virtual void GetDynamicMeshElements(const TArray<const FSceneView*>& Views, const FSceneViewFamily& ViewFamily, uint32 VisibilityMap, FMeshElementCollector& Collector) const override
{
QUICK_SCOPE_CYCLE_COUNTER( STAT_LineBatcherSceneProxy_GetDynamicMeshElements );
for (int32 ViewIndex = 0; ViewIndex < Views.Num(); ViewIndex++)
{
if (VisibilityMap & (1 << ViewIndex))
{
const FSceneView* View = Views[ViewIndex];
FPrimitiveDrawInterface* PDI = Collector.GetPDI(ViewIndex);
for (int32 i = 0; i < Lines.Num(); i++)
{
PDI->DrawLine(Lines[i].Start, Lines[i].End, Lines[i].Color, Lines[i].DepthPriority, Lines[i].Thickness);
}
for (int32 i = 0; i < Points.Num(); i++)
{
PDI->DrawPoint(Points[i].Position, Points[i].Color, Points[i].PointSize, Points[i].DepthPriority);
}
for (int32 i = 0; i < Meshes.Num(); i++)
{
static FVector const PosX(1.f,0,0);
static FVector const PosY(0,1.f,0);
static FVector const PosZ(0,0,1.f);
FBatchedMesh const& M = Meshes[i];
// this seems far from optimal in terms of perf, but it's for debugging
FDynamicMeshBuilder MeshBuilder;
// set up geometry
for (int32 VertIdx=0; VertIdx < M.MeshVerts.Num(); ++VertIdx)
{
MeshBuilder.AddVertex( M.MeshVerts[VertIdx], FVector2D::ZeroVector, PosX, PosY, PosZ, FColor::White );
}
//MeshBuilder.AddTriangles(M.MeshIndices);
for (int32 Idx=0; Idx < M.MeshIndices.Num(); Idx+=3)
{
MeshBuilder.AddTriangle( M.MeshIndices[Idx], M.MeshIndices[Idx+1], M.MeshIndices[Idx+2] );
}
FMaterialRenderProxy* const MaterialRenderProxy = new(FMemStack::Get()) FColoredMaterialRenderProxy(GEngine->DebugMeshMaterial->GetRenderProxy(false), M.Color);
MeshBuilder.GetMesh(FMatrix::Identity, MaterialRenderProxy, M.DepthPriority, false, false, ViewIndex, Collector);
}
}
}
}
void UGameplayTagReponseTable::TagResponseEvent(const FGameplayTag Tag, int32 NewCount, UAbilitySystemComponent* ASC, int32 idx)
{
if (!ensure(Entries.IsValidIndex(idx)))
{
return;
}
const FGameplayTagResponseTableEntry& Entry = Entries[idx];
int32 TotalCount = 0;
{
QUICK_SCOPE_CYCLE_COUNTER(ABILITY_TRT_CALC_COUNT);
TotalCount += ASC->GetAggregatedStackCount(MakeQuery(Entry.Positive.Tag));
TotalCount -= ASC->GetAggregatedStackCount(MakeQuery(Entry.Negative.Tag));
}
FGameplayTagResponseAppliedInfo& Info = RegisteredASCs.FindChecked(ASC);
if (TotalCount < 0)
{
Remove(ASC, Info.PositiveHandle);
AddOrUpdate(ASC, Entry.Negative.ResponseGameplayEffect, TotalCount, Info.NegativeHandle);
}
else if (TotalCount > 0)
{
Remove(ASC, Info.NegativeHandle);
AddOrUpdate(ASC, Entry.Positive.ResponseGameplayEffect, TotalCount, Info.PositiveHandle);
}
else if (TotalCount == 0)
{
Remove(ASC, Info.PositiveHandle);
Remove(ASC, Info.NegativeHandle);
}
}
void FPhysScene::WaitPhysScenes()
{
FGraphEventArray ThingsToComplete;
if (PhysicsSceneCompletion.GetReference())
{
ThingsToComplete.Add(PhysicsSceneCompletion);
}
// Loop through scene types to get all scenes
// we just wait on everything, though some of these are redundant
for (uint32 SceneType = 0; SceneType < NumPhysScenes; ++SceneType)
{
if (PhysicsSubsceneCompletion[SceneType].GetReference())
{
ThingsToComplete.Add(PhysicsSubsceneCompletion[SceneType]);
}
if (FrameLaggedPhysicsSubsceneCompletion[SceneType].GetReference())
{
ThingsToComplete.Add(FrameLaggedPhysicsSubsceneCompletion[SceneType]);
}
}
if (ThingsToComplete.Num())
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FPhysScene_WaitPhysScenes);
FTaskGraphInterface::Get().WaitUntilTasksComplete(ThingsToComplete, ENamedThreads::GameThread);
}
}
void UPaperGroupedSpriteComponent::CreateAllInstanceBodies()
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_UPaperGroupedSpriteComponent_CreateAllInstanceBodies);
FPhysScene* PhysScene = GetWorld()->GetPhysicsScene();
const int32 NumBodies = PerInstanceSpriteData.Num();
check(InstanceBodies.Num() == 0);
InstanceBodies.SetNumUninitialized(NumBodies);
TArray<FTransform> Transforms;
Transforms.Reserve(NumBodies);
TArray<TWeakObjectPtr<UBodySetup>> BodySetups;
BodySetups.Reserve(NumBodies);
for (int32 InstanceIndex = 0; InstanceIndex < NumBodies; ++InstanceIndex)
{
const FSpriteInstanceData& InstanceData = PerInstanceSpriteData[InstanceIndex];
FBodyInstance* InstanceBody = InitInstanceBody(InstanceIndex, InstanceData, PhysScene);
InstanceBodies[InstanceIndex] = InstanceBody;
BodySetups.Add((InstanceBody != nullptr) ? InstanceBody->BodySetup : TWeakObjectPtr<UBodySetup>());
}
if (SceneProxy != nullptr)
{
ENQUEUE_UNIQUE_RENDER_COMMAND_TWOPARAMETER(
FSendPaperGroupBodySetups,
FGroupedSpriteSceneProxy*, InSceneProxy, (FGroupedSpriteSceneProxy*)SceneProxy,
TArray<TWeakObjectPtr<UBodySetup>>, InBodySetups, BodySetups,
{
InSceneProxy->SetAllBodySetups_RenderThread(InBodySetups);
});
PxCollection* MakePhysXCollection(const TArray<UPhysicalMaterial*>& PhysicalMaterials, const TArray<UBodySetup*>& BodySetups, uint64 BaseId)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_CreateSharedData);
PxCollection* PCollection = PxCreateCollection();
for (UPhysicalMaterial* PhysicalMaterial : PhysicalMaterials)
{
if (PhysicalMaterial)
{
PCollection->add(*PhysicalMaterial->GetPhysXMaterial());
}
}
for (UBodySetup* BodySetup : BodySetups)
{
for(PxTriangleMesh* TriMesh : BodySetup->TriMeshes)
{
AddToCollection(PCollection, TriMesh);
}
for (const FKConvexElem& ConvexElem : BodySetup->AggGeom.ConvexElems)
{
AddToCollection(PCollection, ConvexElem.ConvexMesh);
AddToCollection(PCollection, ConvexElem.ConvexMeshNegX);
}
}
PxSerialization::createSerialObjectIds(*PCollection, PxSerialObjectId(BaseId));
return PCollection;
}
void FStartAsyncSimulationFunction::ExecuteTick(float DeltaTime, enum ELevelTick TickType, ENamedThreads::Type CurrentThread, const FGraphEventRef& MyCompletionGraphEvent)
{
QUICK_SCOPE_CYCLE_COUNTER(FStartAsyncSimulationFunction_ExecuteTick);
check(Target);
Target->StartAsyncSim();
}
void UPhysicsSerializer::Serialize( FArchive& Ar )
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_Serialize);
Super::Serialize(Ar);
if (Ar.UE4Ver() >= VER_UE4_BODYINSTANCE_BINARY_SERIALIZATION)
{
bool bCooked = Ar.IsCooking();
Ar << bCooked;
if (bCooked)
{
if (Ar.IsCooking())
{
TArray<FName> ActualFormatsToSave;
ActualFormatsToSave.Add(FPlatformProperties::GetPhysicsFormat());
BinaryFormatData.Serialize(Ar, this, &ActualFormatsToSave);
}
else
{
#if WITH_PHYSX
const uint32 Alignment = PHYSX_SERIALIZATION_ALIGNMENT;
#else
const uint32 Alignment = DEFAULT_ALIGNMENT;
#endif
BinaryFormatData.Serialize(Ar, this, nullptr, false, Alignment);
}
}
}
}
/**
* Retrieves the dynamic data for the emitter
*
* @param bSelected Whether the emitter is selected in the editor
*
* @return FDynamicEmitterDataBase* The dynamic data, or NULL if it shouldn't be rendered
*/
FDynamicEmitterDataBase* FParticleBeam2EmitterInstance::GetDynamicData(bool bSelected)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_ParticleBeam2EmitterInstance_GetDynamicData);
UParticleLODLevel* LODLevel = SpriteTemplate->GetCurrentLODLevel(this);
if (IsDynamicDataRequired(LODLevel) == false)
{
return NULL;
}
//@todo.SAS. Have this call the UpdateDynamicData function to reduce duplicate code!!!
//@SAS. This removes the need for the assertion in the actual render call...
if ((ActiveParticles > FDynamicBeam2EmitterData::MaxBeams) || // TTP #33330 - Max of 2048 beams from a single emitter
(ParticleStride >
((FDynamicBeam2EmitterData::MaxInterpolationPoints + 2) * (sizeof(FVector) + sizeof(float))) +
(FDynamicBeam2EmitterData::MaxNoiseFrequency * (sizeof(FVector) + sizeof(FVector) + sizeof(float) + sizeof(float)))
) // TTP #33330 - Max of 10k per beam (includes interpolation points, noise, etc.)
)
{
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
if (Component && Component->GetWorld())
{
FString ErrorMessage =
FString::Printf(TEXT("BeamEmitter with too much data: %s"),
Component ?
Component->Template ?
*(Component->Template->GetName()) :
TEXT("No template") :
TEXT("No component"));
FColor ErrorColor(255,0,0);
GEngine->AddOnScreenDebugMessage((uint64)((PTRINT)this), 5.0f, ErrorColor,ErrorMessage);
UE_LOG(LogParticles, Log, TEXT("%s"), *ErrorMessage);
}
#endif //#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
return NULL;
}
// Allocate the dynamic data
FDynamicBeam2EmitterData* NewEmitterData = ::new FDynamicBeam2EmitterData(LODLevel->RequiredModule);
{
SCOPE_CYCLE_COUNTER(STAT_ParticleMemTime);
INC_DWORD_STAT(STAT_DynamicEmitterCount);
INC_DWORD_STAT(STAT_DynamicBeamCount);
INC_DWORD_STAT_BY(STAT_DynamicEmitterMem, sizeof(FDynamicBeam2EmitterData));
}
// Now fill in the source data
if( !FillReplayData( NewEmitterData->Source ) )
{
delete NewEmitterData;
return NULL;
}
// Setup dynamic render data. Only call this AFTER filling in source data for the emitter.
NewEmitterData->Init( bSelected );
return NewEmitterData;
}
FMeshBatchAndRelevance::FMeshBatchAndRelevance(const FMeshBatch& InMesh, const FPrimitiveSceneProxy* InPrimitiveSceneProxy, ERHIFeatureLevel::Type FeatureLevel) :
Mesh(&InMesh),
PrimitiveSceneProxy(InPrimitiveSceneProxy)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FMeshBatchAndRelevance);
EBlendMode BlendMode = InMesh.MaterialRenderProxy->GetMaterial(FeatureLevel)->GetBlendMode();
bHasOpaqueOrMaskedMaterial = !IsTranslucentBlendMode(BlendMode);
bRenderInMainPass = PrimitiveSceneProxy->ShouldRenderInMainPass();
}
void FNavigationOctree::DemandLazyDataGathering(FNavigationRelevantData& ElementData)
{
UObject* ElementOb = ElementData.GetOwner();
if (ElementOb == nullptr)
{
return;
}
bool bShrink = false;
const int32 OrgElementMemory = ElementData.GetGeometryAllocatedSize();
if (ElementData.IsPendingLazyGeometryGathering() == true && ElementData.SupportsGatheringGeometrySlices() == false)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_RecastNavMeshGenerator_LazyGeometryExport);
UActorComponent& ActorComp = *CastChecked<UActorComponent>(ElementOb);
ComponentExportDelegate.ExecuteIfBound(&ActorComp, ElementData);
bShrink = true;
// mark this element as no longer needing geometry gathering
ElementData.bPendingLazyGeometryGathering = false;
}
if (ElementData.IsPendingLazyModifiersGathering())
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_RecastNavMeshGenerator_LazyModifiersExport);
INavRelevantInterface* NavElement = Cast<INavRelevantInterface>(ElementOb);
check(NavElement);
NavElement->GetNavigationData(ElementData);
ElementData.bPendingLazyModifiersGathering = false;
bShrink = true;
}
if (bShrink)
{
// shrink arrays before counting memory
// it will be reallocated when adding to octree and RemoveNode will have different value returned by GetAllocatedSize()
ElementData.Shrink();
}
const int32 ElementMemoryChange = ElementData.GetGeometryAllocatedSize() - OrgElementMemory;
const_cast<FNavigationOctree*>(this)->NodesMemory += ElementMemoryChange;
INC_MEMORY_STAT_BY(STAT_Navigation_CollisionTreeMemory, ElementMemoryChange);
}
void FSingleThreadManager::Tick()
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FSingleThreadManager_Tick);
// Tick all registered threads.
for (int32 RunnableIndex = 0; RunnableIndex < ThreadList.Num(); ++RunnableIndex)
{
ThreadList[RunnableIndex]->Tick();
}
}
/**
* Updates the dynamic data for the instance
*
* @param DynamicData The dynamic data to fill in
* @param bSelected true if the particle system component is selected
*/
bool FParticleBeam2EmitterInstance::UpdateDynamicData(FDynamicEmitterDataBase* DynamicData, bool bSelected)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_ParticleBeam2EmitterInstance_UpdateDynamicData);
if (ActiveParticles <= 0)
{
return false;
}
UParticleLODLevel* LODLevel = SpriteTemplate->GetCurrentLODLevel(this);
if ((LODLevel == NULL) || (LODLevel->bEnabled == false))
{
return false;
}
//@SAS. This removes the need for the assertion in the actual render call...
if ((ActiveParticles > FDynamicBeam2EmitterData::MaxBeams) || // TTP #33330 - Max of 2048 beams from a single emitter
(ParticleStride >
((FDynamicBeam2EmitterData::MaxInterpolationPoints + 2) * (sizeof(FVector) + sizeof(float))) +
(FDynamicBeam2EmitterData::MaxNoiseFrequency * (sizeof(FVector) + sizeof(FVector) + sizeof(float) + sizeof(float)))
) // TTP #33330 - Max of 10k per beam (includes interpolation points, noise, etc.)
)
{
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
if (Component && Component->GetWorld())
{
FString ErrorMessage =
FString::Printf(TEXT("BeamEmitter with too much data: %s"),
Component ?
Component->Template ?
*(Component->Template->GetName()) :
TEXT("No template") :
TEXT("No component"));
FColor ErrorColor(255,0,0);
GEngine->AddOnScreenDebugMessage((uint64)((PTRINT)this), 5.0f, ErrorColor,ErrorMessage);
UE_LOG(LogParticles, Log, TEXT("%s"), *ErrorMessage);
}
#endif //#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
return false;
}
checkf((DynamicData->GetSource().eEmitterType == DET_Beam2), TEXT("Beam2::UpdateDynamicData> Invalid DynamicData type!"));
// Now fill in the source data
FDynamicBeam2EmitterData* BeamDynamicData = (FDynamicBeam2EmitterData*)DynamicData;
if( !FillReplayData( BeamDynamicData->Source ) )
{
return false;
}
// Setup dynamic render data. Only call this AFTER filling in source data for the emitter.
BeamDynamicData->Init( bSelected );
return true;
}
void UWorld::WaitForAllAsyncTraceTasks()
{
#if RUN_ASYNC_TRACE
// if running thread, wait until all threads finishes, if we don't do this, there might be more thread running
AsyncTraceData& DataBufferExecuted = AsyncTraceState.GetBufferForPreviousFrame();
if (DataBufferExecuted.AsyncTraceCompletionEvent.Num() > 0)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_WaitForAllAsyncTraceTasks);
FTaskGraphInterface::Get().WaitUntilTasksComplete(DataBufferExecuted.AsyncTraceCompletionEvent,ENamedThreads::GameThread);
DataBufferExecuted.AsyncTraceCompletionEvent.Reset();
}
#endif // RUN_ASYNC_TRACE
}
void FPrimitiveSceneInfo::UpdateStaticMeshes(FRHICommandListImmediate& RHICmdList)
{
checkSlow(bNeedsStaticMeshUpdate);
bNeedsStaticMeshUpdate = false;
QUICK_SCOPE_CYCLE_COUNTER(STAT_FPrimitiveSceneInfo_UpdateStaticMeshes);
// Remove the primitive's static meshes from the draw lists they're currently in, and re-add them to the appropriate draw lists.
for (int32 MeshIndex = 0; MeshIndex < StaticMeshes.Num(); MeshIndex++)
{
StaticMeshes[MeshIndex].RemoveFromDrawLists();
StaticMeshes[MeshIndex].AddToDrawLists(RHICmdList, Scene);
}
}
void FPhysScene::WaitClothScene()
{
FGraphEventArray ThingsToComplete;
if (PhysicsSubsceneCompletion[PST_Cloth].GetReference())
{
ThingsToComplete.Add(PhysicsSubsceneCompletion[PST_Cloth]);
}
if (ThingsToComplete.Num())
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FPhysScene_WaitClothScene);
FTaskGraphInterface::Get().WaitUntilTasksComplete(ThingsToComplete, ENamedThreads::GameThread);
}
}
void FThreadManager::Tick()
{
if (!FPlatformProcess::SupportsMultithreading())
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FSingleThreadManager_Tick);
FScopeLock ThreadsLock(&ThreadsCritical);
// Tick all registered threads.
for (TPair<uint32, FRunnableThread*>& ThreadPair : Threads)
{
ThreadPair.Value->Tick();
}
}
}
/**
* Draw the scene proxy as a dynamic element
*
* @param PDI - draw interface to render to
* @param View - current view
*/
virtual void DrawDynamicElements(FPrimitiveDrawInterface* PDI,const FSceneView* View)
{
QUICK_SCOPE_CYCLE_COUNTER( STAT_ArrowSceneProxy_DrawDynamicElements );
FMatrix EffectiveLocalToWorld;
#if WITH_EDITOR
if (bLightAttachment)
{
EffectiveLocalToWorld = GetLocalToWorld().GetMatrixWithoutScale();
}
else
#endif //WITH_EDITOR
{
EffectiveLocalToWorld = GetLocalToWorld();
}
DrawDirectionalArrow(PDI,EffectiveLocalToWorld,ArrowColor,ArrowSize * 3.0f * ARROW_SCALE,ARROW_SCALE,GetDepthPriorityGroup(View));
}
bool FAnalyticsProviderET::Tick(float DeltaSeconds)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FAnalyticsProviderET_Tick);
if (CachedEvents.Num() > 0)
{
// Countdown to flush
FlushEventsCountdown -= DeltaSeconds;
// If reached countdown or already at max cached events then flush
if (FlushEventsCountdown <= 0 ||
CachedEvents.Num() >= MaxCachedNumEvents)
{
FlushEvents();
}
}
return true;
}
FVector2D SGameLayerManager::GetAspectRatioInset(ULocalPlayer* LocalPlayer) const
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_SGameLayerManager_GetAspectRatioInset);
FVector2D Offset(0.f, 0.f);
if (LocalPlayer)
{
FSceneViewInitOptions ViewInitOptions;
if (LocalPlayer->CalcSceneViewInitOptions(ViewInitOptions, LocalPlayer->ViewportClient->Viewport))
{
FIntRect UnscaledViewRect = ViewInitOptions.GetConstrainedViewRect();
Offset.X = -UnscaledViewRect.Min.X;
Offset.Y = -UnscaledViewRect.Min.Y;
}
}
return Offset;
}
FByteBulkData* UPhysicsSerializer::GetBinaryData(FName Format, const TArray<FBodyInstance*>& Bodies, const TArray<class UBodySetup*>& BodySetups, const TArray<class UPhysicalMaterial*>& PhysicalMaterials)
{
if (!FParse::Param(FCommandLine::Get(), TEXT("PhysxSerialization")))
{
return nullptr;
}
#if PLATFORM_MAC
return nullptr; //This is not supported right now
#endif
QUICK_SCOPE_CYCLE_COUNTER(STAT_GetBinaryData);
const bool bContainedData = BinaryFormatData.Contains(Format);
FByteBulkData* Result = &BinaryFormatData.GetFormat(Format);
if (!FParse::Param(FCommandLine::Get(), TEXT("NoPhysxAlignment")))
{
Result->SetBulkDataAlignment(PHYSX_SERIALIZATION_ALIGNMENT);
}
if (!bContainedData)
{
#if WITH_EDITOR
#if WITH_PHYSX
TArray<uint8> OutData;
FDerivedDataPhysXBinarySerializer* DerivedPhysXSerializer = new FDerivedDataPhysXBinarySerializer(Format, Bodies, BodySetups, PhysicalMaterials, FGuid::NewGuid()); //TODO: Maybe it's worth adding this to the DDC. For now there's a lot of complexity with the guid invalidation so I've left it out.
if (DerivedPhysXSerializer->CanBuild())
{
DerivedPhysXSerializer->Build(OutData);
#endif
if (OutData.Num())
{
Result->Lock(LOCK_READ_WRITE);
FMemory::Memcpy(Result->Realloc(OutData.Num()), OutData.GetData(), OutData.Num());
Result->Unlock();
}
}
else
#endif
{
UE_LOG(LogPhysics, Warning, TEXT("Attempt to use binary physics data but we are unable to."));
}
}
return Result->GetBulkDataSize() > 0 ? Result : nullptr;
}
virtual void GetDynamicMeshElements(const TArray<const FSceneView*>& Views, const FSceneViewFamily& ViewFamily, uint32 VisibilityMap, FMeshElementCollector& Collector) const override
{
QUICK_SCOPE_CYCLE_COUNTER( STAT_BoxSceneProxy_GetDynamicMeshElements );
const FMatrix& LocalToWorld = GetLocalToWorld();
for (int32 ViewIndex = 0; ViewIndex < Views.Num(); ViewIndex++)
{
if (VisibilityMap & (1 << ViewIndex))
{
const FSceneView* View = Views[ViewIndex];
const FLinearColor DrawColor = GetViewSelectionColor(BoxColor, *View, IsSelected(), IsHovered(), false, IsIndividuallySelected() );
FPrimitiveDrawInterface* PDI = Collector.GetPDI(ViewIndex);
DrawOrientedWireBox(PDI, LocalToWorld.GetOrigin(), LocalToWorld.GetScaledAxis( EAxis::X ), LocalToWorld.GetScaledAxis( EAxis::Y ), LocalToWorld.GetScaledAxis( EAxis::Z ), BoxExtents, DrawColor, SDPG_World);
}
}
}
void FMeshElementCollector::ProcessTasks()
{
check(IsInRenderingThread());
check(!ParallelTasks.Num() || bUseAsyncTasks);
if (ParallelTasks.Num())
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FMeshElementCollector_ProcessTasks);
TArray<TFunction<void()>*, SceneRenderingAllocator>& LocalParallelTasks(ParallelTasks);
ParallelFor(ParallelTasks.Num(),
[&LocalParallelTasks](int32 Index)
{
TFunction<void()>* Func = LocalParallelTasks[Index];
(*Func)();
Func->~TFunction<void()>();
}
);
ParallelTasks.Empty();
}
}
virtual void GetDynamicMeshElements(const TArray<const FSceneView*>& Views, const FSceneViewFamily& ViewFamily, uint32 VisibilityMap, FMeshElementCollector& Collector) const override
{
QUICK_SCOPE_CYCLE_COUNTER( STAT_GetDynamicMeshElements_DrawDynamicElements );
const FMatrix& LocalToWorld = GetLocalToWorld();
const int32 CapsuleSides = FMath::Clamp<int32>(CapsuleRadius/4.f, 16, 64);
for (int32 ViewIndex = 0; ViewIndex < Views.Num(); ViewIndex++)
{
if (VisibilityMap & (1 << ViewIndex))
{
const FSceneView* View = Views[ViewIndex];
const FLinearColor DrawCapsuleColor = GetViewSelectionColor(ShapeColor, *View, IsSelected(), IsHovered(), false, IsIndividuallySelected() );
FPrimitiveDrawInterface* PDI = Collector.GetPDI(ViewIndex);
DrawWireCapsule( PDI, LocalToWorld.GetOrigin(), LocalToWorld.GetScaledAxis( EAxis::X ), LocalToWorld.GetScaledAxis( EAxis::Y ), LocalToWorld.GetScaledAxis( EAxis::Z ), DrawCapsuleColor, CapsuleRadius, CapsuleHalfHeight, CapsuleSides, SDPG_World );
}
}
}
void FEndPhysicsTickFunction::ExecuteTick(float DeltaTime, enum ELevelTick TickType, ENamedThreads::Type CurrentThread, const FGraphEventRef& MyCompletionGraphEvent)
{
QUICK_SCOPE_CYCLE_COUNTER(FEndPhysicsTickFunction_ExecuteTick);
check(Target);
FPhysScene* PhysScene = Target->GetPhysicsScene();
if (PhysScene == NULL)
{
return;
}
FGraphEventRef PhysicsComplete = PhysScene->GetCompletionEvent();
if (PhysicsComplete.GetReference() && !PhysicsComplete->IsComplete())
{
// don't release the next tick group until the physics has completed and we have run FinishPhysicsSim
DECLARE_CYCLE_STAT(TEXT("FSimpleDelegateGraphTask.FinishPhysicsSim"),
STAT_FSimpleDelegateGraphTask_FinishPhysicsSim,
STATGROUP_TaskGraphTasks);
MyCompletionGraphEvent->DontCompleteUntil(
FSimpleDelegateGraphTask::CreateAndDispatchWhenReady(
FSimpleDelegateGraphTask::FDelegate::CreateUObject(Target, &UWorld::FinishPhysicsSim),
GET_STATID(STAT_FSimpleDelegateGraphTask_FinishPhysicsSim), PhysicsComplete, ENamedThreads::GameThread
)
);
}
else
{
// it was already done, so let just do it.
Target->FinishPhysicsSim();
}
#if PHYSX_MEMORY_VALIDATION
static int32 Frequency = 0;
if (Frequency++ > 10)
{
Frequency = 0;
GPhysXAllocator->ValidateHeaders();
}
#endif
}
void FTextRenderSceneProxy::GetDynamicMeshElements(const TArray<const FSceneView*>& Views, const FSceneViewFamily& ViewFamily, uint32 VisibilityMap, FMeshElementCollector& Collector) const
{
QUICK_SCOPE_CYCLE_COUNTER( STAT_TextRenderSceneProxy_GetDynamicMeshElements );
// Vertex factory will not been initialized when the text string is empty or font is invalid.
if(VertexFactory.IsInitialized())
{
for (int32 ViewIndex = 0; ViewIndex < Views.Num(); ViewIndex++)
{
if (VisibilityMap & (1 << ViewIndex))
{
const FSceneView* View = Views[ViewIndex];
// Draw the mesh.
FMeshBatch& Mesh = Collector.AllocateMesh();
FMeshBatchElement& BatchElement = Mesh.Elements[0];
BatchElement.IndexBuffer = &IndexBuffer;
Mesh.VertexFactory = &VertexFactory;
BatchElement.PrimitiveUniformBufferResource = &GetUniformBuffer();
BatchElement.FirstIndex = 0;
BatchElement.NumPrimitives = IndexBuffer.Indices.Num() / 3;
BatchElement.MinVertexIndex = 0;
BatchElement.MaxVertexIndex = VertexBuffer.Vertices.Num() - 1;
Mesh.ReverseCulling = IsLocalToWorldDeterminantNegative();
Mesh.bDisableBackfaceCulling = false;
Mesh.Type = PT_TriangleList;
Mesh.DepthPriorityGroup = SDPG_World;
const bool bUseSelectedMaterial = GIsEditor && (View->Family->EngineShowFlags.Selection) ? IsSelected() : false;
Mesh.MaterialRenderProxy = TextMaterial->GetRenderProxy(bUseSelectedMaterial);
Mesh.bCanApplyViewModeOverrides = !bAlwaysRenderAsText;
Collector.AddMesh(ViewIndex, Mesh);
#if !(UE_BUILD_SHIPPING || UE_BUILD_TEST)
RenderBounds(Collector.GetPDI(ViewIndex), View->Family->EngineShowFlags, GetBounds(), IsSelected());
#endif
}
}
}
}
void FPoseLinkBase::Update(const FAnimationUpdateContext& Context)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_FPoseLinkBase_Update);
#if DO_CHECK
checkf( !bProcessed, TEXT( "Update already in progress, circular link for AnimInstance [%s] Blueprint [%s]" ), \
*Context.AnimInstanceProxy->GetAnimInstanceName(), *GetFullNameSafe(IAnimClassInterface::GetActualAnimClass(Context.AnimInstanceProxy->GetAnimClassInterface())));
TGuardValue<bool> CircularGuard(bProcessed, true);
#endif
#if WITH_EDITOR
if (GIsEditor)
{
if (LinkedNode == NULL)
{
//@TODO: Should only do this when playing back
AttemptRelink(Context);
}
// Record the node line activation
if (LinkedNode != NULL)
{
if (Context.AnimInstanceProxy->IsBeingDebugged())
{
Context.AnimInstanceProxy->RecordNodeVisit(LinkID, SourceLinkID, Context.GetFinalBlendWeight());
}
}
}
#endif
#if ENABLE_ANIMGRAPH_TRAVERSAL_DEBUG
checkf(InitializationCounter.IsSynchronizedWith(Context.AnimInstanceProxy->GetInitializationCounter()), TEXT("Calling Update without initialization!"));
UpdateCounter.SynchronizeWith(Context.AnimInstanceProxy->GetUpdateCounter());
#endif
if (LinkedNode != NULL)
{
LinkedNode->Update(Context);
}
}
void FIndirectLightingCache::UpdateCachePrimitivesInternal(FScene* Scene, FSceneRenderer& Renderer, bool bAllowUnbuiltPreview, TMap<FIntVector, FBlockUpdateInfo>& OutBlocksToUpdate, TArray<FIndirectLightingCacheAllocation*>& OutTransitionsOverTimeToUpdate)
{
SCOPE_CYCLE_COUNTER(STAT_UpdateIndirectLightingCachePrims);
const TMap<FPrimitiveComponentId, FAttachmentGroupSceneInfo>& AttachmentGroups = Scene->AttachmentGroups;
if (IndirectLightingAllowed(Scene, Renderer))
{
if (bUpdateAllCacheEntries)
{
const uint32 PrimitiveCount = Scene->Primitives.Num();
for (uint32 PrimitiveIndex = 0; PrimitiveIndex < PrimitiveCount; ++PrimitiveIndex)
{
FPrimitiveSceneInfo* PrimitiveSceneInfo = Scene->Primitives[PrimitiveIndex];
const bool bPrecomputedLightingBufferWasDirty = PrimitiveSceneInfo->NeedsPrecomputedLightingBufferUpdate();
UpdateCachePrimitive(AttachmentGroups, PrimitiveSceneInfo, false, true, OutBlocksToUpdate, OutTransitionsOverTimeToUpdate);
// If it was already dirty, then the primitive is already in one of the view dirty primitive list at this point.
// This also ensures that a primitive does not get added twice to the list, which could create an array reallocation.
if (!bPrecomputedLightingBufferWasDirty)
{
PrimitiveSceneInfo->MarkPrecomputedLightingBufferDirty();
// Check if it is visible otherwise, it will be updated next time it is visible.
for (int32 ViewIndex = 0; ViewIndex < Renderer.Views.Num(); ViewIndex++)
{
FViewInfo& View = Renderer.Views[ViewIndex];
if (View.PrimitiveVisibilityMap[PrimitiveIndex])
{
// Since the update can be executed on a threaded job (see GILCUpdatePrimTaskEnabled), no reallocation must happen here.
checkSlow(View.DirtyPrecomputedLightingBufferPrimitives.Num() < View.DirtyPrecomputedLightingBufferPrimitives.Max());
View.DirtyPrecomputedLightingBufferPrimitives.Push(PrimitiveSceneInfo);
break; // We only need to add it in one of the view list.
}
}
}
}
}
else
{
TArray<uint32> SetBitIndices[4];
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_UpdateCachePreWalk);
for (int32 ViewIndex = 0; ViewIndex < Renderer.Views.Num(); ViewIndex++)
{
FViewInfo& View = Renderer.Views[ViewIndex];
SetBitIndices[ViewIndex].Reserve(View.PrimitiveVisibilityMap.Num());
for (FSceneSetBitIterator BitIt(View.PrimitiveVisibilityMap); BitIt; ++BitIt)
{
uint32 PrimitiveIndex = BitIt.GetIndex();
SetBitIndices[ViewIndex].Add(PrimitiveIndex);
}
// Any visible primitives with an indirect shadow need their ILC updated, since that determines the indirect shadow direction
for (int32 IndirectPrimitiveIndex = 0; IndirectPrimitiveIndex < View.IndirectShadowPrimitives.Num(); IndirectPrimitiveIndex++)
{
int32 PrimitiveIndex = View.IndirectShadowPrimitives[IndirectPrimitiveIndex]->GetIndex();
SetBitIndices[ViewIndex].AddUnique(PrimitiveIndex);
}
}
}
// Go over the views and operate on any relevant visible primitives
for (int32 ViewIndex = 0; ViewIndex < Renderer.Views.Num(); ViewIndex++)
{
FViewInfo& View = Renderer.Views[ViewIndex];
const TArray<uint32>& SetBits = SetBitIndices[ViewIndex];
for (int32 i = 0; i < SetBits.Num(); ++i)
{
uint32 PrimitiveIndex = SetBits[i];
FPrimitiveSceneInfo* PrimitiveSceneInfo = Scene->Primitives[PrimitiveIndex];
const bool bPrecomputedLightingBufferWasDirty = PrimitiveSceneInfo->NeedsPrecomputedLightingBufferUpdate();
const FPrimitiveViewRelevance& PrimitiveRelevance = View.PrimitiveViewRelevanceMap[PrimitiveIndex];
UpdateCachePrimitive(AttachmentGroups, PrimitiveSceneInfo, bAllowUnbuiltPreview, PrimitiveRelevance.bOpaqueRelevance, OutBlocksToUpdate, OutTransitionsOverTimeToUpdate);
// If it was already dirty, then the primitive is already in one of the view dirty primitive list at this point.
// This also ensures that a primitive does not get added twice to the list, which could create an array reallocation.
if (!bPrecomputedLightingBufferWasDirty && PrimitiveSceneInfo->NeedsPrecomputedLightingBufferUpdate())
{
// Since the update can be executed on a threaded job (see GILCUpdatePrimTaskEnabled), no reallocation must happen here.
checkSlow(View.DirtyPrecomputedLightingBufferPrimitives.Num() < View.DirtyPrecomputedLightingBufferPrimitives.Max());
View.DirtyPrecomputedLightingBufferPrimitives.Push(PrimitiveSceneInfo);
}
}
}
}
bUpdateAllCacheEntries = false;
}
}
/**
* Captures dynamic replay data for this particle system.
*
* @param OutData [Out] Data will be copied here
*
* @return Returns true if successful
*/
bool FParticleBeam2EmitterInstance::FillReplayData( FDynamicEmitterReplayDataBase& OutData )
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_ParticleBeam2EmitterInstance_FillReplayData);
if (ActiveParticles <= 0)
{
return false;
}
// Call parent implementation first to fill in common particle source data
if( !FParticleEmitterInstance::FillReplayData( OutData ) )
{
return false;
}
// If the template is disabled, don't return data.
UParticleLODLevel* LODLevel = SpriteTemplate->GetCurrentLODLevel(this);
if ((LODLevel == NULL) || (LODLevel->bEnabled == false))
{
return false;
}
OutData.eEmitterType = DET_Beam2;
FDynamicBeam2EmitterReplayData* NewReplayData =
static_cast< FDynamicBeam2EmitterReplayData* >( &OutData );
NewReplayData->MaterialInterface = GetCurrentMaterial();
// We never want local space for beams
NewReplayData->bUseLocalSpace = false;
// Never use axis lock for beams
NewReplayData->bLockAxis = false;
DetermineVertexAndTriangleCount();
NewReplayData->UpVectorStepSize = BeamTypeData->UpVectorStepSize;
NewReplayData->TrianglesPerSheet.Empty(BeamTrianglesPerSheet.Num());
NewReplayData->TrianglesPerSheet.AddZeroed(BeamTrianglesPerSheet.Num());
for (int32 BeamIndex = 0; BeamIndex < BeamTrianglesPerSheet.Num(); BeamIndex++)
{
NewReplayData->TrianglesPerSheet[BeamIndex] = BeamTrianglesPerSheet[BeamIndex];
}
int32 IgnoredTaperCount = 0;
BeamTypeData->GetDataPointerOffsets(this, NULL, TypeDataOffset,
NewReplayData->BeamDataOffset, NewReplayData->InterpolatedPointsOffset,
NewReplayData->NoiseRateOffset, NewReplayData->NoiseDeltaTimeOffset,
NewReplayData->TargetNoisePointsOffset, NewReplayData->NextNoisePointsOffset,
IgnoredTaperCount, NewReplayData->TaperValuesOffset,
NewReplayData->NoiseDistanceScaleOffset);
NewReplayData->VertexCount = VertexCount;
if (BeamModule_Source)
{
NewReplayData->bUseSource = true;
}
else
{
NewReplayData->bUseSource = false;
}
if (BeamModule_Target)
{
NewReplayData->bUseTarget = true;
}
else
{
NewReplayData->bUseTarget = false;
}
if (BeamModule_Noise)
{
NewReplayData->bLowFreqNoise_Enabled = BeamModule_Noise->bLowFreq_Enabled;
NewReplayData->bHighFreqNoise_Enabled = false;
NewReplayData->bSmoothNoise_Enabled = BeamModule_Noise->bSmooth;
}
else
{
NewReplayData->bLowFreqNoise_Enabled = false;
NewReplayData->bHighFreqNoise_Enabled = false;
NewReplayData->bSmoothNoise_Enabled = false;
}
NewReplayData->Sheets = (BeamTypeData->Sheets > 0) ? BeamTypeData->Sheets : 1;
NewReplayData->Sheets = FMath::Max(NewReplayData->Sheets, 1);
NewReplayData->TextureTile = BeamTypeData->TextureTile;
NewReplayData->TextureTileDistance = BeamTypeData->TextureTileDistance;
NewReplayData->TaperMethod = BeamTypeData->TaperMethod;
NewReplayData->InterpolationPoints = BeamTypeData->InterpolationPoints;
NewReplayData->NoiseTessellation = 0;
NewReplayData->Frequency = 1;
NewReplayData->NoiseRangeScale = 1.0f;
NewReplayData->NoiseTangentStrength= 1.0f;
int32 TessFactor = 1;
if ((BeamModule_Noise == NULL) || (BeamModule_Noise->bLowFreq_Enabled == false))
{
TessFactor = BeamTypeData->InterpolationPoints ? BeamTypeData->InterpolationPoints : 1;
}
else
{
NewReplayData->Frequency = (BeamModule_Noise->Frequency > 0) ? BeamModule_Noise->Frequency : 1;
NewReplayData->Frequency = FMath::Max(NewReplayData->Frequency, 1);
NewReplayData->NoiseTessellation = (BeamModule_Noise->NoiseTessellation > 0) ? BeamModule_Noise->NoiseTessellation : 1;
NewReplayData->NoiseTangentStrength= BeamModule_Noise->NoiseTangentStrength.GetValue(EmitterTime);
if (BeamModule_Noise->bNRScaleEmitterTime)
{
NewReplayData->NoiseRangeScale = BeamModule_Noise->NoiseRangeScale.GetValue(EmitterTime, Component);
}
else
{ //-V523 Remove when todo will be implemented
//@todo.SAS. Need to address this!!!!
// check(0 && TEXT("NoiseRangeScale - No way to get per-particle setting at this time."));
// NewReplayData->NoiseRangeScale = BeamModule_Noise->NoiseRangeScale.GetValue(Particle->RelativeTime, Component);
NewReplayData->NoiseRangeScale = BeamModule_Noise->NoiseRangeScale.GetValue(EmitterTime, Component);
}
NewReplayData->NoiseSpeed = BeamModule_Noise->NoiseSpeed.GetValue(EmitterTime);
NewReplayData->NoiseLockTime = BeamModule_Noise->NoiseLockTime;
NewReplayData->NoiseLockRadius = BeamModule_Noise->NoiseLockRadius;
NewReplayData->bTargetNoise = BeamModule_Noise->bTargetNoise;
NewReplayData->NoiseTension = BeamModule_Noise->NoiseTension;
}
int32 MaxSegments = ((TessFactor * NewReplayData->Frequency) + 1 + 1); // Tessellation * Frequency + FinalSegment + FirstEdge;
// Determine the index count
NewReplayData->IndexCount = 0;
for (int32 Beam = 0; Beam < ActiveParticles; Beam++)
{
DECLARE_PARTICLE_PTR(Particle, ParticleData + ParticleStride * ParticleIndices[Beam]);
int32 CurrentOffset = TypeDataOffset;
FBeam2TypeDataPayload* BeamData = NULL;
FVector* InterpolatedPoints = NULL;
float* NoiseRate = NULL;
float* NoiseDelta = NULL;
FVector* TargetNoisePoints = NULL;
FVector* NextNoisePoints = NULL;
float* TaperValues = NULL;
float* NoiseDistanceScale = NULL;
FBeamParticleModifierPayloadData* SourceModifier = NULL;
FBeamParticleModifierPayloadData* TargetModifier = NULL;
BeamTypeData->GetDataPointers(this, (const uint8*)Particle, CurrentOffset, BeamData,
InterpolatedPoints, NoiseRate, NoiseDelta, TargetNoisePoints, NextNoisePoints,
TaperValues, NoiseDistanceScale, SourceModifier, TargetModifier);
if (BeamData->TriangleCount > 0)
{
if (NewReplayData->IndexCount == 0)
{
NewReplayData->IndexCount = 2;
}
NewReplayData->IndexCount += BeamData->TriangleCount * NewReplayData->Sheets; // 1 index per triangle in the strip PER SHEET
NewReplayData->IndexCount += ((NewReplayData->Sheets - 1) * 4); // 4 extra indices per stitch (degenerates)
if (Beam > 0)
{
NewReplayData->IndexCount += 4; // 4 extra indices per beam (degenerates)
}
}
}
if (NewReplayData->IndexCount > 15000)
{
NewReplayData->IndexStride = sizeof(uint32);
}
else
{
NewReplayData->IndexStride = sizeof(uint16);
}
//@todo. SORTING IS A DIFFERENT ISSUE NOW!
// GParticleView isn't going to be valid anymore?
uint8* PData = NewReplayData->ParticleData.GetData();
for (int32 i = 0; i < NewReplayData->ActiveParticleCount; i++)
{
DECLARE_PARTICLE(Particle, ParticleData + ParticleStride * ParticleIndices[i]);
FMemory::Memcpy(PData, &Particle, ParticleStride);
PData += ParticleStride;
}
// Set the debug rendering flags...
NewReplayData->bRenderGeometry = BeamTypeData->RenderGeometry;
NewReplayData->bRenderDirectLine = BeamTypeData->RenderDirectLine;
NewReplayData->bRenderLines = BeamTypeData->RenderLines;
NewReplayData->bRenderTessellation = BeamTypeData->RenderTessellation;
return true;
}
void FDecalRendering::BuildVisibleDecalList(const FScene& Scene, const FViewInfo& View, EDecalRenderStage DecalRenderStage, FTransientDecalRenderDataList& OutVisibleDecals)
{
QUICK_SCOPE_CYCLE_COUNTER(BuildVisibleDecalList);
OutVisibleDecals.Empty(Scene.Decals.Num());
const float FadeMultiplier = CVarDecalFadeScreenSizeMultiplier.GetValueOnRenderThread();
const EShaderPlatform ShaderPlatform = View.GetShaderPlatform();
const bool bIsPerspectiveProjection = View.IsPerspectiveProjection();
// Build a list of decals that need to be rendered for this view in SortedDecals
for (const FDeferredDecalProxy* DecalProxy : Scene.Decals)
{
bool bIsShown = true;
if (!DecalProxy->IsShown(&View))
{
bIsShown = false;
}
const FMatrix ComponentToWorldMatrix = DecalProxy->ComponentTrans.ToMatrixWithScale();
// can be optimized as we test against a sphere around the box instead of the box itself
const float ConservativeRadius = FMath::Sqrt(
ComponentToWorldMatrix.GetScaledAxis(EAxis::X).SizeSquared() +
ComponentToWorldMatrix.GetScaledAxis(EAxis::Y).SizeSquared() +
ComponentToWorldMatrix.GetScaledAxis(EAxis::Z).SizeSquared());
// can be optimized as the test is too conservative (sphere instead of OBB)
if(ConservativeRadius < SMALL_NUMBER || !View.ViewFrustum.IntersectSphere(ComponentToWorldMatrix.GetOrigin(), ConservativeRadius))
{
bIsShown = false;
}
if (bIsShown)
{
FTransientDecalRenderData Data(Scene, DecalProxy, ConservativeRadius);
// filter out decals with blend modes that are not supported on current platform
if (IsBlendModeSupported(ShaderPlatform, Data.DecalBlendMode))
{
if (bIsPerspectiveProjection && Data.DecalProxy->Component->FadeScreenSize != 0.0f)
{
float Distance = (View.ViewMatrices.ViewOrigin - ComponentToWorldMatrix.GetOrigin()).Size();
float Radius = ComponentToWorldMatrix.GetMaximumAxisScale();
float CurrentScreenSize = ((Radius / Distance) * FadeMultiplier);
// fading coefficient needs to increase with increasing field of view and decrease with increasing resolution
// FadeCoeffScale is an empirically determined constant to bring us back roughly to fraction of screen size for FadeScreenSize
const float FadeCoeffScale = 600.0f;
float FOVFactor = ((2.0f/View.ViewMatrices.ProjMatrix.M[0][0]) / View.ViewRect.Width()) * FadeCoeffScale;
float FadeCoeff = Data.DecalProxy->Component->FadeScreenSize * FOVFactor;
float FadeRange = FadeCoeff * 0.5f;
float Alpha = (CurrentScreenSize - FadeCoeff) / FadeRange;
Data.FadeAlpha = FMath::Min(Alpha, 1.0f);
}
EDecalRenderStage LocalDecalRenderStage = FDecalRenderingCommon::ComputeRenderStage(ShaderPlatform, Data.DecalBlendMode);
// we could do this test earlier to avoid the decal intersection but getting DecalBlendMode also costs
if (View.Family->EngineShowFlags.ShaderComplexity || (DecalRenderStage == LocalDecalRenderStage && Data.FadeAlpha>0.0f) )
{
OutVisibleDecals.Add(Data);
}
}
}
}
if (OutVisibleDecals.Num() > 0)
{
// Sort by sort order to allow control over composited result
// Then sort decals by state to reduce render target switches
// Also sort by component since Sort() is not stable
struct FCompareFTransientDecalRenderData
{
FORCEINLINE bool operator()(const FTransientDecalRenderData& A, const FTransientDecalRenderData& B) const
{
if (B.DecalProxy->SortOrder != A.DecalProxy->SortOrder)
{
return A.DecalProxy->SortOrder < B.DecalProxy->SortOrder;
}
// bHasNormal here is more important then blend mode because we want to render every decals that output normals before those that read normal.
if (B.bHasNormal != A.bHasNormal)
{
return B.bHasNormal < A.bHasNormal; // < so that those outputting normal are first.
}
if (B.DecalBlendMode != A.DecalBlendMode)
{
return (int32)B.DecalBlendMode < (int32)A.DecalBlendMode;
}
// Batch decals with the same material together
if (B.MaterialProxy != A.MaterialProxy)
{
return B.MaterialProxy < A.MaterialProxy;
}
return (PTRINT)B.DecalProxy->Component < (PTRINT)A.DecalProxy->Component;
}
};
// Sort decals by blend mode to reduce render target switches
OutVisibleDecals.Sort(FCompareFTransientDecalRenderData());
}
}
void UNavCollision::GetNavigationModifier(FCompositeNavModifier& Modifier, const FTransform& LocalToWorld)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_NavCollision_GetNavigationModifier);
const TSubclassOf<UNavArea> UseAreaClass = AreaClass ? AreaClass : UNavigationSystem::GetDefaultObstacleArea();
Modifier.ReserveForAdditionalAreas(CylinderCollision.Num() + BoxCollision.Num()
+ (ConvexCollision.VertexBuffer.Num() > 0 ? ConvexShapeIndices.Num() : 0));
for (int32 i = 0; i < CylinderCollision.Num(); i++)
{
FTransform CylinderToWorld = LocalToWorld;
const FVector Origin = CylinderToWorld.TransformPosition(CylinderCollision[i].Offset);
CylinderToWorld.SetTranslation(Origin);
FAreaNavModifier AreaMod(CylinderCollision[i].Radius, CylinderCollision[i].Height, CylinderToWorld, UseAreaClass);
AreaMod.SetIncludeAgentHeight(true);
Modifier.Add(AreaMod);
}
for (int32 i = 0; i < BoxCollision.Num(); i++)
{
FTransform BoxToWorld = LocalToWorld;
const FVector Origin = BoxToWorld.TransformPosition(BoxCollision[i].Offset);
BoxToWorld.SetTranslation(Origin);
FAreaNavModifier AreaMod(BoxCollision[i].Extent, BoxToWorld, UseAreaClass);
AreaMod.SetIncludeAgentHeight(true);
Modifier.Add(AreaMod);
}
if (ShouldUseConvexCollision())
{
// rebuild collision data if needed
if (!bHasConvexGeometry)
{
GatherCollision();
}
if (ConvexCollision.VertexBuffer.Num() > 0)
{
int32 LastVertIndex = 0;
TArray<FVector> Verts(ConvexCollision.VertexBuffer);
for (int32 i = 0; i < ConvexShapeIndices.Num(); i++)
{
int32 FirstVertIndex = LastVertIndex;
LastVertIndex = ConvexShapeIndices.IsValidIndex(i + 1) ? ConvexShapeIndices[i + 1] : ConvexCollision.VertexBuffer.Num();
FAreaNavModifier AreaMod(Verts, FirstVertIndex, LastVertIndex, ENavigationCoordSystem::Unreal, LocalToWorld, UseAreaClass);
AreaMod.SetIncludeAgentHeight(true);
Modifier.Add(AreaMod);
}
}
}
}