + b + c) * (1.0 / 3.0)

219  #define avg4(a, b, c, d) (a + b + c + d) * (1.0 / 4.0)

220  #define avg5(a, b, c, d, e) (a + b + c + d + e) * (1.0 / 5.0)

221  #define avg6(a, b, c, d, e, f) (a + b + c + d + e + f) * (1.0 / 6.0)

222  #define avg7(a, b, c, d, e, f, g) (a + b + c + d + e + f + g) * (1.0 / 7.0)

223  #define avg8(a, b, c, d, e, f, g, h) (a + b + c + d + e + f + g + h) * (1.0 / 8.0)

224  #define avg9(a, b, c, d, e, f, g, h, i) (a + b + c + d + e + f + g + h + i) * (1.0 / 9.0)

225  

226  float min_v2(vec2 v)

227  {

228    return min(v.x, v.y);

229  }

230  float min_v3(vec3 v)

231  {

232    return min(v.x, min(v.y, v.z));

233  }

234  float max_v2(vec2 v)

235  {

236    return max(v.x, v.y);

237  }

238  float max_v3(vec3 v)

239  {

240    return max(v.x, max(v.y, v.z));

241  }

242  

243  float sum(vec2 v)

244  {

245    return dot(vec2(1.0), v);

246  }

247  float sum(vec3 v)

248  {

249    return dot(vec3(1.0), v);

250  }

251  float sum(vec4 v)

252  {

253    return dot(vec4(1.0), v);

254  }

255  

256  float saturate(float a)

257  {

258    return clamp(a, 0.0, 1.0);

259  }

260  vec2 saturate(vec2 a)

261  {

262    return clamp(a, 0.0, 1.0);

263  }

264  vec3 saturate(vec3 a)

265  {

266    return clamp(a, 0.0, 1.0);

267  }

268  vec4 saturate(vec4 a)

269  {

270    return clamp(a, 0.0, 1.0);

271  }

272  

273  float distance_squared(vec2 a, vec2 b)

274  {

275    a -= b;

276    return dot(a, a);

277  }

278  float distance_squared(vec3 a, vec3 b)

279  {

280    a -= b;

281    return dot(a, a);

282  }

283  float len_squared(vec3 a)

284  {

285    return dot(a, a);

286  }

287  

288  float inverse_distance(vec3 V)

289  {

290    return max(1 / length(V), 1e-8);

291  }

292  

293  vec2 mip_ratio_interp(float mip)

294  {

295    float low_mip = floor(mip);

296    return mix(mipRatio[int(low_mip)], mipRatio[int(low_mip + 1.0)], mip - low_mip);

297  }

298  

299  /* ------- RNG ------- */

300  

301  float wang_hash_noise(uint s)

302  {

303    s = (s ^ 61u) ^ (s >> 16u);

304    s *= 9u;

305    s = s ^ (s >> 4u);

306    s *= 0x27d4eb2du;

307    s = s ^ (s >> 15u);

308  

309    return fract(float(s) / 4294967296.0);

310  }

311  

312  /* ------- Fast Math ------- */

313  

314  /* [Drobot2014a] Low Level Optimizations for GCN */

315  float fast_sqrt(float v)

316  {

317    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

318  }

319  

320  vec2 fast_sqrt(vec2 v)

321  {

322    return intBitsToFloat(0x1fbd1df5 + (floatBitsToInt(v) >> 1));

323  }

324  

325  /* [Eberly2014] GPGPU Programming for Games and Science */

326  float fast_acos(float v)

327  {

328    float res = -0.156583 * abs(v) + M_PI_2;

329    res *= fast_sqrt(1.0 - abs(v));

330    return (v >= 0) ? res : M_PI - res;

331  }

332  

333  vec2 fast_acos(vec2 v)

334  {

335    vec2 res = -0.156583 * abs(v) + M_PI_2;

336    res *= fast_sqrt(1.0 - abs(v));

337    v.x = (v.x >= 0) ? res.x : M_PI - res.x;

338    v.y = (v.y >= 0) ? res.y : M_PI - res.y;

339    return v;

340  }

341  

342  float point_plane_projection_dist(vec3 lineorigin, vec3 planeorigin, vec3 planenormal)

343  {

344    return dot(planenormal, planeorigin - lineorigin);

345  }

346  

347  float line_plane_intersect_dist(vec3 lineorigin,

348                                  vec3 linedirection,

349                                  vec3 planeorigin,

350                                  vec3 planenormal)

351  {

352    return dot(planenormal, planeorigin - lineorigin) / dot(planenormal, linedirection);

353  }

354  

355  float line_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec4 plane)

356  {

357    vec3 plane_co = plane.xyz * (-plane.w / len_squared(plane.xyz));

358    vec3 h = lineorigin - plane_co;

359    return -dot(plane.xyz, h) / dot(plane.xyz, linedirection);

360  }

361  

362  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin, vec3 planenormal)

363  {

364    float dist = line_plane_intersect_dist(lineorigin, linedirection, planeorigin, planenormal);

365    return lineorigin + linedirection * dist;

366  }

367  

368  vec3 line_plane_intersect(vec3 lineorigin, vec3 linedirection, vec4 plane)

369  {

370    float dist = line_plane_intersect_dist(lineorigin, linedirection, plane);

371    return lineorigin + linedirection * dist;

372  }

373  

374  float line_aligned_plane_intersect_dist(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

375  {

376    /* aligned plane normal */

377    vec3 L = planeorigin - lineorigin;

378    float diskdist = length(L);

379    vec3 planenormal = -normalize(L);

380    return -diskdist / dot(planenormal, linedirection);

381  }

382  

383  vec3 line_aligned_plane_intersect(vec3 lineorigin, vec3 linedirection, vec3 planeorigin)

384  {

385    float dist = line_aligned_plane_intersect_dist(lineorigin, linedirection, planeorigin);

386    if (dist < 0) {

387      /* if intersection is behind we fake the intersection to be

388       * really far and (hopefully) not inside the radius of interest */

389      dist = 1e16;

390    }

391    return lineorigin + linedirection * dist;

392  }

393  

394  float line_unit_sphere_intersect_dist(vec3 lineorigin, vec3 linedirection)

395  {

396    float a = dot(linedirection, linedirection);

397    float b = dot(linedirection, lineorigin);

398    float c = dot(lineorigin, lineorigin) - 1;

399  

400    float dist = 1e15;

401    float determinant = b * b - a * c;

402    if (determinant >= 0) {

403      dist = (sqrt(determinant) - b) / a;

404    }

405  

406    return dist;

407  }

408  

409  float line_unit_box_intersect_dist(vec3 lineorigin, vec3 linedirection)

410  {

411    /* https://seblagarde.wordpress.com/2012/09/29/image-based-lighting-approaches-and-parallax-corrected-cubemap/ */

412    vec3 firstplane = (vec3(1.0) - lineorigin) / linedirection;

413    vec3 secondplane = (vec3(-1.0) - lineorigin) / linedirection;

414    vec3 furthestplane = max(firstplane, secondplane);

415  

416    return min_v3(furthestplane);

417  }

418  

419  /* Return texture coordinates to sample Surface LUT */

420  vec2 lut_coords(float cosTheta, float roughness)

421  {

422    float theta = acos(cosTheta);

423    vec2 coords = vec2(roughness, theta / M_PI_2);

424  

425    /* scale and bias coordinates, for correct filtered lookup */

426    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

427  }

428  

429  vec2 lut_coords_ltc(float cosTheta, float roughness)

430  {

431    vec2 coords = vec2(roughness, sqrt(1.0 - cosTheta));

432  

433    /* scale and bias coordinates, for correct filtered lookup */

434    return coords * (LUT_SIZE - 1.0) / LUT_SIZE + 0.5 / LUT_SIZE;

435  }

436  

437  /* -- Tangent Space conversion -- */

438  vec3 tangent_to_world(vec3 vector, vec3 N, vec3 T, vec3 B)

439  {

440    return T * vector.x + B * vector.y + N * vector.z;

441  }

442  

443  vec3 world_to_tangent(vec3 vector, vec3 N, vec3 T, vec3 B)

444  {

445    return vec3(dot(T, vector), dot(B, vector), dot(N, vector));

446  }

447  

448  void make_orthonormal_basis(vec3 N, out vec3 T, out vec3 B)

449  {

450    vec3 UpVector = abs(N.z) < 0.99999 ? vec3(0.0, 0.0, 1.0) : vec3(1.0, 0.0, 0.0);

451    T = normalize(cross(UpVector, N));

452    B = cross(N, T);

453  }

454  

455  /* ---- Opengl Depth conversion ---- */

456  

457  float linear_depth(bool is_persp, float z, float zf, float zn)

458  {

459    if (is_persp) {

460      return (zn * zf) / (z * (zn - zf) + zf);

461    }

462    else {

463      return (z * 2.0 - 1.0) * zf;

464    }

465  }

466  

467  float buffer_depth(bool is_persp, float z, float zf, float zn)

468  {

469    if (is_persp) {

470      return (zf * (zn - z)) / (z * (zn - zf));

471    }

472    else {

473      return (z / (zf * 2.0)) + 0.5;

474    }

475  }

476  

477  float get_view_z_from_depth(float depth)

478  {

479    if (ProjectionMatrix[3][3] == 0.0) {

480      float d = 2.0 * depth - 1.0;

481      return -ProjectionMatrix[3][2] / (d + ProjectionMatrix[2][2]);

482    }

483    else {

484      return viewVecs[0].z + depth * viewVecs[1].z;

485    }

486  }

487  

488  float get_depth_from_view_z(float z)

489  {

490    if (ProjectionMatrix[3][3] == 0.0) {

491      float d = (-ProjectionMatrix[3][2] / z) - ProjectionMatrix[2][2];

492      return d * 0.5 + 0.5;

493    }

494    else {

495      return (z - viewVecs[0].z) / viewVecs[1].z;

496    }

497  }

498  

499  vec2 get_uvs_from_view(vec3 view)

500  {

501    vec3 ndc = project_point(ProjectionMatrix, view);

502    return ndc.xy * 0.5 + 0.5;

503  }

504  

505  vec3 get_view_space_from_depth(vec2 uvcoords, float depth)

506  {

507    if (ProjectionMatrix[3][3] == 0.0) {

508      return vec3(viewVecs[0].xy + uvcoords * viewVecs[1].xy, 1.0) * get_view_z_from_depth(depth);

509    }

510    else {

511      return viewVecs[0].xyz + vec3(uvcoords, depth) * viewVecs[1].xyz;

512    }

513  }

514  

515  vec3 get_world_space_from_depth(vec2 uvcoords, float depth)

516  {

517    return (ViewMatrixInverse * vec4(get_view_space_from_depth(uvcoords, depth), 1.0)).xyz;

518  }

519  

520  vec3 get_specular_reflection_dominant_dir(vec3 N, vec3 V, float roughness)

521  {

522    vec3 R = -reflect(V, N);

523    float smoothness = 1.0 - roughness;

524    float fac = smoothness * (sqrt(smoothness) + roughness);

525    return normalize(mix(N, R, fac));

526  }

527  

528  float specular_occlusion(float NV, float AO, float roughness)

529  {

530    return saturate(pow(NV + AO, roughness) - 1.0 + AO);

531  }

532  

533  /* --- Refraction utils --- */

534  

535  float ior_from_f0(float f0)

536  {

537    float f = sqrt(f0);

538    return (-f - 1.0) / (f - 1.0);

539  }

540  

541  float f0_from_ior(float eta)

542  {

543    float A = (eta - 1.0) / (eta + 1.0);

544    return A * A;

545  }

546  

547  vec3 get_specular_refraction_dominant_dir(vec3 N, vec3 V, float roughness, float ior)

548  {

549    /* TODO: This a bad approximation. Better approximation should fit

550     * the refracted vector and roughness into the best prefiltered reflection

551     * lobe. */

552    /* Correct the IOR for ior < 1.0 to not see the abrupt delimitation or the TIR */

553    ior = (ior < 1.0) ? mix(ior, 1.0, roughness) : ior;

554    float eta = 1.0 / ior;

555  

556    float NV = dot(N, -V);

557  

558    /* Custom Refraction. */

559    float k = 1.0 - eta * eta * (1.0 - NV * NV);

560    k = max(0.0, k); /* Only this changes. */

561    vec3 R = eta * -V - (eta * NV + sqrt(k)) * N;

562  

563    return R;

564  }

565  

566  float get_btdf_lut(sampler2DArray btdf_lut_tex, float NV, float roughness, float ior)

567  {

568    const vec3 lut_scale_bias_texel_size = vec3((LUT_SIZE - 1.0), 0.5, 1.5) / LUT_SIZE;

569  

570    vec3 coords;

571    /* Try to compensate for the low resolution and interpolation error. */

572    coords.x = (ior > 1.0) ? (0.9 + lut_scale_bias_texel_size.z) +

573                                 (0.1 - lut_scale_bias_texel_size.z) * f0_from_ior(ior) :

574                             (0.9 + lut_scale_bias_texel_size.z) * ior * ior;

575    coords.y = 1.0 - saturate(NV);

576    coords.xy *= lut_scale_bias_texel_size.x;

577    coords.xy += lut_scale_bias_texel_size.y;

578  

579    const float lut_lvl_ofs = 4.0;    /* First texture lvl of roughness. */

580    const float lut_lvl_scale = 16.0; /* How many lvl of roughness in the lut. */

581  

582    float mip = roughness * lut_lvl_scale;

583    float mip_floor = floor(mip);

584  

585    coords.z = lut_lvl_ofs + mip_floor + 1.0;

586    float btdf_high = textureLod(btdf_lut_tex, coords, 0.0).r;

587  

588    coords.z -= 1.0;

589    float btdf_low = textureLod(btdf_lut_tex, coords, 0.0).r;

590  

591    float btdf = (ior == 1.0) ? 1.0 : mix(btdf_low, btdf_high, mip - coords.z);

592  

593    return btdf;

594  }

595  

596  /* ---- Encode / Decode Normal buffer data ---- */

597  /* From http://aras-p.info/texts/CompactNormalStorage.html

598   * Using Method #4: Spheremap Transform */

599  vec2 normal_encode(vec3 n, vec3 view)

600  {

601    float p = sqrt(n.z * 8.0 + 8.0);

602    return n.xy / p + 0.5;

603  }

604  

605  vec3 normal_decode(vec2 enc, vec3 view)

606  {

607    vec2 fenc = enc * 4.0 - 2.0;

608    float f = dot(fenc, fenc);

609    float g = sqrt(1.0 - f / 4.0);

610    vec3 n;

611    n.xy = fenc * g;

612    n.z = 1 - f / 2;

613    return n;

614  }

615  

616  /* ---- RGBM (shared multiplier) encoding ---- */

617  /* From http://iwasbeingirony.blogspot.fr/2010/06/difference-between-rgbm-and-rgbd.html */

618  

619  /* Higher RGBM_MAX_RANGE gives imprecision issues in low intensity. */

620  #define RGBM_MAX_RANGE 512.0

621  

622  vec4 rgbm_encode(vec3 rgb)

623  {

624    float maxRGB = max_v3(rgb);

625    float M = maxRGB / RGBM_MAX_RANGE;

626    M = ceil(M * 255.0) / 255.0;

627    return vec4(rgb / (M * RGBM_MAX_RANGE), M);

628  }

629  

630  vec3 rgbm_decode(vec4 data)

631  {

632    return data.rgb * (data.a * RGBM_MAX_RANGE);

633  }

634  

635  /* ---- RGBE (shared exponent) encoding ---- */

636  vec4 rgbe_encode(vec3 rgb)

637  {

638    float maxRGB = max_v3(rgb);

639    float fexp = ceil(log2(maxRGB));

640    return vec4(rgb / exp2(fexp), (fexp + 128.0) / 255.0);

641  }

642  

643  vec3 rgbe_decode(vec4 data)

644  {

645    float fexp = data.a * 255.0 - 128.0;

646    return data.rgb * exp2(fexp);

647  }

648  

649  #if 1

650  #  define irradiance_encode rgbe_encode

651  #  define irradiance_decode rgbe_decode

652  #else /* No ecoding (when using floating point format) */

653  #  define irradiance_encode(X) (X).rgbb

654  #  define irradiance_decode(X) (X).rgb

655  #endif

656  

657  /* Irradiance Visibility Encoding */

658  #if 1

659  vec4 visibility_encode(vec2 accum, float range)

660  {

661    accum /= range;

662  

663    vec4 data;

664    data.x = fract(accum.x);

665    data.y = floor(accum.x) / 255.0;

666    data.z = fract(accum.y);

667    data.w = floor(accum.y) / 255.0;

668  

669    return data;

670  }

671  

672  vec2 visibility_decode(vec4 data, float range)

673  {

674    return (data.xz + data.yw * 255.0) * range;

675  }

676  #else /* No ecoding (when using floating point format) */

677  vec4 visibility_encode(vec2 accum, float range)

678  {

679    return accum.xyxy;

680  }

681  

682  vec2 visibility_decode(vec4 data, float range)

683  {

684    return data.xy;

685  }

686  #endif

687  

688  /* Fresnel monochromatic, perfect mirror */

689  float F_eta(float eta, float cos_theta)

690  {

691    /* compute fresnel reflectance without explicitly computing

692     * the refracted direction */

693    float c = abs(cos_theta);

694    float g = eta * eta - 1.0 + c * c;

695    float result;

696  

697    if (g > 0.0) {

698      g = sqrt(g);

699      vec2 g_c = vec2(g) + vec2(c, -c);

700      float A = g_c.y / g_c.x;

701      A *= A;

702      g_c *= c;

703      float B = (g_c.y - 1.0) / (g_c.x + 1.0);

704      B *= B;

705      result = 0.5 * A * (1.0 + B);

706    }

707    else {

708      result = 1.0; /* TIR (no refracted component) */

709    }

710  

711    return result;

712  }

713  

714  /* Fresnel color blend base on fresnel factor */

715  vec3 F_color_blend(float eta, float fresnel, vec3 f0_color)

716  {

717    float f0 = F_eta(eta, 1.0);

718    float fac = saturate((fresnel - f0) / max(1e-8, 1.0 - f0));

719    return mix(f0_color, vec3(1.0), fac);

720  }

721  

722  /* Fresnel */

723  vec3 F_schlick(vec3 f0, float cos_theta)

724  {

725    float fac = 1.0 - cos_theta;

726    float fac2 = fac * fac;

727    fac = fac2 * fac2 * fac;

728  

729    /* Unreal specular matching : if specular color is below 2% intensity,

730     * (using green channel for intensity) treat as shadowning */

731    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * fac + (1.0 - fac) * f0;

732  }

733  

734  /* Fresnel approximation for LTC area lights (not MRP) */

735  vec3 F_area(vec3 f0, vec2 lut)

736  {

737    /* Unreal specular matching : if specular color is below 2% intensity,

738     * treat as shadowning */

739    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

740  }

741  

742  /* Fresnel approximation for IBL */

743  vec3 F_ibl(vec3 f0, vec2 lut)

744  {

745    /* Unreal specular matching : if specular color is below 2% intensity,

746     * treat as shadowning */

747    return saturate(50.0 * dot(f0, vec3(0.3, 0.6, 0.1))) * lut.y + lut.x * f0;

748  }

749  

750  /* GGX */

751  float D_ggx_opti(float NH, float a2)

752  {

753    float tmp = (NH * a2 - NH) * NH + 1.0;

754    return M_PI * tmp * tmp; /* Doing RCP and mul a2 at the end */

755  }

756  

757  float G1_Smith_GGX(float NX, float a2)

758  {

759    /* Using Brian Karis approach and refactoring by NX/NX

760     * this way the (2*NL)*(2*NV) in G = G1(V) * G1(L) gets canceled by the brdf denominator 4*NL*NV

761     * Rcp is done on the whole G later

762     * Note that this is not convenient for the transmission formula */

763    return NX + sqrt(NX * (NX - NX * a2) + a2);

764    /* return 2 / (1 + sqrt(1 + a2 * (1 - NX*NX) / (NX*NX) ) ); /* Reference function */

765  }

766  

767  float bsdf_ggx(vec3 N, vec3 L, vec3 V, float roughness)

768  {

769    float a = roughness;

770    float a2 = a * a;

771  

772    vec3 H = normalize(L + V);

773    float NH = max(dot(N, H), 1e-8);

774    float NL = max(dot(N, L), 1e-8);

775    float NV = max(dot(N, V), 1e-8);

776  

777    float G = G1_Smith_GGX(NV, a2) * G1_Smith_GGX(NL, a2); /* Doing RCP at the end */

778    float D = D_ggx_opti(NH, a2);

779  

780    /* Denominator is canceled by G1_Smith */

781    /* bsdf = D * G / (4.0 * NL * NV); /* Reference function */

782    return NL * a2 / (D * G); /* NL to Fit cycles Equation : line. 345 in bsdf_microfacet.h */

783  }

784  

785  void accumulate_light(vec3 light, float fac, inout vec4 accum)

786  {

787    accum += vec4(light, 1.0) * min(fac, (1.0 - accum.a));

788  }

789  

790  /* ----------- Cone Aperture Approximation --------- */

791  

792  /* Return a fitted cone angle given the input roughness */

793  float cone_cosine(float r)

794  {

795    /* Using phong gloss

796     * roughness = sqrt(2/(gloss+2)) */

797    float gloss = -2 + 2 / (r * r);

798    /* Drobot 2014 in GPUPro5 */

799    // return cos(2.0 * sqrt(2.0 / (gloss + 2)));

800    /* Uludag 2014 in GPUPro5 */

801    // return pow(0.244, 1 / (gloss + 1));

802    /* Jimenez 2016 in Practical Realtime Strategies for Accurate Indirect Occlusion*/

803    return exp2(-3.32193 * r * r);

804  }

805  

806  /* --------- Closure ---------- */

807  #ifdef VOLUMETRICS

808  

809  struct Closure {

810    vec3 absorption;

811    vec3 scatter;

812    vec3 emission;

813    float anisotropy;

814  };

815  

816  #  define CLOSURE_DEFAULT Closure(vec3(0.0), vec3(0.0), vec3(0.0), 0.0)

817  

818  Closure closure_mix(Closure cl1, Closure cl2, float fac)

819  {

820    Closure cl;

821    cl.absorption = mix(cl1.absorption, cl2.absorption, fac);

822    cl.scatter = mix(cl1.scatter, cl2.scatter, fac);

823    cl.emission = mix(cl1.emission, cl2.emission, fac);

824    cl.anisotropy = mix(cl1.anisotropy, cl2.anisotropy, fac);

825    return cl;

826  }

827  

828  Closure closure_add(Closure cl1, Closure cl2)

829  {

830    Closure cl;

831    cl.absorption = cl1.absorption + cl2.absorption;

832    cl.scatter = cl1.scatter + cl2.scatter;

833    cl.emission = cl1.emission + cl2.emission;

834    cl.anisotropy = (cl1.anisotropy + cl2.anisotropy) / 2.0; /* Average phase (no multi lobe) */

835    return cl;

836  }

837  

838  Closure closure_emission(vec3 rgb)

839  {

840    Closure cl = CLOSURE_DEFAULT;

841    cl.emission = rgb;

842    return cl;

843  }

844  

845  #else /* VOLUMETRICS */

846  

847  struct Closure {

848    vec3 radiance;

849    float opacity;

850  #  ifdef USE_SSS

851    vec4 sss_data;

852  #    ifdef USE_SSS_ALBEDO

853    vec3 sss_albedo;

854  #    endif

855  #  endif

856    vec4 ssr_data;

857    vec2 ssr_normal;

858    int ssr_id;

859  };

860  

861  /* This is hacking ssr_id to tag transparent bsdf */

862  #  define TRANSPARENT_CLOSURE_FLAG -2

863  #  define REFRACT_CLOSURE_FLAG -3

864  #  define NO_SSR -999

865  

866  #  ifdef USE_SSS

867  #    ifdef USE_SSS_ALBEDO

868  #      define CLOSURE_DEFAULT \

869          Closure(vec3(0.0), 1.0, vec4(0.0), vec3(0.0), vec4(0.0), vec2(0.0), -1)

870  #    else

871  #      define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec4(0.0), vec2(0.0), -1)

872  #    endif

873  #  else

874  #    define CLOSURE_DEFAULT Closure(vec3(0.0), 1.0, vec4(0.0), vec2(0.0), -1)

875  #  endif

876  

877  uniform int outputSsrId;

878  

879  Closure closure_mix(Closure cl1, Closure cl2, float fac)

880  {

881    Closure cl;

882  

883    if (cl1.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

884      cl1.ssr_normal = cl2.ssr_normal;

885      cl1.ssr_data = cl2.ssr_data;

886      cl1.ssr_id = cl2.ssr_id;

887  #  ifdef USE_SSS

888      cl1.sss_data = cl2.sss_data;

889  #    ifdef USE_SSS_ALBEDO

890      cl1.sss_albedo = cl2.sss_albedo;

891  #    endif

892  #  endif

893    }

894    if (cl2.ssr_id == TRANSPARENT_CLOSURE_FLAG) {

895      cl2.ssr_normal = cl1.ssr_normal;

896      cl2.ssr_data = cl1.ssr_data;

897      cl2.ssr_id = cl1.ssr_id;

898  #  ifdef USE_SSS

899      cl2.sss_data = cl1.sss_data;

900  #    ifdef USE_SSS_ALBEDO

901      cl2.sss_albedo = cl1.sss_albedo;

902  #    endif

903  #  endif

904    }

905  

906    /* When mixing SSR don't blend roughness.

907     *

908     * It makes no sense to mix them really, so we take either one of them and

909     * tone down its specularity (ssr_data.xyz) while keeping its roughness (ssr_data.w).

910     */

911    if (cl1.ssr_id == outputSsrId) {

912      cl.ssr_data = mix(cl1.ssr_data.xyzw, vec4(vec3(0.0), cl1.ssr_data.w), fac);

913      cl.ssr_normal = cl1.ssr_normal;

914      cl.ssr_id = cl1.ssr_id;

915    }

916    else {

917      cl.ssr_data = mix(vec4(vec3(0.0), cl2.ssr_data.w), cl2.ssr_data.xyzw, fac);

918      cl.ssr_normal = cl2.ssr_normal;

919      cl.ssr_id = cl2.ssr_id;

920    }

921  

922    cl.opacity = mix(cl1.opacity, cl2.opacity, fac);

923    cl.radiance = mix(cl1.radiance * cl1.opacity, cl2.radiance * cl2.opacity, fac);

924    cl.radiance /= max(1e-8, cl.opacity);

925  

926  #  ifdef USE_SSS

927    cl.sss_data.rgb = mix(cl1.sss_data.rgb, cl2.sss_data.rgb, fac);

928    cl.sss_data.a = (cl1.sss_data.a > 0.0) ? cl1.sss_data.a : cl2.sss_data.a;

929  #    ifdef USE_SSS_ALBEDO

930    /* TODO Find a solution to this. Dither? */

931    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

932  #    endif

933  #  endif

934  

935    return cl;

936  }

937  

938  Closure closure_add(Closure cl1, Closure cl2)

939  {

940    Closure cl = (cl1.ssr_id == outputSsrId) ? cl1 : cl2;

941    cl.radiance = cl1.radiance + cl2.radiance;

942  #  ifdef USE_SSS

943    cl.sss_data = (cl1.sss_data.a > 0.0) ? cl1.sss_data : cl2.sss_data;

944    /* Add radiance that was supposed to be filtered but was rejected. */

945    cl.radiance += (cl1.sss_data.a > 0.0) ? cl2.sss_data.rgb : cl1.sss_data.rgb;

946  #    ifdef USE_SSS_ALBEDO

947    /* TODO Find a solution to this. Dither? */

948    cl.sss_albedo = (cl1.sss_data.a > 0.0) ? cl1.sss_albedo : cl2.sss_albedo;

949  #    endif

950  #  endif

951    cl.opacity = saturate(cl1.opacity + cl2.opacity);

952    return cl;

953  }

954  

955  Closure closure_emission(vec3 rgb)

956  {

957    Closure cl = CLOSURE_DEFAULT;

958    cl.radiance = rgb;

959    return cl;

960  }

961  

962  #  if defined(MESH_SHADER) && !defined(USE_ALPHA_HASH) && !defined(USE_ALPHA_CLIP) && \

963        !defined(SHADOW_SHADER) && !defined(USE_MULTIPLY)

964  layout(location = 0) out vec4 fragColor;

965  layout(location = 1) out vec4 ssrNormals;

966  layout(location = 2) out vec4 ssrData;

967  #    ifdef USE_SSS

968  layout(location = 3) out vec4 sssData;

969  #      ifdef USE_SSS_ALBEDO

970  layout(location = 4) out vec4 sssAlbedo;

971  #      endif /* USE_SSS_ALBEDO */

972  #    endif   /* USE_SSS */

973  

974  Closure nodetree_exec(void); /* Prototype */

975  

976  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

977  /* Prototype because this file is included before volumetric_lib.glsl */

978  vec4 volumetric_resolve(vec4 scene_color, vec2 frag_uvs, float frag_depth);

979  #    endif

980  

981  #    define NODETREE_EXEC

982  void main()

983  {

984    Closure cl = nodetree_exec();

985  #    ifndef USE_ALPHA_BLEND

986    /* Prevent alpha hash material writing into alpha channel. */

987    cl.opacity = 1.0;

988  #    endif

989  

990  #    if defined(USE_ALPHA_BLEND_VOLUMETRICS)

991    /* XXX fragile, better use real viewport resolution */

992    vec2 uvs = gl_FragCoord.xy / vec2(2 * textureSize(maxzBuffer, 0).xy);

993    fragColor.rgb = volumetric_resolve(vec4(cl.radiance, cl.opacity), uvs, gl_FragCoord.z).rgb;

994    fragColor.a = cl.opacity;

995  #    else

996    fragColor = vec4(cl.radiance, cl.opacity);

997  #    endif

998  

999    ssrNormals = cl.ssr_normal.xyyy;

1000    ssrData = cl.ssr_data;

1001  #    ifdef USE_SSS

1002    sssData = cl.sss_data;

1003  #      ifdef USE_SSS_ALBEDO

1004    sssAlbedo = cl.sss_albedo.rgbb;

1005  #      endif

1006  #    endif

1007  

1008    /* For Probe capture */

1009  #    ifdef USE_SSS

1010  #      ifdef USE_SSS_ALBEDO

1011    fragColor.rgb += cl.sss_data.rgb * cl.sss_albedo.rgb * float(!sssToggle);

1012  #      else

1013    fragColor.rgb += cl.sss_data.rgb * float(!sssToggle);

1014  #      endif

1015  #    endif

1016  }

1017  

1018  #  endif /* MESH_SHADER && !SHADOW_SHADER */

1019  

1020  #endif /* VOLUMETRICS */

1021  

1022  Closure nodetree_exec(void); /* Prototype */

1023  

1024  /* TODO find a better place */

1025  #ifdef USE_MULTIPLY

1026  

1027  out vec4 fragColor;

1028  

1029  #  define NODETREE_EXEC

1030  void main()

1031  {

1032    Closure cl = nodetree_exec();

1033    fragColor = vec4(mix(vec3(1.0), cl.radiance, cl.opacity), 1.0);

1034  }

1035  #endif

1036  

1037  uniform sampler2D colorHistoryBuffer;

1038  uniform sampler2D velocityBuffer;

1039  

1040  out vec4 FragColor;

1041  

1042  vec4 safe_color(vec4 c)

1043  {

1044    /* Clamp to avoid black square artifacts if a pixel goes NaN. */

1045    return clamp(c, vec4(0.0), vec4(1e20)); /* 1e20 arbitrary. */

1046  }

1047  

1048  #ifdef USE_REPROJECTION

1049  

1050  /**

1051   * Adapted from https://casual-effects.com/g3d/G3D10/data-files/shader/Film/Film_temporalAA.pix

1052   * which is adapted from https://github.com/gokselgoktas/temporal-anti-aliasing/blob/master/Assets/Resources/Shaders/TemporalAntiAliasing.cginc

1053   * which is adapted from https://github.com/playdeadgames/temporal

1054   * Optimization by Stubbesaurus and epsilon adjustment to avoid division by zero.

1055   *

1056   * This can cause 3x3 blocks of color when there is a thin edge of a similar color that

1057   * is varying in intensity.

1058   */

1059  vec3 clip_to_aabb(vec3 color, vec3 minimum, vec3 maximum, vec3 average)

1060  {

1061    /* note: only clips towards aabb center (but fast!) */

1062    vec3 center = 0.5 * (maximum + minimum);

1063    vec3 extents = 0.5 * (maximum - minimum);

1064    vec3 dist = color - center;

1065    vec3 ts = abs(extents) / max(abs(dist), vec3(0.0001));

1066    float t = saturate(min_v3(ts));

1067    return center + dist * t;

1068  }

1069  

1070  /**

1071   * Vastly based on https://github.com/playdeadgames/temporal

1072   */

1073  void main()

1074  {

1075    ivec2 texel = ivec2(gl_FragCoord.xy);

1076    float depth = texelFetch(depthBuffer, texel, 0).r;

1077    vec2 motion = texelFetch(velocityBuffer, texel, 0).rg;

1078  

1079    /* Decode from unsigned normalized 16bit texture. */

1080    motion = motion * 2.0 - 1.0;

1081  

1082    /* Compute pixel position in previous frame. */

1083    vec2 screen_res = vec2(textureSize(colorBuffer, 0).xy);

1084    vec2 uv = gl_FragCoord.xy / screen_res;

1085    vec2 uv_history = uv - motion;

1086  

1087    ivec2 texel_history = ivec2(uv_history * screen_res);

1088    vec4 color_history = textureLod(colorHistoryBuffer, uv_history, 0.0);

1089  

1090    /* Color bounding box clamping. 3x3 neighborhood. */

1091    vec4 c02 = texelFetchOffset(colorBuffer, texel, 0, ivec2(-1, 1));

1092    vec4 c12 = texelFetchOffset(colorBuffer, texel, 0, ivec2(0, 1));

1093    vec4 c22 = texelFetchOffset(colorBuffer, texel, 0, ivec2(1, 1));

1094    vec4 c01 = texelFetchOffset(colorBuffer, texel, 0, ivec2(-1, 0));

1095    vec4 c11 = texelFetchOffset(colorBuffer, texel, 0, ivec2(0, 0));

1096    vec4 c21 = texelFetchOffset(colorBuffer, texel, 0, ivec2(1, 0));

1097    vec4 c00 = texelFetchOffset(colorBuffer, texel, 0, ivec2(-1, -1));

1098    vec4 c10 = texelFetchOffset(colorBuffer, texel, 0, ivec2(0, -1));

1099    vec4 c20 = texelFetchOffset(colorBuffer, texel, 0, ivec2(1, -1));

1100  

1101    vec4 color = c11;

1102  

1103    /* AABB minmax */

1104    vec4 min_col = min9(c02, c12, c22, c01, c11, c21, c00, c10, c20);

1105    vec4 max_col = max9(c02, c12, c22, c01, c11, c21, c00, c10, c20);

1106    vec4 avg_col = avg9(c02, c12, c22, c01, c11, c21, c00, c10, c20);

1107  

1108    /* bias the color aabb toward the center (rounding the shape) */

1109    vec4 min_center = min5(c12, c01, c11, c21, c10);

1110    vec4 max_center = max5(c12, c01, c11, c21, c10);

1111    vec4 avg_center = avg5(c12, c01, c11, c21, c10);

1112    min_col = (min_col + min_center) * 0.5;

1113    max_col = (max_col + max_center) * 0.5;

1114    avg_col = (avg_col + avg_center) * 0.5;

1115  

1116    /* Clip color toward the center of the neighborhood colors AABB box. */

1117    color_history.rgb = clip_to_aabb(color_history.rgb, min_col.rgb, max_col.rgb, avg_col.rgb);

1118  

1119    /* Luminance weighting. */

1120    /* TODO correct luminance */

1121    float lum0 = dot(color.rgb, vec3(0.333));

1122    float lum1 = dot(color_history.rgb, vec3(0.333));

1123    float diff = abs(lum0 - lum1) / max(lum0, max(lum1, 0.2));

1124    float weight = 1.0 - diff;

1125    float alpha = mix(0.04, 0.12, weight * weight);

1126  

1127    color_history = mix(color_history, color, alpha);

1128  

1129    bool out_of_view = any(greaterThanEqual(abs(uv_history - 0.5), vec2(0.5)));

1130    color_history = (out_of_view) ? color : color_history;

1131  

1132    FragColor = safe_color(color_history);

1133  }

1134  

1135  #else

1136  

1137  uniform float alpha;

1138  

1139  void main()

1140  {

1141    ivec2 texel = ivec2(gl_FragCoord.xy);

1142    vec4 color = texelFetch(colorBuffer, texel, 0);

1143    vec4 color_history = texelFetch(colorHistoryBuffer, texel, 0);

1144    FragColor = safe_color(mix(color_history, color, alpha));

1145  }

1146  #endif

0(962) : error C0105: Syntax error in #if
0(962) : error C0105: Syntax error in #if
0(963) : error C0000: syntax error, unexpected '!' at token "!"
0(1139) : error C1013: function "main" is already defined at 0(982)

Error   : EXCEPTION_ACCESS_VIOLATION
Address : 0x0000000140E2D3E4
Module  : E:\Blender\Blender Program\blender-2.80.0-git.b46245470f79-windows64 20.4.19\blender.exe