bool FWorldTileModel::ShouldBeVisible(FBox EditableArea) const
{
// Always loaded levels always visible
if (IsAlwaysLoaded() || IsRootTile())
{
return true;
}
FBox LevelBBox = GetLevelBounds();
// Visible if level has no valid bounds
if (!LevelBBox.IsValid)
{
return true;
}
// Visible if level bounds inside editable area
if (EditableArea.IsInsideXY(LevelBBox))
{
return true;
}
// Visible if level bounds bigger than editable area and intersects that area
if ((LevelBBox.GetExtent().X >= EditableArea.GetExtent().X ||
LevelBBox.GetExtent().Y >= EditableArea.GetExtent().Y) &&
LevelBBox.IntersectXY(EditableArea))
{
return true;
}
return false;
}
/** Prepares for multithreaded generation of VolumeDistanceField. */
void FStaticLightingSystem::BeginCalculateVolumeDistanceField()
{
DistanceFieldVolumeBounds = Scene.ImportanceBoundingBox;
if (DistanceFieldVolumeBounds.GetVolume() < KINDA_SMALL_NUMBER)
{
DistanceFieldVolumeBounds = AggregateMesh.GetBounds();
}
FBox UnclampedDistanceFieldVolumeBounds = DistanceFieldVolumeBounds;
FVector4 DoubleExtent = UnclampedDistanceFieldVolumeBounds.GetExtent() * 2;
DoubleExtent.X = DoubleExtent.X - FMath::Fmod(DoubleExtent.X, VolumeDistanceFieldSettings.VoxelSize) + VolumeDistanceFieldSettings.VoxelSize;
DoubleExtent.Y = DoubleExtent.Y - FMath::Fmod(DoubleExtent.Y, VolumeDistanceFieldSettings.VoxelSize) + VolumeDistanceFieldSettings.VoxelSize;
DoubleExtent.Z = DoubleExtent.Z - FMath::Fmod(DoubleExtent.Z, VolumeDistanceFieldSettings.VoxelSize) + VolumeDistanceFieldSettings.VoxelSize;
// Round the max up to the next step boundary
UnclampedDistanceFieldVolumeBounds.Max = UnclampedDistanceFieldVolumeBounds.Min + DoubleExtent;
const FVector4 VolumeSizes = UnclampedDistanceFieldVolumeBounds.GetExtent() * 2.0f / VolumeDistanceFieldSettings.VoxelSize;
VolumeSizeX = FMath::Trunc(VolumeSizes.X + DELTA);
VolumeSizeY = FMath::Trunc(VolumeSizes.Y + DELTA);
VolumeSizeZ = FMath::Trunc(VolumeSizes.Z + DELTA);
// Use a float to avoid 32 bit integer overflow with large volumes
const float NumVoxels = VolumeSizeX * VolumeSizeY * VolumeSizeZ;
if (NumVoxels > VolumeDistanceFieldSettings.MaxVoxels)
{
const int32 OldSizeX = VolumeSizeX;
const int32 OldSizeY = VolumeSizeY;
const int32 OldSizeZ = VolumeSizeZ;
const float SingleDimensionScale = FMath::Pow(NumVoxels / VolumeDistanceFieldSettings.MaxVoxels, 1.0f / 3.0f);
DistanceFieldVoxelSize = VolumeDistanceFieldSettings.VoxelSize * SingleDimensionScale;
DoubleExtent = DistanceFieldVolumeBounds.GetExtent() * 2;
DoubleExtent.X = DoubleExtent.X - FMath::Fmod(DoubleExtent.X, DistanceFieldVoxelSize) + DistanceFieldVoxelSize;
DoubleExtent.Y = DoubleExtent.Y - FMath::Fmod(DoubleExtent.Y, DistanceFieldVoxelSize) + DistanceFieldVoxelSize;
DoubleExtent.Z = DoubleExtent.Z - FMath::Fmod(DoubleExtent.Z, DistanceFieldVoxelSize) + DistanceFieldVoxelSize;
// Round the max up to the next step boundary with the clamped voxel size
DistanceFieldVolumeBounds.Max = DistanceFieldVolumeBounds.Min + DoubleExtent;
const FVector4 ClampedVolumeSizes = DistanceFieldVolumeBounds.GetExtent() * 2.0f / DistanceFieldVoxelSize;
VolumeSizeX = FMath::Trunc(ClampedVolumeSizes.X + DELTA);
VolumeSizeY = FMath::Trunc(ClampedVolumeSizes.Y + DELTA);
VolumeSizeZ = FMath::Trunc(ClampedVolumeSizes.Z + DELTA);
LogSolverMessage(FString::Printf(TEXT("CalculateVolumeDistanceField %ux%ux%u, clamped to %ux%ux%u"), OldSizeX, OldSizeY, OldSizeZ, VolumeSizeX, VolumeSizeY, VolumeSizeZ));
}
else
{
DistanceFieldVolumeBounds = UnclampedDistanceFieldVolumeBounds;
DistanceFieldVoxelSize = VolumeDistanceFieldSettings.VoxelSize;
LogSolverMessage(FString::Printf(TEXT("CalculateVolumeDistanceField %ux%ux%u"), VolumeSizeX, VolumeSizeY, VolumeSizeZ));
}
VolumeDistanceField.Empty(VolumeSizeX * VolumeSizeY * VolumeSizeZ);
VolumeDistanceField.AddZeroed(VolumeSizeX * VolumeSizeY * VolumeSizeZ);
FPlatformAtomics::InterlockedExchange(&NumOutstandingVolumeDataLayers, VolumeSizeZ);
}
void ATheHUD::DrawHUD()
{
// Canvas is only initialized here.
Super::DrawHUD();
InitWidgets();
RenderPortrait();
// Render the minimap, only if the floor is present
FBox box = Game->flycam->floor->GetBox();
FVector lookPt = box.GetCenter();
RenderScreen( rendererMinimap, lookPt, box.GetExtent().GetMax(), FVector( 0, 0, -1 ) );
ui->SetSize( FVector2D( Canvas->SizeX, Canvas->SizeY ) );
ui->Update( Game->gm->T ); // Ticked here, in case reflow is needed
ui->render();
// Overlay the lines for the minimap's view.
vector< FVector2D > pts = ui->gameChrome->rightPanel->minimap->pts;
for( int i = 0; i < pts.size()-1; i++ )
{
Canvas->K2_DrawLine( pts[i], pts[i+1], 2.f, FLinearColor::Green );
}
if( pts.size() > 1 )
{
Canvas->K2_DrawLine( pts[ pts.size()-1 ], pts[ 0 ], 2.f, FLinearColor::Green );
}
}
void ASpacePartioner::Initialize(const float& inExtent, const bool& inDrawDebugInfo)
{
bInitialized = true;
bDrawDebugInfo = inDrawDebugInfo;
// The Extent is very similar to the radius of a circle
FVector min = FVector(-inExtent, -inExtent, -inExtent);
FVector max = FVector(inExtent, inExtent, inExtent);
FBox NewBounds = FBox(min, max);
OctreeData = new FSimpleOctree(NewBounds.GetCenter(), NewBounds.GetExtent().GetMax()); // const FVector & InOrigin, float InExtent
}
void AStrategyHUD::DrawHealthBar(AActor* ForActor, float HealthPercentage, int32 BarHeight, int32 OffsetY) const
{
FBox BB = ForActor->GetComponentsBoundingBox();
FVector Center = BB.GetCenter();
FVector Extent = BB.GetExtent();
FVector2D Center2D = FVector2D(Canvas->Project(FVector(Center.X,Center.Y,Center.Z + Extent.Z)));
float ActorExtent = 40;
if (Cast<APawn>(ForActor) != NULL)
{
AStrategyChar* StrategyChar = Cast<AStrategyChar>(ForActor);
if( ( StrategyChar != NULL ) && ( StrategyChar->GetCapsuleComponent() != NULL ) )
{
ActorExtent = StrategyChar->GetCapsuleComponent()->GetScaledCapsuleRadius();
}
}
else if (Cast<AStrategyBuilding>(ForActor) != NULL)
{
Center2D = FVector2D(Canvas->Project(ForActor->GetActorLocation()));
ActorExtent = 60;
}
FVector Pos1 = Canvas->Project(FVector(Center.X,Center.Y - ActorExtent*2, Center.Z + Extent.Z));
FVector Pos2 = Canvas->Project(FVector(Center.X,Center.Y + ActorExtent*2, Center.Z + Extent.Z));
float HealthBarLength = (Pos2-Pos1).Size2D();
AStrategyPlayerController* MyPC = GetPlayerController();
IStrategyTeamInterface* ActorTeam = Cast<IStrategyTeamInterface>(ForActor);
UTexture2D* HealthBarTexture = EnemyTeamHPTexture;
if (ActorTeam != NULL && MyPC != NULL && ActorTeam->GetTeamNum() == MyPC->GetTeamNum())
{
HealthBarTexture = PlayerTeamHPTexture;
}
float X = Center2D.X - HealthBarLength/2;
float Y = Center2D.Y + OffsetY;
FCanvasTileItem TileItem( FVector2D( X, Y ), HealthBarTexture->Resource, FVector2D( HealthBarLength * HealthPercentage, BarHeight ), FLinearColor::White );
TileItem.BlendMode = SE_BLEND_Translucent;
TileItem.UV1 = FVector2D(HealthPercentage, 1.0f);
Canvas->DrawItem( TileItem );
//Fill the rest of health with gray gradient texture
X = Center2D.X-HealthBarLength/2 + HealthBarLength * HealthPercentage;
Y = Center2D.Y + OffsetY;
TileItem.Position = FVector2D( X, Y );
TileItem.Texture = BarFillTexture->Resource;
TileItem.UV1 = FVector2D(1.0f, 1.0f);
TileItem.Size = FVector2D( HealthBarLength * (1.0f - HealthPercentage), BarHeight );
TileItem.SetColor(FLinearColor(0.5f, 0.5f, 0.5f, 0.5f));
Canvas->DrawItem( TileItem );
}
FBox FWorldTileModel::GetLevelBounds() const
{
// Level local bounding box
FBox Bounds = TileDetails->Bounds;
if (Bounds.IsValid)
{
// Current level position in the world
FVector LevelPosition(GetLevelCurrentPosition(), 0.f);
FVector LevelExtent = Bounds.GetExtent();
// Calculate bounding box in world space
Bounds.Min = LevelPosition - LevelExtent;
Bounds.Max = LevelPosition + LevelExtent;
}
return Bounds;
}
FPhATEdPreviewViewportClient::FPhATEdPreviewViewportClient(TWeakPtr<FPhAT> InPhAT, TSharedPtr<FPhATSharedData> Data, const TSharedRef<SPhATPreviewViewport>& InPhATPreviewViewport)
: FEditorViewportClient(nullptr, &Data->PreviewScene, StaticCastSharedRef<SEditorViewport>(InPhATPreviewViewport))
, PhATPtr(InPhAT)
, SharedData(Data)
, MinPrimSize(0.5f)
, PhAT_TranslateSpeed(0.25f)
, PhAT_RotateSpeed(1.0 * (PI / 180.0))
, PhAT_LightRotSpeed(0.22f)
, SimGrabCheckDistance(5000.0f)
, SimHoldDistanceChangeDelta(20.0f)
, SimMinHoldDistance(10.0f)
, SimGrabMoveSpeed(1.0f)
{
check(PhATPtr.IsValid());
ModeTools->SetWidgetMode(FWidget::EWidgetMode::WM_Translate);
ModeTools->SetCoordSystem(COORD_Local);
bAllowedToMoveCamera = true;
// Setup defaults for the common draw helper.
DrawHelper.bDrawPivot = false;
DrawHelper.bDrawWorldBox = false;
DrawHelper.bDrawKillZ = false;
DrawHelper.GridColorAxis = FColor(80,80,80);
DrawHelper.GridColorMajor = FColor(72,72,72);
DrawHelper.GridColorMinor = FColor(64,64,64);
DrawHelper.PerspectiveGridSize = 32767;
PhATFont = GEngine->GetSmallFont();
check(PhATFont);
EngineShowFlags.DisableAdvancedFeatures();
EngineShowFlags.SetSeparateTranslucency(true);
EngineShowFlags.SetCompositeEditorPrimitives(true);
// Get actors asset collision bounding box, and move actor so its not intersection the floor plane at Z = 0.
FBox CollBox = SharedData->PhysicsAsset->CalcAABB(SharedData->EditorSkelComp, SharedData->EditorSkelComp->ComponentToWorld);
FVector SkelCompLocation = FVector(0, 0, -CollBox.Min.Z + SharedData->EditorSimOptions->FloorGap);
SharedData->EditorSkelComp->SetAbsolute(true, true, true);
SharedData->EditorSkelComp->SetRelativeLocation(SkelCompLocation);
SharedData->ResetTM = SharedData->EditorSkelComp->GetComponentToWorld();
// Get new bounding box and set view based on that.
CollBox = SharedData->PhysicsAsset->CalcAABB(SharedData->EditorSkelComp, SharedData->EditorSkelComp->ComponentToWorld);
FVector CollBoxExtent = CollBox.GetExtent();
// Take into account internal mesh translation/rotation/scaling etc.
FTransform LocalToWorld = SharedData->EditorSkelComp->ComponentToWorld;
FSphere WorldSphere = SharedData->EditorSkelMesh->GetImportedBounds().GetSphere().TransformBy(LocalToWorld);
CollBoxExtent = CollBox.GetExtent();
if (CollBoxExtent.X > CollBoxExtent.Y)
{
SetViewLocation( FVector(WorldSphere.Center.X, WorldSphere.Center.Y - 1.5*WorldSphere.W, WorldSphere.Center.Z) );
SetViewRotation( EditorViewportDefs::DefaultPerspectiveViewRotation );
}
else
{
SetViewLocation( FVector(WorldSphere.Center.X - 1.5*WorldSphere.W, WorldSphere.Center.Y, WorldSphere.Center.Z) );
SetViewRotation( FRotator::ZeroRotator );
}
SetViewLocationForOrbiting(FVector::ZeroVector);
SetViewModes(VMI_Lit, VMI_Lit);
SetCameraSpeedSetting(3);
bUsingOrbitCamera = true;
if (!FPhAT::IsPIERunning())
{
SetRealtime(true);
}
}
void FVertexSnappingImpl::GetActorsInsideBox( const FBox& Box, UWorld* World, TArray<FSnapActor>& OutActorsInBox, const TSet< TWeakObjectPtr<AActor> >& ActorsToIgnore, const FSceneView* View )
{
for( FActorIterator It(World); It; ++It )
{
AActor* Actor = *It;
// Ignore the builder brush, hidden actors and forcefully ignored actors (actors being moved)
if( Actor != World->GetDefaultBrush() && It->IsHiddenEd() == false && !ActorsToIgnore.Contains( Actor ) )
{
const bool bNonColliding = true;
FBox ActorBoundingBox = Actor->GetComponentsBoundingBox(true);
// Actors must be within the bounding box and within the view frustum
if( Box.Intersect( ActorBoundingBox ) && View->ViewFrustum.IntersectBox( ActorBoundingBox.GetCenter(), ActorBoundingBox.GetExtent() ) )
{
OutActorsInBox.Add( FSnapActor( Actor, Box ) );
}
}
}
}
static void UpdatePlanarReflectionContents_RenderThread(
FRHICommandListImmediate& RHICmdList,
FSceneRenderer* MainSceneRenderer,
FSceneRenderer* SceneRenderer,
const FPlanarReflectionSceneProxy* SceneProxy,
FRenderTarget* RenderTarget,
FTexture* RenderTargetTexture,
const FPlane& MirrorPlane,
const FName OwnerName,
const FResolveParams& ResolveParams,
bool bUseSceneColorTexture)
{
QUICK_SCOPE_CYCLE_COUNTER(STAT_RenderPlanarReflection);
FBox PlanarReflectionBounds = SceneProxy->WorldBounds;
bool bIsInAnyFrustum = false;
for (int32 ViewIndex = 0; ViewIndex < SceneRenderer->Views.Num(); ++ViewIndex)
{
FViewInfo& View = SceneRenderer->Views[ViewIndex];
if (View.ViewFrustum.IntersectBox(PlanarReflectionBounds.GetCenter(), PlanarReflectionBounds.GetExtent()))
{
bIsInAnyFrustum = true;
break;
}
}
if (bIsInAnyFrustum)
{
bool bIsVisibleInAnyView = true;
for (int32 ViewIndex = 0; ViewIndex < SceneRenderer->Views.Num(); ++ViewIndex)
{
FViewInfo& View = SceneRenderer->Views[ViewIndex];
FSceneViewState* ViewState = View.ViewState;
if (ViewState)
{
FIndividualOcclusionHistory& OcclusionHistory = ViewState->PlanarReflectionOcclusionHistories.FindOrAdd(SceneProxy->PlanarReflectionId);
// +1 to buffered frames because the query is submitted late into the main frame, but read at the beginning of a reflection capture frame
const int32 NumBufferedFrames = FOcclusionQueryHelpers::GetNumBufferedFrames() + 1;
// +1 to frame counter because we are operating before the main view's InitViews, which is where OcclusionFrameCounter is incremented
uint32 OcclusionFrameCounter = ViewState->OcclusionFrameCounter + 1;
FRenderQueryRHIRef& PastQuery = OcclusionHistory.GetPastQuery(OcclusionFrameCounter, NumBufferedFrames);
if (IsValidRef(PastQuery))
{
uint64 NumSamples = 0;
QUICK_SCOPE_CYCLE_COUNTER(STAT_PlanarReflectionOcclusionQueryResults);
if (RHIGetRenderQueryResult(PastQuery.GetReference(), NumSamples, true))
{
bIsVisibleInAnyView = NumSamples > 0;
if (bIsVisibleInAnyView)
{
break;
}
}
}
}
}
if (bIsVisibleInAnyView)
{
FMemMark MemStackMark(FMemStack::Get());
// update any resources that needed a deferred update
FDeferredUpdateResource::UpdateResources(RHICmdList);
{
#if WANTS_DRAW_MESH_EVENTS
FString EventName;
OwnerName.ToString(EventName);
SCOPED_DRAW_EVENTF(RHICmdList, SceneCapture, TEXT("PlanarReflection %s"), *EventName);
#else
SCOPED_DRAW_EVENT(RHICmdList, UpdatePlanarReflectionContent_RenderThread);
#endif
const FRenderTarget* Target = SceneRenderer->ViewFamily.RenderTarget;
SetRenderTarget(RHICmdList, Target->GetRenderTargetTexture(), NULL, true);
// Note: relying on GBuffer SceneColor alpha being cleared to 1 in the main scene rendering
check(GetSceneColorClearAlpha() == 1.0f);
RHICmdList.Clear(true, FLinearColor(0, 0, 0, 1), false, (float)ERHIZBuffer::FarPlane, false, 0, FIntRect());
// Reflection view late update
if (SceneRenderer->Views.Num() > 1)
{
const FMirrorMatrix MirrorMatrix(MirrorPlane);
for (int32 ViewIndex = 0; ViewIndex < SceneRenderer->Views.Num(); ++ViewIndex)
{
FViewInfo& ReflectionViewToUpdate = SceneRenderer->Views[ViewIndex];
const FViewInfo& UpdatedParentView = MainSceneRenderer->Views[ViewIndex];
ReflectionViewToUpdate.UpdatePlanarReflectionViewMatrix(UpdatedParentView, MirrorMatrix);
}
}
// Render the scene normally
{
SCOPED_DRAW_EVENT(RHICmdList, RenderScene);
SceneRenderer->Render(RHICmdList);
}
for (int32 ViewIndex = 0; ViewIndex < SceneRenderer->Views.Num(); ++ViewIndex)
{
FViewInfo& View = SceneRenderer->Views[ViewIndex];
if (MainSceneRenderer->Scene->GetShadingPath() == EShadingPath::Deferred)
{
PrefilterPlanarReflection<true>(RHICmdList, View, SceneProxy, Target);
}
else
{
PrefilterPlanarReflection<false>(RHICmdList, View, SceneProxy, Target);
}
}
RHICmdList.CopyToResolveTarget(RenderTarget->GetRenderTargetTexture(), RenderTargetTexture->TextureRHI, false, ResolveParams);
}
FSceneRenderer::WaitForTasksClearSnapshotsAndDeleteSceneRenderer(RHICmdList, SceneRenderer);
}
}
}
void FLogVisualizer::UpdateCameraPosition(FName RowName, int32 ItemIndes)
{
const FVisualLoggerDBRow& DBRow = FVisualLoggerDatabase::Get().GetRowByName(RowName);
auto &Entries = DBRow.GetItems();
if (DBRow.GetCurrentItemIndex() == INDEX_NONE || Entries.IsValidIndex(DBRow.GetCurrentItemIndex()) == false)
{
return;
}
UWorld* World = GetWorld();
FVector CurrentLocation = Entries[DBRow.GetCurrentItemIndex()].Entry.Location;
FVector Extent(150);
bool bFoundActor = false;
FName OwnerName = Entries[DBRow.GetCurrentItemIndex()].OwnerName;
for (FActorIterator It(World); It; ++It)
{
AActor* Actor = *It;
if (Actor->GetFName() == OwnerName)
{
FVector Orgin;
Actor->GetActorBounds(false, Orgin, Extent);
bFoundActor = true;
break;
}
}
const float DefaultCameraDistance = ULogVisualizerSettings::StaticClass()->GetDefaultObject<ULogVisualizerSettings>()->DefaultCameraDistance;
Extent = Extent.SizeSquared() < FMath::Square(DefaultCameraDistance) ? FVector(DefaultCameraDistance) : Extent;
#if WITH_EDITOR
UEditorEngine *EEngine = Cast<UEditorEngine>(GEngine);
if (GIsEditor && EEngine != NULL)
{
for (auto ViewportClient : EEngine->AllViewportClients)
{
ViewportClient->FocusViewportOnBox(FBox::BuildAABB(CurrentLocation, Extent));
}
}
else if (AVisualLoggerCameraController::IsEnabled(World) && AVisualLoggerCameraController::Instance.IsValid() && AVisualLoggerCameraController::Instance->GetSpectatorPawn())
{
ULocalPlayer* LocalPlayer = Cast<ULocalPlayer>(AVisualLoggerCameraController::Instance->Player);
if (LocalPlayer && LocalPlayer->ViewportClient && LocalPlayer->ViewportClient->Viewport)
{
FViewport* Viewport = LocalPlayer->ViewportClient->Viewport;
FBox BoundingBox = FBox::BuildAABB(CurrentLocation, Extent);
const FVector Position = BoundingBox.GetCenter();
float Radius = BoundingBox.GetExtent().Size();
FViewportCameraTransform ViewTransform;
ViewTransform.TransitionToLocation(Position, nullptr, true);
float NewOrthoZoom;
const float AspectRatio = 1.777777f;
CA_SUPPRESS(6326);
uint32 MinAxisSize = (AspectRatio > 1.0f) ? Viewport->GetSizeXY().Y : Viewport->GetSizeXY().X;
float Zoom = Radius / (MinAxisSize / 2.0f);
NewOrthoZoom = Zoom * (Viewport->GetSizeXY().X*15.0f);
NewOrthoZoom = FMath::Clamp<float>(NewOrthoZoom, 250, MAX_FLT);
ViewTransform.SetOrthoZoom(NewOrthoZoom);
AVisualLoggerCameraController::Instance->GetSpectatorPawn()->TeleportTo(ViewTransform.GetLocation(), ViewTransform.GetRotation(), false, true);
}
}
#endif
}
/**
* Returns an array of visibility data for the given view position, or NULL if none exists.
* The data bits are indexed by VisibilityId of each primitive in the scene.
* This method decompresses data if necessary and caches it based on the bucket and chunk index in the view state.
*/
const uint8* FSceneViewState::GetPrecomputedVisibilityData(FViewInfo& View, const FScene* Scene)
{
const uint8* PrecomputedVisibilityData = NULL;
if (Scene->PrecomputedVisibilityHandler && GAllowPrecomputedVisibility && View.Family->EngineShowFlags.PrecomputedVisibility)
{
const FPrecomputedVisibilityHandler& Handler = *Scene->PrecomputedVisibilityHandler;
FViewElementPDI VisibilityCellsPDI(&View, NULL);
// Draw visibility cell bounds for debugging if enabled
if ((GShowPrecomputedVisibilityCells || View.Family->EngineShowFlags.PrecomputedVisibilityCells) && !GShowRelevantPrecomputedVisibilityCells)
{
for (int32 BucketIndex = 0; BucketIndex < Handler.PrecomputedVisibilityCellBuckets.Num(); BucketIndex++)
{
for (int32 CellIndex = 0; CellIndex < Handler.PrecomputedVisibilityCellBuckets[BucketIndex].Cells.Num(); CellIndex++)
{
const FPrecomputedVisibilityCell& CurrentCell = Handler.PrecomputedVisibilityCellBuckets[BucketIndex].Cells[CellIndex];
// Construct the cell's bounds
const FBox CellBounds(CurrentCell.Min, CurrentCell.Min + FVector(Handler.PrecomputedVisibilityCellSizeXY, Handler.PrecomputedVisibilityCellSizeXY, Handler.PrecomputedVisibilityCellSizeZ));
if (View.ViewFrustum.IntersectBox(CellBounds.GetCenter(), CellBounds.GetExtent()))
{
DrawWireBox(&VisibilityCellsPDI, CellBounds, FColor(50, 50, 255), SDPG_World);
}
}
}
}
// Calculate the bucket that ViewOrigin falls into
// Cells are hashed into buckets to reduce search time
const float FloatOffsetX = (View.ViewMatrices.ViewOrigin.X - Handler.PrecomputedVisibilityCellBucketOriginXY.X) / Handler.PrecomputedVisibilityCellSizeXY;
// FMath::TruncToInt rounds toward 0, we want to always round down
const int32 BucketIndexX = FMath::Abs((FMath::TruncToInt(FloatOffsetX) - (FloatOffsetX < 0.0f ? 1 : 0)) / Handler.PrecomputedVisibilityCellBucketSizeXY % Handler.PrecomputedVisibilityNumCellBuckets);
const float FloatOffsetY = (View.ViewMatrices.ViewOrigin.Y -Handler.PrecomputedVisibilityCellBucketOriginXY.Y) / Handler.PrecomputedVisibilityCellSizeXY;
const int32 BucketIndexY = FMath::Abs((FMath::TruncToInt(FloatOffsetY) - (FloatOffsetY < 0.0f ? 1 : 0)) / Handler.PrecomputedVisibilityCellBucketSizeXY % Handler.PrecomputedVisibilityNumCellBuckets);
const int32 PrecomputedVisibilityBucketIndex = BucketIndexY * Handler.PrecomputedVisibilityCellBucketSizeXY + BucketIndexX;
check(PrecomputedVisibilityBucketIndex < Handler.PrecomputedVisibilityCellBuckets.Num());
const FPrecomputedVisibilityBucket& CurrentBucket = Handler.PrecomputedVisibilityCellBuckets[PrecomputedVisibilityBucketIndex];
for (int32 CellIndex = 0; CellIndex < CurrentBucket.Cells.Num(); CellIndex++)
{
const FPrecomputedVisibilityCell& CurrentCell = CurrentBucket.Cells[CellIndex];
// Construct the cell's bounds
const FBox CellBounds(CurrentCell.Min, CurrentCell.Min + FVector(Handler.PrecomputedVisibilityCellSizeXY, Handler.PrecomputedVisibilityCellSizeXY, Handler.PrecomputedVisibilityCellSizeZ));
// Check if ViewOrigin is inside the current cell
if (CellBounds.IsInside(View.ViewMatrices.ViewOrigin))
{
// Reuse a cached decompressed chunk if possible
if (CachedVisibilityChunk
&& CachedVisibilityHandlerId == Scene->PrecomputedVisibilityHandler->GetId()
&& CachedVisibilityBucketIndex == PrecomputedVisibilityBucketIndex
&& CachedVisibilityChunkIndex == CurrentCell.ChunkIndex)
{
checkSlow(CachedVisibilityChunk->Num() >= CurrentCell.DataOffset + CurrentBucket.CellDataSize);
PrecomputedVisibilityData = &(*CachedVisibilityChunk)[CurrentCell.DataOffset];
}
else
{
const FCompressedVisibilityChunk& CompressedChunk = Handler.PrecomputedVisibilityCellBuckets[PrecomputedVisibilityBucketIndex].CellDataChunks[CurrentCell.ChunkIndex];
CachedVisibilityBucketIndex = PrecomputedVisibilityBucketIndex;
CachedVisibilityChunkIndex = CurrentCell.ChunkIndex;
CachedVisibilityHandlerId = Scene->PrecomputedVisibilityHandler->GetId();
if (CompressedChunk.bCompressed)
{
// Decompress the needed visibility data chunk
DecompressedVisibilityChunk.Reset();
DecompressedVisibilityChunk.AddUninitialized(CompressedChunk.UncompressedSize);
verify(FCompression::UncompressMemory(
COMPRESS_ZLIB,
DecompressedVisibilityChunk.GetData(),
CompressedChunk.UncompressedSize,
CompressedChunk.Data.GetData(),
CompressedChunk.Data.Num()));
CachedVisibilityChunk = &DecompressedVisibilityChunk;
}
else
{
CachedVisibilityChunk = &CompressedChunk.Data;
}
checkSlow(CachedVisibilityChunk->Num() >= CurrentCell.DataOffset + CurrentBucket.CellDataSize);
// Return a pointer to the cell containing ViewOrigin's decompressed visibility data
PrecomputedVisibilityData = &(*CachedVisibilityChunk)[CurrentCell.DataOffset];
}
if (GShowRelevantPrecomputedVisibilityCells)
{
// Draw the currently used visibility cell with green wireframe for debugging
DrawWireBox(&VisibilityCellsPDI, CellBounds, FColor(50, 255, 50), SDPG_Foreground);
}
else
{
break;
}
}
else if (GShowRelevantPrecomputedVisibilityCells)
{
// Draw all cells in the current visibility bucket as blue wireframe
DrawWireBox(&VisibilityCellsPDI, CellBounds, FColor(50, 50, 255), SDPG_World);
}
}
}
return PrecomputedVisibilityData;
}
void ASpacePartioner::Initialize(const FBox& inNewBounds, const bool& inDrawDebugInfo)
{
bInitialized = true;
bDrawDebugInfo = inDrawDebugInfo;
OctreeData = new FSimpleOctree(inNewBounds.GetCenter(), inNewBounds.GetExtent().GetMax()); // const FVector & InOrigin, float InExtent
}
void AGameplayDebuggerReplicator::DrawDebugData(class UCanvas* Canvas, class APlayerController* PC, bool bHideMenu)
{
#if ENABLED_GAMEPLAY_DEBUGGER
if (!LocalPlayerOwner && IsActorTickEnabled())
{
return;
}
const bool bAllowToDraw = Canvas && Canvas->SceneView && (Canvas->SceneView->ViewActor == LocalPlayerOwner->AcknowledgedPawn || Canvas->SceneView->ViewActor == LocalPlayerOwner->GetPawnOrSpectator());
if (!bAllowToDraw)
{
// check for spectator debug camera during debug camera
if (DebugCameraController.IsValid() == false || Canvas->SceneView->ViewActor->GetInstigatorController() != DebugCameraController.Get())
{
return;
}
}
const float DebugInfoStartX = UGameplayDebuggerModuleSettings::StaticClass()->GetDefaultObject<UGameplayDebuggerModuleSettings>()->DebugInfoStart.X;
const float DebugInfoStartY = UGameplayDebuggerModuleSettings::StaticClass()->GetDefaultObject<UGameplayDebuggerModuleSettings>()->DebugInfoStart.Y;
const FVector SelectedActorLoc = LastSelectedActorToDebug ? LastSelectedActorToDebug->GetActorLocation() + FVector(0, 0, LastSelectedActorToDebug->GetSimpleCollisionHalfHeight()) : DebugTools::InvalidLocation;
UGameplayDebuggerHelper::FPrintContext DefaultContext(GEngine->GetSmallFont(), Canvas, DebugInfoStartX, DebugInfoStartY);
DefaultContext.FontRenderInfo.bEnableShadow = true;
const bool bDrawFullData = SelectedActorLoc != DebugTools::InvalidLocation;
const FVector ScreenLoc = SelectedActorLoc != DebugTools::InvalidLocation ? UGameplayDebuggerHelper::ProjectLocation(DefaultContext, SelectedActorLoc) : FVector::ZeroVector;
UGameplayDebuggerHelper::FPrintContext OverHeadContext(GEngine->GetSmallFont(), Canvas, ScreenLoc.X, ScreenLoc.Y);
UGameplayDebuggerHelper::SetOverHeadContext(OverHeadContext);
UGameplayDebuggerHelper::SetDefaultContext(DefaultContext);
if (DefaultContext.Canvas != nullptr)
{
float XL, YL;
const FString ToolName = FString::Printf(TEXT("Gameplay Debugger [Timestamp: %05.03f]"), GetWorld()->TimeSeconds);
UGameplayDebuggerHelper::CalulateStringSize(DefaultContext, nullptr, ToolName, XL, YL);
UGameplayDebuggerHelper::PrintString(DefaultContext, FColorList::White, ToolName, DefaultContext.Canvas->ClipX / 2.0f - XL / 2.0f, 0);
}
if (!bHideMenu)
{
DrawMenu(DefaultContext, OverHeadContext);
}
TMap<FString, TArray<UGameplayDebuggerBaseObject*> > CategoryToClasses;
for (UGameplayDebuggerBaseObject* Obj : ReplicatedObjects)
{
if (Obj)
{
FString Category = Obj->GetCategoryName();
CategoryToClasses.FindOrAdd(Category).Add(Obj);
}
}
CategoryToClasses.KeySort(TLess<FString>());
for (auto It(CategoryToClasses.CreateIterator()); It; ++It)
{
const FGameplayDebuggerCategorySettings* Element = Categories.FindByPredicate([&](const FGameplayDebuggerCategorySettings& C){ return It.Key() == C.CategoryName; });
if (Element == nullptr || Element->bPIE == false)
{
continue;
}
UGameplayDebuggerHelper::PrintString(UGameplayDebuggerHelper::GetDefaultContext(), FString::Printf(TEXT("\n{R=0,G=255,B=0,A=255}%s\n"), *It.Key()));
TArray<UGameplayDebuggerBaseObject*>& CurrentObjects = It.Value();
for (UGameplayDebuggerBaseObject* Obj : CurrentObjects)
{
Obj->DrawCollectedData(LocalPlayerOwner, LastSelectedActorToDebug);
}
}
const IConsoleVariable* cvarHighlightSelectedActor = IConsoleManager::Get().FindConsoleVariable(TEXT("ai.gd.HighlightSelectedActor"));
const bool bHighlightSelectedActor = !cvarHighlightSelectedActor || cvarHighlightSelectedActor->GetInt();
if (LastSelectedActorToDebug && bHighlightSelectedActor)
{
FBox ComponentsBoundingBox = LastSelectedActorToDebug->GetComponentsBoundingBox(false);
DrawDebugBox(GetWorld(), ComponentsBoundingBox.GetCenter(), ComponentsBoundingBox.GetExtent(), FColor::Red, false);
DrawDebugSolidBox(GetWorld(), ComponentsBoundingBox.GetCenter(), ComponentsBoundingBox.GetExtent(), FColor::Red.WithAlpha(25));
}
#endif
}
void AHUD::GetActorsInSelectionRectangle(TSubclassOf<class AActor> ClassFilter, const FVector2D& FirstPoint, const FVector2D& SecondPoint, TArray<AActor*>& OutActors, bool bIncludeNonCollidingComponents, bool bActorMustBeFullyEnclosed)
{
// Because this is a HUD function it is likely to get called each tick,
// so make sure any previous contents of the out actor array have been cleared!
OutActors.Reset();
//Create Selection Rectangle from Points
FBox2D SelectionRectangle(0);
//This method ensures that an appropriate rectangle is generated,
// no matter what the coordinates of first and second point actually are.
SelectionRectangle += FirstPoint;
SelectionRectangle += SecondPoint;
//The Actor Bounds Point Mapping
const FVector BoundsPointMapping[8] =
{
FVector(1, 1, 1),
FVector(1, 1, -1),
FVector(1, -1, 1),
FVector(1, -1, -1),
FVector(-1, 1, 1),
FVector(-1, 1, -1),
FVector(-1, -1, 1),
FVector(-1, -1, -1)
};
//~~~
//For Each Actor of the Class Filter Type
for (TActorIterator<AActor> Itr(GetWorld(), ClassFilter); Itr; ++Itr)
{
AActor* EachActor = *Itr;
//Get Actor Bounds //casting to base class, checked by template in the .h
const FBox EachActorBounds = Cast<AActor>(EachActor)->GetComponentsBoundingBox(bIncludeNonCollidingComponents); /* All Components? */
//Center
const FVector BoxCenter = EachActorBounds.GetCenter();
//Extents
const FVector BoxExtents = EachActorBounds.GetExtent();
// Build 2D bounding box of actor in screen space
FBox2D ActorBox2D(0);
for (uint8 BoundsPointItr = 0; BoundsPointItr < 8; BoundsPointItr++)
{
// Project vert into screen space.
const FVector ProjectedWorldLocation = Project(BoxCenter + (BoundsPointMapping[BoundsPointItr] * BoxExtents));
// Add to 2D bounding box
ActorBox2D += FVector2D(ProjectedWorldLocation.X, ProjectedWorldLocation.Y);
}
//Selection Box must fully enclose the Projected Actor Bounds
if (bActorMustBeFullyEnclosed)
{
if(SelectionRectangle.IsInside(ActorBox2D))
{
OutActors.Add(Cast<AActor>(EachActor));
}
}
//Partial Intersection with Projected Actor Bounds
else
{
if (SelectionRectangle.Intersect(ActorBox2D))
{
OutActors.Add(Cast<AActor>(EachActor));
}
}
}
}