void Process(
FRHICommandList& RHICmdList,
const FProcessBasePassMeshParameters& Parameters,
const LightMapPolicyType& LightMapPolicy,
const typename LightMapPolicyType::ElementDataType& LightMapElementData
) const
{
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
// Treat masked materials as if they don't occlude in shader complexity, which is PVR behavior
if(Parameters.BlendMode == BLEND_Masked && View.Family->EngineShowFlags.ShaderComplexity)
{
// Note, this is a reversed Z depth surface, using CF_GreaterEqual.
RHICmdList.SetDepthStencilState(TStaticDepthStencilState<false,CF_GreaterEqual>::GetRHI());
}
#endif
const bool bIsLitMaterial = Parameters.ShadingModel != MSM_Unlit;
const FScene* Scene = Parameters.PrimitiveSceneProxy ? Parameters.PrimitiveSceneProxy->GetPrimitiveSceneInfo()->Scene : NULL;
TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType> DrawingPolicy(
Parameters.Mesh.VertexFactory,
Parameters.Mesh.MaterialRenderProxy,
*Parameters.Material,
LightMapPolicy,
Parameters.BlendMode,
Parameters.TextureMode,
Parameters.ShadingModel != MSM_Unlit && Scene && Scene->ShouldRenderSkylight(),
View.Family->EngineShowFlags.ShaderComplexity,
View.GetFeatureLevel()
);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, typename TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType>::ContextDataType());
for( int32 BatchElementIndex=0;BatchElementIndex<Parameters.Mesh.Elements.Num();BatchElementIndex++ )
{
DrawingPolicy.SetMeshRenderState(
RHICmdList,
View,
Parameters.PrimitiveSceneProxy,
Parameters.Mesh,
BatchElementIndex,
bBackFace,
typename TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType>::ElementDataType(LightMapElementData),
typename TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Parameters.Mesh, BatchElementIndex);
}
// Restore
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
if(Parameters.BlendMode == BLEND_Masked && View.Family->EngineShowFlags.ShaderComplexity)
{
// Note, this is a reversed Z depth surface, using CF_GreaterEqual.
RHICmdList.SetDepthStencilState(TStaticDepthStencilState<true,CF_GreaterEqual>::GetRHI());
}
#endif
}
void Process(
FRHICommandList& RHICmdList,
const FProcessBasePassMeshParameters& Parameters,
const LightMapPolicyType& LightMapPolicy,
const typename LightMapPolicyType::ElementDataType& LightMapElementData
) const
{
const bool bIsLitMaterial = Parameters.ShadingModel != MSM_Unlit;
const FScene* Scene = Parameters.PrimitiveSceneProxy ? Parameters.PrimitiveSceneProxy->GetPrimitiveSceneInfo()->Scene : NULL;
TBasePassDrawingPolicy<LightMapPolicyType> DrawingPolicy(
Parameters.Mesh.VertexFactory,
Parameters.Mesh.MaterialRenderProxy,
*Parameters.Material,
Parameters.FeatureLevel,
LightMapPolicy,
Parameters.BlendMode,
// Translucent meshes need scene render targets set as textures
ESceneRenderTargetsMode::SetTextures,
bIsLitMaterial && Scene && Scene->SkyLight && !Scene->SkyLight->bHasStaticLighting,
Scene && Scene->HasAtmosphericFog() && View.Family->EngineShowFlags.Atmosphere,
View.Family->EngineShowFlags.ShaderComplexity,
Parameters.bAllowFog
);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, typename TBasePassDrawingPolicy<LightMapPolicyType>::ContextDataType());
int32 BatchElementIndex = 0;
uint64 BatchElementMask = Parameters.BatchElementMask;
do
{
if(BatchElementMask & 1)
{
DrawingPolicy.SetMeshRenderState(
RHICmdList,
View,
Parameters.PrimitiveSceneProxy,
Parameters.Mesh,
BatchElementIndex,
bBackFace,
typename TBasePassDrawingPolicy<LightMapPolicyType>::ElementDataType(LightMapElementData),
typename TBasePassDrawingPolicy<LightMapPolicyType>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Parameters.Mesh,BatchElementIndex);
}
BatchElementMask >>= 1;
BatchElementIndex++;
} while(BatchElementMask);
}
bool TDistortionMeshDrawingPolicyFactory<DistortMeshPolicy>::DrawStaticMesh(
FRHICommandList& RHICmdList,
const FViewInfo* View,
ContextType bInitializeOffsets,
const FStaticMesh& StaticMesh,
uint64 BatchElementMask,
bool bBackFace,
const FPrimitiveSceneProxy* PrimitiveSceneProxy,
FHitProxyId HitProxyId
)
{
const auto FeatureLevel = View->GetFeatureLevel();
bool bDistorted = StaticMesh.MaterialRenderProxy && StaticMesh.MaterialRenderProxy->GetMaterial(FeatureLevel)->IsDistorted();
if(bDistorted && !bBackFace)
{
// draw static mesh element using distortion mesh policy
TDistortionMeshDrawingPolicy<DistortMeshPolicy> DrawingPolicy(
StaticMesh.VertexFactory,
StaticMesh.MaterialRenderProxy,
*StaticMesh.MaterialRenderProxy->GetMaterial(FeatureLevel),
bInitializeOffsets,
View->Family->EngineShowFlags.ShaderComplexity,
FeatureLevel
);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View->GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, View, typename TDistortionMeshDrawingPolicy<DistortMeshPolicy>::ContextDataType());
float DitherValue = View->GetDitheredLODTransitionValue(StaticMesh);
int32 BatchElementIndex = 0;
do
{
if(BatchElementMask & 1)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, *View,PrimitiveSceneProxy,StaticMesh,BatchElementIndex,bBackFace,DitherValue,
typename TDistortionMeshDrawingPolicy<DistortMeshPolicy>::ElementDataType(),
typename TDistortionMeshDrawingPolicy<DistortMeshPolicy>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, StaticMesh, BatchElementIndex);
}
BatchElementMask >>= 1;
BatchElementIndex++;
} while(BatchElementMask);
return true;
}
bool FVelocityDrawingPolicyFactory::DrawDynamicMesh(
FRHICommandList& RHICmdList,
const FViewInfo& View,
ContextType DrawingContext,
const FMeshBatch& Mesh,
bool bBackFace,
bool bPreFog,
const FPrimitiveSceneProxy* PrimitiveSceneProxy,
FHitProxyId HitProxyId
)
{
// Only draw opaque materials in the depth pass.
const auto FeatureLevel = View.GetFeatureLevel();
const FMaterialRenderProxy* MaterialRenderProxy = Mesh.MaterialRenderProxy;
const FMaterial* Material = MaterialRenderProxy->GetMaterial(FeatureLevel);
EBlendMode BlendMode = Material->GetBlendMode();
if(BlendMode == BLEND_Opaque || BlendMode == BLEND_Masked)
{
// This should be enforced at a higher level
//@todo - figure out why this is failing and re-enable
//check(FVelocityDrawingPolicy::HasVelocity(View, PrimitiveSceneInfo));
if (!Material->IsMasked() && !Material->IsTwoSided() && !Material->MaterialModifiesMeshPosition_RenderThread())
{
// Default material doesn't handle masked, and doesn't have the correct bIsTwoSided setting.
MaterialRenderProxy = UMaterial::GetDefaultMaterial(MD_Surface)->GetRenderProxy(false);
}
FVelocityDrawingPolicy DrawingPolicy(Mesh.VertexFactory, MaterialRenderProxy, *MaterialRenderProxy->GetMaterial(FeatureLevel), FeatureLevel);
if(DrawingPolicy.SupportsVelocity())
{
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(FeatureLevel));
DrawingPolicy.SetSharedState(RHICmdList, &View, FVelocityDrawingPolicy::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex < Mesh.Elements.Num(); ++BatchElementIndex)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View, PrimitiveSceneProxy, Mesh, BatchElementIndex, bBackFace, FMeshDrawingPolicy::ElementDataType(), FVelocityDrawingPolicy::ContextDataType());
DrawingPolicy.DrawMesh(RHICmdList, Mesh, BatchElementIndex);
}
return true;
}
}
return false;
}
bool TDistortionMeshDrawingPolicyFactory<DistortMeshPolicy>::DrawDynamicMesh(
FRHICommandList& RHICmdList,
const FSceneView& View,
ContextType bInitializeOffsets,
const FMeshBatch& Mesh,
bool bBackFace,
bool bPreFog,
const FPrimitiveSceneProxy* PrimitiveSceneProxy,
FHitProxyId HitProxyId
)
{
const auto FeatureLevel = View.GetFeatureLevel();
bool bDistorted = Mesh.MaterialRenderProxy && Mesh.MaterialRenderProxy->GetMaterial(FeatureLevel)->IsDistorted();
if(bDistorted && !bBackFace)
{
// draw dynamic mesh element using distortion mesh policy
TDistortionMeshDrawingPolicy<DistortMeshPolicy> DrawingPolicy(
Mesh.VertexFactory,
Mesh.MaterialRenderProxy,
*Mesh.MaterialRenderProxy->GetMaterial(FeatureLevel),
bInitializeOffsets,
View.Family->EngineShowFlags.ShaderComplexity,
FeatureLevel
);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, typename TDistortionMeshDrawingPolicy<DistortMeshPolicy>::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex < Mesh.Elements.Num(); BatchElementIndex++)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,typename TDistortionMeshDrawingPolicy<DistortMeshPolicy>::ElementDataType(), typename TDistortionMeshDrawingPolicy<DistortMeshPolicy>::ContextDataType());
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
return true;
}
else
{
return false;
}
}
void Process(
FRHICommandList& RHICmdList,
const FProcessBasePassMeshParameters& Parameters,
const LightMapPolicyType& LightMapPolicy,
const typename LightMapPolicyType::ElementDataType& LightMapElementData
) const
{
const bool bIsLitMaterial = Parameters.ShadingModel != MSM_Unlit;
const FScene* Scene = Parameters.PrimitiveSceneProxy ? Parameters.PrimitiveSceneProxy->GetPrimitiveSceneInfo()->Scene : NULL;
TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType> DrawingPolicy(
Parameters.Mesh.VertexFactory,
Parameters.Mesh.MaterialRenderProxy,
*Parameters.Material,
LightMapPolicy,
Parameters.BlendMode,
Parameters.TextureMode,
Parameters.ShadingModel != MSM_Unlit && Scene && Scene->ShouldRenderSkylight(),
View.Family->EngineShowFlags.ShaderComplexity,
View.GetFeatureLevel()
);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, typename TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType>::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex<Parameters.Mesh.Elements.Num(); BatchElementIndex++)
{
DrawingPolicy.SetMeshRenderState(
RHICmdList,
View,
Parameters.PrimitiveSceneProxy,
Parameters.Mesh,
BatchElementIndex,
bBackFace,
typename TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType>::ElementDataType(LightMapElementData),
typename TBasePassForForwardShadingDrawingPolicy<LightMapPolicyType>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Parameters.Mesh, BatchElementIndex);
}
}
bool FLightMapDensityDrawingPolicyFactory::DrawDynamicMesh(
FRHICommandList& RHICmdList,
const FViewInfo& View,
ContextType DrawingContext,
const FMeshBatch& Mesh,
bool bBackFace,
bool bPreFog,
const FPrimitiveSceneProxy* PrimitiveSceneProxy,
FHitProxyId HitProxyId
)
{
bool bDirty = false;
const auto FeatureLevel = View.GetFeatureLevel();
const FMaterialRenderProxy* MaterialRenderProxy = Mesh.MaterialRenderProxy;
const FMaterial* Material = MaterialRenderProxy->GetMaterial(FeatureLevel);
const EBlendMode BlendMode = Material->GetBlendMode();
const FMeshDrawingRenderState DrawRenderState(Mesh.DitheredLODTransitionAlpha);
const bool bMaterialMasked = Material->IsMasked();
const bool bMaterialModifiesMesh = Material->MaterialModifiesMeshPosition_RenderThread();
if (!bMaterialMasked && !bMaterialModifiesMesh)
{
// Override with the default material for opaque materials that are not two sided
MaterialRenderProxy = GEngine->LevelColorationLitMaterial->GetRenderProxy(false);
}
bool bIsLitMaterial = (Material->GetShadingModel() != MSM_Unlit);
/*const */FLightMapInteraction LightMapInteraction = (Mesh.LCI && bIsLitMaterial) ? Mesh.LCI->GetLightMapInteraction(FeatureLevel) : FLightMapInteraction();
// force simple lightmaps based on system settings
bool bAllowHighQualityLightMaps = AllowHighQualityLightmaps(FeatureLevel) && LightMapInteraction.AllowsHighQualityLightmaps();
if (bIsLitMaterial && PrimitiveSceneProxy && (LightMapInteraction.GetType() == LMIT_Texture))
{
// Should this object be texture lightmapped? Ie, is lighting not built for it??
bool bUseDummyLightMapPolicy = Mesh.LCI == NULL || Mesh.LCI->GetLightMapInteraction(FeatureLevel).GetType() != LMIT_Texture;
if (!bUseDummyLightMapPolicy)
{
if (bAllowHighQualityLightMaps)
{
TLightMapDensityDrawingPolicy< TUniformLightMapPolicy<LMP_HQ_LIGHTMAP> > DrawingPolicy(View, Mesh.VertexFactory, MaterialRenderProxy, TUniformLightMapPolicy<LMP_HQ_LIGHTMAP>(), BlendMode);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(FeatureLevel));
DrawingPolicy.SetSharedState(RHICmdList, &View, TLightMapDensityDrawingPolicy< FUniformLightMapPolicy >::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex < Mesh.Elements.Num(); BatchElementIndex++)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,DrawRenderState,
Mesh.LCI,
TLightMapDensityDrawingPolicy<FUniformLightMapPolicy>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
bDirty = true;
}
else
{
TLightMapDensityDrawingPolicy< TUniformLightMapPolicy<LMP_LQ_LIGHTMAP> > DrawingPolicy(View, Mesh.VertexFactory, MaterialRenderProxy, TUniformLightMapPolicy<LMP_LQ_LIGHTMAP>(), BlendMode);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(FeatureLevel));
DrawingPolicy.SetSharedState(RHICmdList, &View, TLightMapDensityDrawingPolicy< FUniformLightMapPolicy >::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex < Mesh.Elements.Num(); BatchElementIndex++)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,DrawRenderState,
Mesh.LCI,
TLightMapDensityDrawingPolicy<FUniformLightMapPolicy>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
bDirty = true;
}
}
else
{
TLightMapDensityDrawingPolicy<TUniformLightMapPolicy<LMP_DUMMY> > DrawingPolicy(View, Mesh.VertexFactory, MaterialRenderProxy, TUniformLightMapPolicy<LMP_DUMMY>(), BlendMode);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(FeatureLevel));
DrawingPolicy.SetSharedState(RHICmdList, &View, TLightMapDensityDrawingPolicy<FUniformLightMapPolicy >::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex < Mesh.Elements.Num(); BatchElementIndex++)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,DrawRenderState,
Mesh.LCI,
TLightMapDensityDrawingPolicy<FUniformLightMapPolicy>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
bDirty = true;
}
}
else
{
TLightMapDensityDrawingPolicy<TUniformLightMapPolicy<LMP_NO_LIGHTMAP> > DrawingPolicy(View, Mesh.VertexFactory, MaterialRenderProxy, TUniformLightMapPolicy<LMP_NO_LIGHTMAP>(), BlendMode);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(FeatureLevel));
DrawingPolicy.SetSharedState(RHICmdList, &View, TLightMapDensityDrawingPolicy<TUniformLightMapPolicy<LMP_NO_LIGHTMAP> >::ContextDataType());
for (int32 BatchElementIndex = 0; BatchElementIndex < Mesh.Elements.Num(); BatchElementIndex++)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,DrawRenderState,
Mesh.LCI,
TLightMapDensityDrawingPolicy<FUniformLightMapPolicy>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
bDirty = true;
}
return bDirty;
}
bool FDepthDrawingPolicyFactory::DrawMesh(
FRHICommandList& RHICmdList,
const FViewInfo& View,
ContextType DrawingContext,
const FMeshBatch& Mesh,
const uint64& BatchElementMask,
bool bBackFace,
bool bPreFog,
const FPrimitiveSceneProxy* PrimitiveSceneProxy,
FHitProxyId HitProxyId
)
{
bool bDirty = false;
//Do a per-FMeshBatch check on top of the proxy check in RenderPrePass to handle the case where a proxy that is relevant
//to the depth only pass has to submit multiple FMeshElements but only some of them should be used as occluders.
if (Mesh.bUseAsOccluder || DrawingContext.DepthDrawingMode == DDM_AllOpaque)
{
const FMaterialRenderProxy* MaterialRenderProxy = Mesh.MaterialRenderProxy;
const FMaterial* Material = MaterialRenderProxy->GetMaterial(View.GetFeatureLevel());
const EBlendMode BlendMode = Material->GetBlendMode();
// Check to see if the primitive is currently fading in or out using the screen door effect. If it is,
// then we can't assume the object is opaque as it may be forcibly masked.
const FSceneViewState* SceneViewState = static_cast<const FSceneViewState*>( View.State );
if ( BlendMode == BLEND_Opaque
&& Mesh.VertexFactory->SupportsPositionOnlyStream()
&& !Material->MaterialModifiesMeshPosition_RenderThread())
{
//render opaque primitives that support a separate position-only vertex buffer
const FMaterialRenderProxy* DefaultProxy = UMaterial::GetDefaultMaterial(MD_Surface)->GetRenderProxy(false);
FPositionOnlyDepthDrawingPolicy DrawingPolicy(Mesh.VertexFactory, DefaultProxy, *DefaultProxy->GetMaterial(View.GetFeatureLevel()), Material->IsTwoSided(), Material->IsWireframe());
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, FDepthDrawingPolicy::ContextDataType());
int32 BatchElementIndex = 0;
uint64 Mask = BatchElementMask;
do
{
if(Mask & 1)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,FPositionOnlyDepthDrawingPolicy::ElementDataType(),FDepthDrawingPolicy::ContextDataType());
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
Mask >>= 1;
BatchElementIndex++;
} while(Mask);
bDirty = true;
}
else if (!IsTranslucentBlendMode(BlendMode))
{
const bool bMaterialMasked = Material->IsMasked();
bool bDraw = true;
switch(DrawingContext.DepthDrawingMode)
{
case DDM_AllOpaque:
break;
case DDM_AllOccluders:
break;
case DDM_NonMaskedOnly:
bDraw = !bMaterialMasked;
break;
default:
check(!"Unrecognized DepthDrawingMode");
}
if(bDraw)
{
if (!bMaterialMasked && !Material->MaterialModifiesMeshPosition_RenderThread())
{
// Override with the default material for opaque materials that are not two sided
MaterialRenderProxy = UMaterial::GetDefaultMaterial(MD_Surface)->GetRenderProxy(false);
}
FDepthDrawingPolicy DrawingPolicy(Mesh.VertexFactory, MaterialRenderProxy, *MaterialRenderProxy->GetMaterial(View.GetFeatureLevel()), Material->IsTwoSided(), View.GetFeatureLevel());
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, FDepthDrawingPolicy::ContextDataType());
int32 BatchElementIndex = 0;
uint64 Mask = BatchElementMask;
do
{
if(Mask & 1)
{
DrawingPolicy.SetMeshRenderState(RHICmdList, View,PrimitiveSceneProxy,Mesh,BatchElementIndex,bBackFace,FMeshDrawingPolicy::ElementDataType(),FDepthDrawingPolicy::ContextDataType());
DrawingPolicy.DrawMesh(RHICmdList, Mesh,BatchElementIndex);
}
Mask >>= 1;
BatchElementIndex++;
} while(Mask);
bDirty = true;
}
}
}
void Process(
FRHICommandList& RHICmdList,
const FProcessBasePassMeshParameters& Parameters,
const LightMapPolicyType& LightMapPolicy,
const typename LightMapPolicyType::ElementDataType& LightMapElementData
) const
{
const bool bIsLitMaterial = Parameters.ShadingModel != MSM_Unlit;
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
// When rendering masked materials in the shader complexity viewmode,
// We want to overwrite complexity for the pixels which get depths written,
// And accumulate complexity for pixels which get killed due to the opacity mask being below the clip value.
// This is accomplished by forcing the masked materials to render depths in the depth only pass,
// Then rendering in the base pass with additive complexity blending, depth tests on, and depth writes off.
if(View.Family->EngineShowFlags.ShaderComplexity)
{
RHICmdList.SetDepthStencilState(TStaticDepthStencilState<false,CF_DepthNearOrEqual>::GetRHI());
}
const FSceneRenderTargets& SceneContext = FSceneRenderTargets::Get(RHICmdList);
#endif
const FScene* Scene = Parameters.PrimitiveSceneProxy ? Parameters.PrimitiveSceneProxy->GetPrimitiveSceneInfo()->Scene : NULL;
TBasePassDrawingPolicy<LightMapPolicyType> DrawingPolicy(
Parameters.Mesh.VertexFactory,
Parameters.Mesh.MaterialRenderProxy,
*Parameters.Material,
Parameters.FeatureLevel,
LightMapPolicy,
Parameters.BlendMode,
Parameters.TextureMode,
Scene && Scene->SkyLight && !Scene->SkyLight->bHasStaticLighting && Scene->SkyLight->bWantsStaticShadowing && bIsLitMaterial,
IsTranslucentBlendMode(Parameters.BlendMode) && (Scene && Scene->HasAtmosphericFog()) && View.Family->EngineShowFlags.AtmosphericFog,
View.Family->EngineShowFlags.ShaderComplexity,
false,
Parameters.bEditorCompositeDepthTest,
/* bInEnableReceiveDecalOutput = */ Scene != nullptr,
View.Family->GetQuadOverdrawMode()
);
RHICmdList.BuildAndSetLocalBoundShaderState(DrawingPolicy.GetBoundShaderStateInput(View.GetFeatureLevel()));
DrawingPolicy.SetSharedState(RHICmdList, &View, typename TBasePassDrawingPolicy<LightMapPolicyType>::ContextDataType(Parameters.bIsInstancedStereo, false));
const FMeshDrawingRenderState DrawRenderState(DitheredLODTransitionAlpha);
for( int32 BatchElementIndex = 0, Num = Parameters.Mesh.Elements.Num(); BatchElementIndex < Num; BatchElementIndex++ )
{
// We draw instanced static meshes twice when rendering with instanced stereo. Once for each eye.
const bool bIsInstancedMesh = Parameters.Mesh.Elements[BatchElementIndex].bIsInstancedMesh;
const uint32 InstancedStereoDrawCount = (Parameters.bIsInstancedStereo && bIsInstancedMesh) ? 2 : 1;
for (uint32 DrawCountIter = 0; DrawCountIter < InstancedStereoDrawCount; ++DrawCountIter)
{
DrawingPolicy.SetInstancedEyeIndex(RHICmdList, DrawCountIter);
TDrawEvent<FRHICommandList> MeshEvent;
BeginMeshDrawEvent(RHICmdList, Parameters.PrimitiveSceneProxy, Parameters.Mesh, MeshEvent);
DrawingPolicy.SetMeshRenderState(
RHICmdList,
View,
Parameters.PrimitiveSceneProxy,
Parameters.Mesh,
BatchElementIndex,
bBackFace,
DrawRenderState,
typename TBasePassDrawingPolicy<LightMapPolicyType>::ElementDataType(LightMapElementData),
typename TBasePassDrawingPolicy<LightMapPolicyType>::ContextDataType()
);
DrawingPolicy.DrawMesh(RHICmdList, Parameters.Mesh, BatchElementIndex, Parameters.bIsInstancedStereo);
}
}
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
if(View.Family->EngineShowFlags.ShaderComplexity)
{
RHICmdList.SetDepthStencilState(TStaticDepthStencilState<true,CF_DepthNearOrEqual>::GetRHI());
}
#endif
}