460 lines
19 KiB
GLSL
460 lines
19 KiB
GLSL
Shader "Unreal/MI_Bottle_01"
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{
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Properties
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{
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_MainTex("MainTex (RGB)", 2D) = "white" {}
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Material_Texture2D_0( "N", 2D ) = "white" {}
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Material_Texture2D_1( "BC", 2D ) = "white" {}
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Material_Texture2D_2( "AO_R_MT", 2D ) = "white" {}
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View_BufferSizeAndInvSize( "View_BufferSizeAndInvSize", Vector ) = ( 1920,1080,0.00052, 0.00092 )//1920,1080,1/1920, 1/1080
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LocalObjectBoundsMin( "LocalObjectBoundsMin", Vector ) = ( 0, 0, 0, 0 )
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LocalObjectBoundsMax( "LocalObjectBoundsMax", Vector ) = ( 100, 100, 100, 0 )
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}
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SubShader
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{
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Tags { "RenderType" = "Opaque" }
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//BLEND_ON Tags { "RenderType" = "Transparent" "Queue" = "Transparent" }
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//Blend SrcAlpha OneMinusSrcAlpha
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//Cull Off
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CGPROGRAM
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#include "UnityPBSLighting.cginc"
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#pragma surface surf Standard vertex:vert addshadow
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//BLEND_ON #pragma surface surf Standard vertex:vert alpha:fade addshadow
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#pragma target 5.0
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#define NUM_TEX_COORD_INTERPOLATORS 1
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#define NUM_MATERIAL_TEXCOORDS_VERTEX 1
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#define NUM_CUSTOM_VERTEX_INTERPOLATORS 0
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struct Input
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{
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//float3 Normal;
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float2 uv_MainTex : TEXCOORD0;
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float2 uv2_Material_Texture2D_0 : TEXCOORD1;
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//float2 uv2_MainTex : TEXCOORD1;
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float4 color : COLOR;
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float4 tangent;
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//float4 normal;
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float3 viewDir;
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float4 screenPos;
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float3 worldPos;
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//float3 worldNormal;
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float3 normal2;
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INTERNAL_DATA
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};
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void vert( inout appdata_full i, out Input o )
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{
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float3 p_normal = mul( float4( i.normal, 0.0f ), unity_WorldToObject );
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//half4 p_tangent = mul( unity_ObjectToWorld,i.tangent );
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//half3 normal_input = normalize( p_normal.xyz );
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//half3 tangent_input = normalize( p_tangent.xyz );
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//half3 binormal_input = cross( p_normal.xyz,tangent_input.xyz ) * i.tangent.w;
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UNITY_INITIALIZE_OUTPUT( Input, o );
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//o.worldNormal = p_normal;
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o.normal2 = p_normal;
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o.tangent = i.tangent;
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//o.binormal_input = binormal_input;
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}
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uniform sampler2D _MainTex;
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/*
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struct SurfaceOutputStandard
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{
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fixed3 Albedo; // base (diffuse or specular) color
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fixed3 Normal; // tangent space normal, if written
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half3 Emission;
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half Metallic; // 0=non-metal, 1=metal
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// Smoothness is the user facing name, it should be perceptual smoothness but user should not have to deal with it.
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// Everywhere in the code you meet smoothness it is perceptual smoothness
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half Smoothness; // 0=rough, 1=smooth
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half Occlusion; // occlusion (default 1)
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fixed Alpha; // alpha for transparencies
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};
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*/
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#define Texture2D sampler2D
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#define TextureCube samplerCUBE
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#define SamplerState int
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//#define UE5
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#define MATERIAL_TANGENTSPACENORMAL 1
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//struct Material
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//{
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//samplers start
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uniform sampler2D Material_Texture2D_0;
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uniform SamplerState Material_Texture2D_0Sampler;
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uniform sampler2D Material_Texture2D_1;
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uniform SamplerState Material_Texture2D_1Sampler;
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uniform sampler2D Material_Texture2D_2;
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uniform SamplerState Material_Texture2D_2Sampler;
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//};
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#ifdef UE5
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#define UE_LWC_RENDER_TILE_SIZE 2097152.0
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#define UE_LWC_RENDER_TILE_SIZE_SQRT 1448.15466
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#define UE_LWC_RENDER_TILE_SIZE_RSQRT 0.000690533954
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#define UE_LWC_RENDER_TILE_SIZE_RCP 4.76837158e-07
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#define UE_LWC_RENDER_TILE_SIZE_FMOD_PI 0.673652053
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#define UE_LWC_RENDER_TILE_SIZE_FMOD_2PI 0.673652053
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#define INVARIANT(X) X
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#define PI (3.1415926535897932)
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//#include "LargeWorldCoordinates.hlsl"
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#endif
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struct MaterialStruct
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{
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float4 VectorExpressions[2];
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float4 ScalarExpressions[2];
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float VTPackedPageTableUniform[2];
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float VTPackedUniform[1];
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};
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struct ViewStruct
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{
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float GameTime;
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float RealTime;
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float DeltaTime;
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float PrevFrameGameTime;
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float PrevFrameRealTime;
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float MaterialTextureMipBias;
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SamplerState MaterialTextureBilinearWrapedSampler;
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SamplerState MaterialTextureBilinearClampedSampler;
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float4 PrimitiveSceneData[ 40 ];
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float4 TemporalAAParams;
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float2 ViewRectMin;
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float4 ViewSizeAndInvSize;
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float MaterialTextureDerivativeMultiply;
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uint StateFrameIndexMod8;
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float FrameNumber;
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float2 FieldOfViewWideAngles;
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float4 RuntimeVirtualTextureMipLevel;
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float PreExposure;
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float4 BufferBilinearUVMinMax;
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};
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struct ResolvedViewStruct
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{
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#ifdef UE5
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FLWCVector3 WorldCameraOrigin;
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FLWCVector3 PrevWorldCameraOrigin;
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FLWCVector3 PreViewTranslation;
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FLWCVector3 WorldViewOrigin;
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#else
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float3 WorldCameraOrigin;
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float3 PrevWorldCameraOrigin;
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float3 PreViewTranslation;
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float3 WorldViewOrigin;
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#endif
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float4 ScreenPositionScaleBias;
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float4x4 TranslatedWorldToView;
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float4x4 TranslatedWorldToCameraView;
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float4x4 TranslatedWorldToClip;
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float4x4 ViewToTranslatedWorld;
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float4x4 PrevViewToTranslatedWorld;
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float4x4 CameraViewToTranslatedWorld;
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float4 BufferBilinearUVMinMax;
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float4 XRPassthroughCameraUVs[ 2 ];
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};
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struct PrimitiveStruct
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{
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float4x4 WorldToLocal;
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float4x4 LocalToWorld;
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};
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ViewStruct View;
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ResolvedViewStruct ResolvedView;
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PrimitiveStruct Primitive;
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uniform float4 View_BufferSizeAndInvSize;
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uniform float4 LocalObjectBoundsMin;
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uniform float4 LocalObjectBoundsMax;
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uniform SamplerState Material_Wrap_WorldGroupSettings;
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uniform SamplerState Material_Clamp_WorldGroupSettings;
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#define PI UNITY_PI
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#include "UnrealCommon.cginc"
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MaterialStruct Material;
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void InitializeExpressions()
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{
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Material.VectorExpressions[0] = float4(0.000000,0.000000,0.000000,0.000000);//SelectionColor
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Material.VectorExpressions[1] = float4(0.000000,0.000000,0.000000,0.000000);//(Unknown)
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Material.ScalarExpressions[0] = float4(0.000000,0.000000,1.000000,0.000000);//Flatness (S) (Unknown) Brightness Desaturation
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Material.ScalarExpressions[1] = float4(1.000000,34.835636,0.000000,0.000000);//Metalness Roughness (Unknown) (Unknown)
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}
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float3 GetMaterialWorldPositionOffset(FMaterialVertexParameters Parameters)
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{
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#if USE_INSTANCING
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// skip if this instance is hidden
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if (Parameters.PerInstanceParams.z < 1.f)
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{
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return float3(0,0,0);
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}
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#endif
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return MaterialFloat3(0.00000000,0.00000000,0.00000000);;
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}
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void CalcPixelMaterialInputs(in out FMaterialPixelParameters Parameters, in out FPixelMaterialInputs PixelMaterialInputs)
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{
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//WorldAligned texturing & others use normals & stuff that think Z is up
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Parameters.TangentToWorld[0] = Parameters.TangentToWorld[0].xzy;
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Parameters.TangentToWorld[1] = Parameters.TangentToWorld[1].xzy;
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Parameters.TangentToWorld[2] = Parameters.TangentToWorld[2].xzy;
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float3 WorldNormalCopy = Parameters.WorldNormal;
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// Initial calculations (required for Normal)
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MaterialFloat Local0 = MaterialStoreTexCoordScale(Parameters, Parameters.TexCoords[0].xy, 0);
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MaterialFloat4 Local1 = UnpackNormalMap(Texture2DSampleBias(Material_Texture2D_0, Material_Texture2D_0Sampler,Parameters.TexCoords[0].xy,View.MaterialTextureMipBias));
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MaterialFloat Local2 = MaterialStoreTexSample(Parameters, Local1, 0);
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MaterialFloat3 Local3 = lerp(Local1.rgb,MaterialFloat3(0.00000000,0.00000000,1.00000000),MaterialFloat(Material.ScalarExpressions[0].x));
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// The Normal is a special case as it might have its own expressions and also be used to calculate other inputs, so perform the assignment here
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PixelMaterialInputs.Normal = Local3;
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// Note that here MaterialNormal can be in world space or tangent space
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float3 MaterialNormal = GetMaterialNormal(Parameters, PixelMaterialInputs);
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#if MATERIAL_TANGENTSPACENORMAL
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#if SIMPLE_FORWARD_SHADING
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Parameters.WorldNormal = float3(0, 0, 1);
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#endif
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#if FEATURE_LEVEL >= FEATURE_LEVEL_SM4
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// Mobile will rely on only the final normalize for performance
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MaterialNormal = normalize(MaterialNormal);
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#endif
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// normalizing after the tangent space to world space conversion improves quality with sheared bases (UV layout to WS causes shrearing)
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// use full precision normalize to avoid overflows
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Parameters.WorldNormal = TransformTangentNormalToWorld(Parameters.TangentToWorld, MaterialNormal);
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#else //MATERIAL_TANGENTSPACENORMAL
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Parameters.WorldNormal = normalize(MaterialNormal);
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#endif //MATERIAL_TANGENTSPACENORMAL
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#if MATERIAL_TANGENTSPACENORMAL
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// flip the normal for backfaces being rendered with a two-sided material
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Parameters.WorldNormal *= Parameters.TwoSidedSign;
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#endif
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Parameters.ReflectionVector = ReflectionAboutCustomWorldNormal(Parameters, Parameters.WorldNormal, false);
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#if !PARTICLE_SPRITE_FACTORY
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Parameters.Particle.MotionBlurFade = 1.0f;
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#endif // !PARTICLE_SPRITE_FACTORY
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// Now the rest of the inputs
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MaterialFloat3 Local4 = lerp(MaterialFloat3(0.00000000,0.00000000,0.00000000),Material.VectorExpressions[1].rgb,MaterialFloat(Material.ScalarExpressions[0].y));
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MaterialFloat Local5 = MaterialStoreTexCoordScale(Parameters, Parameters.TexCoords[0].xy, 2);
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MaterialFloat4 Local6 = ProcessMaterialColorTextureLookup(Texture2DSampleBias(Material_Texture2D_1, Material_Texture2D_1Sampler,Parameters.TexCoords[0].xy,View.MaterialTextureMipBias));
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MaterialFloat Local7 = MaterialStoreTexSample(Parameters, Local6, 2);
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MaterialFloat3 Local8 = (Local6.rgb * Material.ScalarExpressions[0].z);
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MaterialFloat Local9 = dot(Local8, MaterialFloat3(0.30000001,0.58999997,0.11000000));
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MaterialFloat3 Local10 = lerp(Local8,MaterialFloat3(Local9,Local9,Local9),MaterialFloat(Material.ScalarExpressions[0].w));
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MaterialFloat Local11 = MaterialStoreTexCoordScale(Parameters, Parameters.TexCoords[0].xy, 1);
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MaterialFloat4 Local12 = ProcessMaterialColorTextureLookup(Texture2DSampleBias(Material_Texture2D_2, Material_Texture2D_2Sampler,Parameters.TexCoords[0].xy,View.MaterialTextureMipBias));
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MaterialFloat Local13 = MaterialStoreTexSample(Parameters, Local12, 1);
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MaterialFloat Local14 = (Material.ScalarExpressions[1].x * Local12.b);
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MaterialFloat Local15 = (Material.ScalarExpressions[1].y * Local12.g);
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PixelMaterialInputs.EmissiveColor = Local4;
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PixelMaterialInputs.Opacity = 1.00000000;
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PixelMaterialInputs.OpacityMask = 1.00000000;
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PixelMaterialInputs.BaseColor = Local10;
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PixelMaterialInputs.Metallic = Local14;
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PixelMaterialInputs.Specular = 0.50000000;
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PixelMaterialInputs.Roughness = Local15;
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PixelMaterialInputs.Anisotropy = 0.00000000;
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PixelMaterialInputs.Tangent = MaterialFloat3(1.00000000,0.00000000,0.00000000);
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PixelMaterialInputs.Subsurface = 0;
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PixelMaterialInputs.AmbientOcclusion = Local12.r;
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PixelMaterialInputs.Refraction = 0;
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PixelMaterialInputs.PixelDepthOffset = 0.00000000;
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PixelMaterialInputs.ShadingModel = 1;
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#if MATERIAL_USES_ANISOTROPY
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Parameters.WorldTangent = CalculateAnisotropyTangent(Parameters, PixelMaterialInputs);
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#else
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Parameters.WorldTangent = 0;
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#endif
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}
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void surf( Input In, inout SurfaceOutputStandard o )
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{
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InitializeExpressions();
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float3 Z3 = float3( 0, 0, 0 );
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float4 Z4 = float4( 0, 0, 0, 0 );
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float3 UnrealWorldPos = float3( In.worldPos.x, In.worldPos.y, In.worldPos.z );
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float3 UnrealNormal = In.normal2;
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FMaterialPixelParameters Parameters = (FMaterialPixelParameters)0;
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#if NUM_TEX_COORD_INTERPOLATORS > 0
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Parameters.TexCoords[ 0 ] = float2( In.uv_MainTex.x, 1.0 - In.uv_MainTex.y );
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#endif
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#if NUM_TEX_COORD_INTERPOLATORS > 1
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Parameters.TexCoords[ 1 ] = float2( In.uv2_Material_Texture2D_0.x, 1.0 - In.uv2_Material_Texture2D_0.y );
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#endif
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#if NUM_TEX_COORD_INTERPOLATORS > 2
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for( int i = 2; i < NUM_TEX_COORD_INTERPOLATORS; i++ )
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{
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Parameters.TexCoords[ i ] = float2( In.uv_MainTex.x, 1.0 - In.uv_MainTex.y );
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}
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#endif
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Parameters.VertexColor = In.color;
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Parameters.WorldNormal = UnrealNormal;
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Parameters.ReflectionVector = half3( 0, 0, 1 );
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Parameters.CameraVector = normalize( _WorldSpaceCameraPos.xyz - UnrealWorldPos.xyz );
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//Parameters.CameraVector = mul( ( float3x3 )unity_CameraToWorld, float3( 0, 0, 1 ) ) * -1;
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Parameters.LightVector = half3( 0, 0, 0 );
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float4 screenpos = In.screenPos;
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screenpos /= screenpos.w;
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//screenpos.y = 1 - screenpos.y;
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Parameters.SvPosition = float4( screenpos.x, screenpos.y, 0, 0 );
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Parameters.ScreenPosition = Parameters.SvPosition;
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Parameters.UnMirrored = 1;
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Parameters.TwoSidedSign = 1;
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float3 InWorldNormal = UnrealNormal;
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float4 InTangent = In.tangent;
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float4 tangentWorld = float4( UnityObjectToWorldDir( InTangent.xyz ), InTangent.w );
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tangentWorld.xyz = normalize( tangentWorld.xyz );
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float3x3 OriginalTangentToWorld = CreateTangentToWorldPerVertex( InWorldNormal, tangentWorld.xyz, tangentWorld.w );
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Parameters.TangentToWorld = OriginalTangentToWorld;
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//WorldAlignedTexturing in UE relies on the fact that coords there are 100x larger, prepare values for that
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//but watch out for any computation that might get skewed as a side effect
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UnrealWorldPos = ToUnrealPos( UnrealWorldPos );
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Parameters.AbsoluteWorldPosition = UnrealWorldPos;
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Parameters.WorldPosition_CamRelative = UnrealWorldPos;
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Parameters.WorldPosition_NoOffsets = UnrealWorldPos;
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Parameters.WorldPosition_NoOffsets_CamRelative = Parameters.WorldPosition_CamRelative;
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Parameters.LightingPositionOffset = float3( 0, 0, 0 );
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Parameters.AOMaterialMask = 0;
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Parameters.Particle.RelativeTime = 0;
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Parameters.Particle.MotionBlurFade;
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Parameters.Particle.Random = 0;
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Parameters.Particle.Velocity = half4( 1, 1, 1, 1 );
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Parameters.Particle.Color = half4( 1, 1, 1, 1 );
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Parameters.Particle.TranslatedWorldPositionAndSize = float4( UnrealWorldPos, 0 );
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Parameters.Particle.MacroUV = half4(0,0,1,1);
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Parameters.Particle.DynamicParameter = half4(0,0,0,0);
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Parameters.Particle.LocalToWorld = float4x4( Z4, Z4, Z4, Z4 );
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Parameters.Particle.Size = float2(1,1);
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Parameters.Particle.SubUVCoords[ 0 ] = Parameters.Particle.SubUVCoords[ 1 ] = float2( 0, 0 );
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Parameters.Particle.SubUVLerp = 0.0;
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Parameters.TexCoordScalesParams = float2( 0, 0 );
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Parameters.PrimitiveId = 0;
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Parameters.VirtualTextureFeedback = 0;
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FPixelMaterialInputs PixelMaterialInputs = ( FPixelMaterialInputs)0;
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PixelMaterialInputs.Normal = float3( 0, 0, 1 );
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PixelMaterialInputs.ShadingModel = 0;
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PixelMaterialInputs.FrontMaterial = 0;
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View.GameTime = View.RealTime = _Time.y;// _Time is (t/20, t, t*2, t*3)
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View.PrevFrameGameTime = View.GameTime - unity_DeltaTime.x;//(dt, 1/dt, smoothDt, 1/smoothDt)
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View.PrevFrameRealTime = View.RealTime;
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View.DeltaTime = unity_DeltaTime.x;
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View.MaterialTextureMipBias = 0.0;
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View.TemporalAAParams = float4( 0, 0, 0, 0 );
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View.ViewRectMin = float2( 0, 0 );
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View.ViewSizeAndInvSize = View_BufferSizeAndInvSize;
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View.MaterialTextureDerivativeMultiply = 1.0f;
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View.StateFrameIndexMod8 = 0;
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View.FrameNumber = (int)_Time.y;
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View.FieldOfViewWideAngles = float2( PI * 0.42f, PI * 0.42f );//75degrees, default unity
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View.RuntimeVirtualTextureMipLevel = float4( 0, 0, 0, 0 );
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View.PreExposure = 0;
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View.BufferBilinearUVMinMax = float4(
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View_BufferSizeAndInvSize.z * ( 0 + 0.5 ),//EffectiveViewRect.Min.X
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View_BufferSizeAndInvSize.w * ( 0 + 0.5 ),//EffectiveViewRect.Min.Y
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View_BufferSizeAndInvSize.z * ( View_BufferSizeAndInvSize.x - 0.5 ),//EffectiveViewRect.Max.X
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View_BufferSizeAndInvSize.w * ( View_BufferSizeAndInvSize.y - 0.5 ) );//EffectiveViewRect.Max.Y
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for( int i2 = 0; i2 < 40; i2++ )
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View.PrimitiveSceneData[ i2 ] = float4( 0, 0, 0, 0 );
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float4x4 ViewMatrix = transpose( unity_MatrixV );
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float4x4 InverseViewMatrix = transpose( unity_MatrixInvV );
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float4x4 ViewProjectionMatrix = transpose( unity_MatrixVP );
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uint PrimitiveBaseOffset = Parameters.PrimitiveId * PRIMITIVE_SCENE_DATA_STRIDE;
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 0 ] = unity_ObjectToWorld[ 0 ];//LocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 1 ] = unity_ObjectToWorld[ 1 ];//LocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 2 ] = unity_ObjectToWorld[ 2 ];//LocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 3 ] = unity_ObjectToWorld[ 3 ];//LocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 6 ] = unity_WorldToObject[ 0 ];//WorldToLocal
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 7 ] = unity_WorldToObject[ 1 ];//WorldToLocal
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 8 ] = unity_WorldToObject[ 2 ];//WorldToLocal
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 9 ] = unity_WorldToObject[ 3 ];//WorldToLocal
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 10 ] = unity_WorldToObject[ 0 ];//PreviousLocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 11 ] = unity_WorldToObject[ 1 ];//PreviousLocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 12 ] = unity_WorldToObject[ 2 ];//PreviousLocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 13 ] = unity_WorldToObject[ 3 ];//PreviousLocalToWorld
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 18 ] = float4( ToUnrealPos( UNITY_MATRIX_M[ 3 ] ), 0 );//ActorWorldPosition
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View.PrimitiveSceneData[ PrimitiveBaseOffset + 19 ] = LocalObjectBoundsMax - LocalObjectBoundsMin;//ObjectBounds
|
|
View.PrimitiveSceneData[ PrimitiveBaseOffset + 21 ] = mul( unity_ObjectToWorld, float3( 1, 0, 0 ) );//ObjectOrientation
|
|
View.PrimitiveSceneData[ PrimitiveBaseOffset + 23 ] = LocalObjectBoundsMin;//LocalObjectBoundsMin
|
|
View.PrimitiveSceneData[ PrimitiveBaseOffset + 24 ] = LocalObjectBoundsMax;//LocalObjectBoundsMax
|
|
|
|
#ifdef UE5
|
|
ResolvedView.WorldCameraOrigin = LWCPromote( ToUnrealPos( _WorldSpaceCameraPos.xyz ) );
|
|
ResolvedView.PreViewTranslation = LWCPromote( float3( 0, 0, 0 ) );
|
|
ResolvedView.WorldViewOrigin = LWCPromote( float3( 0, 0, 0 ) );
|
|
#else
|
|
ResolvedView.WorldCameraOrigin = ToUnrealPos( _WorldSpaceCameraPos.xyz );
|
|
ResolvedView.PreViewTranslation = float3( 0, 0, 0 );
|
|
ResolvedView.WorldViewOrigin = float3( 0, 0, 0 );
|
|
#endif
|
|
ResolvedView.PrevWorldCameraOrigin = ResolvedView.WorldCameraOrigin;
|
|
ResolvedView.ScreenPositionScaleBias = float4( 1, 1, 0, 0 );
|
|
ResolvedView.TranslatedWorldToView = ViewMatrix;
|
|
ResolvedView.TranslatedWorldToCameraView = ViewMatrix;
|
|
ResolvedView.TranslatedWorldToClip = ViewProjectionMatrix;
|
|
ResolvedView.ViewToTranslatedWorld = InverseViewMatrix;
|
|
ResolvedView.PrevViewToTranslatedWorld = ResolvedView.ViewToTranslatedWorld;
|
|
ResolvedView.CameraViewToTranslatedWorld = InverseViewMatrix;
|
|
ResolvedView.BufferBilinearUVMinMax = View.BufferBilinearUVMinMax;
|
|
ResolvedView.XRPassthroughCameraUVs[ 0 ] = ResolvedView.XRPassthroughCameraUVs[ 1 ] = float4( 0, 0, 1, 1 );
|
|
Primitive.WorldToLocal = unity_WorldToObject;
|
|
Primitive.LocalToWorld = unity_ObjectToWorld;
|
|
CalcPixelMaterialInputs( Parameters, PixelMaterialInputs );
|
|
|
|
#define HAS_WORLDSPACE_NORMAL 0
|
|
#if HAS_WORLDSPACE_NORMAL
|
|
PixelMaterialInputs.Normal = mul( PixelMaterialInputs.Normal, (MaterialFloat3x3)( transpose( OriginalTangentToWorld ) ) );
|
|
#endif
|
|
|
|
o.Albedo = PixelMaterialInputs.BaseColor.rgb;
|
|
o.Alpha = PixelMaterialInputs.Opacity;
|
|
//if( PixelMaterialInputs.OpacityMask < 0.333 ) discard;
|
|
|
|
o.Metallic = PixelMaterialInputs.Metallic;
|
|
o.Smoothness = 1.0 - PixelMaterialInputs.Roughness;
|
|
o.Normal = normalize( PixelMaterialInputs.Normal );
|
|
o.Emission = PixelMaterialInputs.EmissiveColor.rgb;
|
|
o.Occlusion = PixelMaterialInputs.AmbientOcclusion;
|
|
|
|
//BLEND_ADDITIVE o.Alpha = ( o.Emission.r + o.Emission.g + o.Emission.b ) / 3;
|
|
}
|
|
ENDCG
|
|
}
|
|
Fallback "Diffuse"
|
|
} |