/**
* Creates a static mesh object from raw triangle data.
*/
UStaticMesh* CreateStaticMesh(struct FRawMesh& RawMesh,TArray<UMaterialInterface*>& Materials,UObject* InOuter,FName InName)
{
// Create the UStaticMesh object.
FStaticMeshComponentRecreateRenderStateContext RecreateRenderStateContext(FindObject<UStaticMesh>(InOuter,*InName.ToString()));
UStaticMesh* StaticMesh = new(InOuter,InName,RF_Public|RF_Standalone) UStaticMesh(FPostConstructInitializeProperties());
// Add one LOD for the base mesh
FStaticMeshSourceModel* SrcModel = new(StaticMesh->SourceModels) FStaticMeshSourceModel();
SrcModel->RawMeshBulkData->SaveRawMesh(RawMesh);
StaticMesh->Materials = Materials;
int32 NumSections = StaticMesh->Materials.Num();
// Set up the SectionInfoMap to enable collision
for (int32 SectionIdx = 0; SectionIdx < NumSections; ++SectionIdx)
{
FMeshSectionInfo Info = StaticMesh->SectionInfoMap.Get(0, SectionIdx);
Info.MaterialIndex = SectionIdx;
Info.bEnableCollision = true;
StaticMesh->SectionInfoMap.Set(0, SectionIdx, Info);
}
StaticMesh->Build();
StaticMesh->MarkPackageDirty();
return StaticMesh;
}
void DecomposeUCXMesh( const TArray<FVector>& CollisionVertices, const TArray<int32>& CollisionFaceIdx, UBodySetup* BodySetup )
{
// We keep no ref to this Model, so it will be GC'd at some point after the import.
UModel* TempModel = new UModel(FPostConstructInitializeProperties(),NULL,1);
FMeshConnectivityBuilder ConnectivityBuilder;
// Send triangles to connectivity builder
for(int32 x = 0;x < CollisionFaceIdx.Num();x += 3)
{
const FVector &VertexA = CollisionVertices[ CollisionFaceIdx[x + 2] ];
const FVector &VertexB = CollisionVertices[ CollisionFaceIdx[x + 1] ];
const FVector &VertexC = CollisionVertices[ CollisionFaceIdx[x + 0] ];
ConnectivityBuilder.AddTriangle( VertexA, VertexB, VertexC );
}
ConnectivityBuilder.CreateConnectivityGroups();
// For each valid group build BSP and extract convex hulls
for ( int32 i=0; i<ConnectivityBuilder.Groups.Num(); i++ )
{
const FMeshConnectivityGroup &Group = ConnectivityBuilder.Groups[ i ];
// TODO: add some BSP friendly checks here
// e.g. if group triangles form a closed mesh
// Generate polygons from group triangles
TempModel->Polys->Element.Empty();
for ( int32 j=0; j<Group.Triangles.Num(); j++ )
{
const FMeshConnectivityTriangle &Triangle = ConnectivityBuilder.Triangles[ Group.Triangles[j] ];
FPoly* Poly = new( TempModel->Polys->Element ) FPoly();
Poly->Init();
Poly->iLink = j / 3;
// Add vertices
new( Poly->Vertices ) FVector( ConnectivityBuilder.Vertices[ Triangle.Vertices[0] ].Position );
new( Poly->Vertices ) FVector( ConnectivityBuilder.Vertices[ Triangle.Vertices[1] ].Position );
new( Poly->Vertices ) FVector( ConnectivityBuilder.Vertices[ Triangle.Vertices[2] ].Position );
// Update polygon normal
Poly->CalcNormal(1);
}
// Build bounding box.
TempModel->BuildBound();
// Build BSP for the brush.
FBSPOps::bspBuild( TempModel,FBSPOps::BSP_Good,15,70,1,0 );
FBSPOps::bspRefresh( TempModel, 1 );
FBSPOps::bspBuildBounds( TempModel );
// Convert collision model into a collection of convex hulls.
// Generated convex hulls will be added to existing ones
BodySetup->CreateFromModel( TempModel, false );
}
}
/**
* Duplicates the specified brush and makes it into a CSG-able level brush.
* @return The new brush, or NULL if the original was empty.
*/
void FBSPOps::csgCopyBrush( ABrush* Dest, ABrush* Src, uint32 PolyFlags, EObjectFlags ResFlags, bool bNeedsPrep, bool bCopyPosRotScale, bool bAllowEmpty )
{
check(Src);
check(Src->BrushComponent);
check(Src->Brush);
// Handle empty brush.
if( !bAllowEmpty && !Src->Brush->Polys->Element.Num() )
{
Dest->Brush = NULL;
Dest->BrushComponent->Brush = NULL;
return;
}
// Duplicate the brush and its polys.
Dest->PolyFlags = PolyFlags;
Dest->Brush = new( Dest, NAME_None, ResFlags )UModel(FPostConstructInitializeProperties(), NULL, Src->Brush->RootOutside );
Dest->Brush->Polys = new( Dest->Brush, NAME_None, ResFlags )UPolys(FPostConstructInitializeProperties());
check(Dest->Brush->Polys->Element.GetOwner()==Dest->Brush->Polys);
Dest->Brush->Polys->Element.AssignButKeepOwner(Src->Brush->Polys->Element);
check(Dest->Brush->Polys->Element.GetOwner()==Dest->Brush->Polys);
Dest->BrushComponent->Brush = Dest->Brush;
if(Src->BrushBuilder != nullptr)
{
Dest->BrushBuilder = DuplicateObject<UBrushBuilder>(Src->BrushBuilder, Dest);
}
// Update poly textures.
for( int32 i=0; i<Dest->Brush->Polys->Element.Num(); i++ )
{
Dest->Brush->Polys->Element[i].iBrushPoly = INDEX_NONE;
}
// Copy positioning, and build bounding box.
if(bCopyPosRotScale)
{
Dest->CopyPosRotScaleFrom( Src );
}
// If it's a moving brush, prep it.
if( bNeedsPrep )
{
csgPrepMovingBrush( Dest );
}
}
UTransactor* UEditorEngine::CreateTrans()
{
int32 UndoBufferSize;
if( !GConfig->GetInt( TEXT("Undo"), TEXT("UndoBufferSize"), UndoBufferSize, GEditorUserSettingsIni ) )
{
UndoBufferSize = 16;
}
return new UTransBuffer( FPostConstructInitializeProperties(),UndoBufferSize*1024*1024 );
}
void UPackageMap::PostInitProperties()
{
Super::PostInitProperties();
bShouldSerializeUnAckedObjects = true;
bSerializedUnAckedObject = false;
// Create the NetGUIDCache now if we don't have one. The pattern should be that the MasterMap (a plain UPackageMap) will always
// create one here, but UPackageMapClient and other subclasses will take thier Cache in as a parameter so that is it shared
// (e.g., one 1 UNetGUIDCache exists on the server and is referenced be each client connection's package map).
//
// This also keeps subclasses from <i>requiring</i> a master map to pass in their UNetGUIDCache; if we don't pass one in on construction
// they can use their own and still work. This may be useful for 'sideways' connections or other backend communication
if ( !Cache && !HasAnyFlags(RF_ClassDefaultObject) )
{
Cache = new UNetGUIDCache (FPostConstructInitializeProperties());
}
}
void FShadowMapPendingTexture::StartEncoding(UWorld* InWorld)
{
// Create the shadow-map texture.
UShadowMapTexture2D* Texture = new(Outer) UShadowMapTexture2D(FPostConstructInitializeProperties());
Texture->Filter = GUseBilinearLightmaps ? TF_Default : TF_Nearest;
// Signed distance field textures get stored in linear space, since they need more precision near .5.
Texture->SRGB = false;
Texture->LODGroup = TEXTUREGROUP_Shadowmap;
Texture->ShadowmapFlags = ShadowmapFlags;
Texture->Source.Init2DWithMipChain(GetSizeX(), GetSizeY(), TSF_BGRA8);
Texture->MipGenSettings = TMGS_LeaveExistingMips;
Texture->CompressionNone = true;
int32 TextureSizeX = Texture->Source.GetSizeX();
int32 TextureSizeY = Texture->Source.GetSizeY();
{
// Create the uncompressed top mip-level.
TArray< TArray<FFourDistanceFieldSamples> > MipData;
FShadowMap2D::EncodeSingleTexture(*this, Texture, MipData);
// Copy the mip-map data into the UShadowMapTexture2D's mip-map array.
for(int32 MipIndex = 0;MipIndex < MipData.Num();MipIndex++)
{
FColor* DestMipData = (FColor*)Texture->Source.LockMip(MipIndex);
uint32 MipSizeX = FMath::Max(1,TextureSizeX >> MipIndex);
uint32 MipSizeY = FMath::Max(1,TextureSizeY >> MipIndex);
for(uint32 Y = 0;Y < MipSizeY;Y++)
{
for(uint32 X = 0;X < MipSizeX;X++)
{
const FFourDistanceFieldSamples& SourceSample = MipData[MipIndex][Y * MipSizeX + X];
DestMipData[ Y * MipSizeX + X ] = FColor(SourceSample.Samples[0].Distance, SourceSample.Samples[1].Distance, SourceSample.Samples[2].Distance, SourceSample.Samples[3].Distance);
}
}
Texture->Source.UnlockMip(MipIndex);
}
}
// Update stats.
int32 TextureSize = Texture->CalcTextureMemorySizeEnum( TMC_AllMips );
GNumShadowmapTotalTexels += TextureSizeX * TextureSizeY;
GNumShadowmapTextures++;
GShadowmapTotalSize += TextureSize;
GShadowmapTotalStreamingSize += (ShadowmapFlags & SMF_Streamed) ? TextureSize : 0;
UPackage* TexturePackage = Texture->GetOutermost();
for ( int32 LevelIndex=0; TexturePackage && LevelIndex < InWorld->GetNumLevels(); LevelIndex++ )
{
ULevel* Level = InWorld->GetLevel(LevelIndex);
UPackage* LevelPackage = Level->GetOutermost();
if ( TexturePackage == LevelPackage )
{
Level->ShadowmapTotalSize += float(TextureSize) / 1024.0f;
break;
}
}
// Update the texture resource.
Texture->BeginCachePlatformData();
Texture->FinishCachePlatformData();
Texture->UpdateResource();
}
bool UDemoNetDriver::InitConnect( FNetworkNotify* InNotify, const FURL& ConnectURL, FString& Error )
{
// handle default initialization
if ( !InitBase( true, InNotify, ConnectURL, false, Error ) )
{
return false;
}
// open the pre-recorded demo file
FileAr = IFileManager::Get().CreateFileReader( *DemoFilename );
if ( !FileAr )
{
Error = FString::Printf( TEXT( "Couldn't open demo file %s for reading" ), *DemoFilename );
UE_LOG( LogDemo, Error, TEXT( "UDemoNetDriver::InitConnect: %s" ), *Error );
return false;
}
// Playback, local machine is a client, and the demo stream acts "as if" it's the server.
ServerConnection = ConstructObject<UNetConnection>( UDemoNetConnection::StaticClass() );
ServerConnection->InitConnection( this, USOCK_Pending, ConnectURL, 1000000 );
#if 1
// Create fake control channel
ServerConnection->CreateChannel( CHTYPE_Control, 1 );
#endif
// use the same byte format regardless of platform so that the demos are cross platform
// DEMO_FIXME: This is messing up for some reason, investigate
//FileAr->SetByteSwapping( true );
int32 EngineVersion = 0;
(*FileAr) << EngineVersion;
(*FileAr) << PlaybackTotalFrames;
UE_LOG( LogDemo, Log, TEXT( "Starting demo playback with demo. Filename: %s, Frames: %i, Version %i" ), *DemoFilename, PlaybackTotalFrames, EngineVersion );
#if 1
// Bypass UDemoPendingNetLevel
FString LevelName;
(*FileAr) << LevelName;
FString LoadMapError;
FURL DemoURL;
DemoURL.Map = LevelName;
FWorldContext * WorldContext = GEngine->GetWorldContextFromWorld( World );
if ( WorldContext == NULL )
{
Error = FString::Printf( TEXT( "No world context" ), *DemoFilename );
UE_LOG( LogDemo, Error, TEXT( "UDemoNetDriver::InitConnect: %s" ), *Error );
return false;
}
World->DemoNetDriver = NULL;
SetWorld( NULL );
UDemoPendingNetGame * NewPendingNetGame = new UDemoPendingNetGame( FPostConstructInitializeProperties() );
NewPendingNetGame->DemoNetDriver = this;
WorldContext->PendingNetGame = NewPendingNetGame;
if ( !GEngine->LoadMap( *WorldContext, DemoURL, NewPendingNetGame, LoadMapError ) )
{
Error = LoadMapError;
UE_LOG( LogDemo, Error, TEXT( "UDemoNetDriver::InitConnect: LoadMap failed: failed: %s" ), *Error );
return false;
}
SetWorld( WorldContext->World() );
WorldContext->World()->DemoNetDriver = this;
WorldContext->PendingNetGame = NULL;
#endif
int32 NumStreamingLevels = 0;
(*FileAr) << NumStreamingLevels;
for ( int32 i = 0; i < NumStreamingLevels; ++i )
{
ULevelStreamingKismet* StreamingLevel = static_cast<ULevelStreamingKismet*>(StaticConstructObject(ULevelStreamingKismet::StaticClass(), GetWorld(), NAME_None, RF_NoFlags, NULL ) );
StreamingLevel->bShouldBeLoaded = true;
StreamingLevel->bShouldBeVisible = true;
StreamingLevel->bShouldBlockOnLoad = false;
StreamingLevel->bInitiallyLoaded = true;
StreamingLevel->bInitiallyVisible = true;
FString PackageName;
FString PackageNameToLoad;
(*FileAr) << PackageName;
(*FileAr) << PackageNameToLoad;
(*FileAr) << StreamingLevel->LevelTransform;
StreamingLevel->PackageNameToLoad = FName( *PackageNameToLoad );
StreamingLevel->SetWorldAssetByPackageName( FName( *PackageName ) );
GetWorld()->StreamingLevels.Add( StreamingLevel );
UE_LOG( LogDemo, Log, TEXT( " Loading streamingLevel: %s, %s" ), *PackageName, *PackageNameToLoad );
}
DemoDeltaTime = 0;
return true;
}
UObject* USoundModImporterFactory::FactoryCreateBinary
(
UClass* Class,
UObject* InParent,
FName Name,
EObjectFlags Flags,
UObject* Context,
const TCHAR* FileType,
const uint8*& Buffer,
const uint8* BufferEnd,
FFeedbackContext* Warn
)
{
// if the sound already exists, remember the user settings
USoundMod* ExistingSound = FindObject<USoundMod>(InParent, *Name.ToString());
// TODO - Audio Threading. This needs to be sent to the audio device and wait on stopping the sounds
TArray<UAudioComponent*> ComponentsToRestart;
FAudioDevice* AudioDevice = GEngine->GetAudioDevice();
if (AudioDevice && ExistingSound)
{
// TODO: Generalize the stop sounds function
//AudioDevice->StopSoundsForReimport(ExistingSound, ComponentsToRestart);
}
bool bUseExistingSettings = bSoundModFactorySuppressImportOverwriteDialog;
if (ExistingSound && !bUseExistingSettings && !GIsAutomationTesting)
{
// Prompt the user for what to do if a 'To All' response wasn't already given.
if (OverwriteYesOrNoToAllState != EAppReturnType::YesAll && OverwriteYesOrNoToAllState != EAppReturnType::NoAll)
{
OverwriteYesOrNoToAllState = FMessageDialog::Open(EAppMsgType::YesNoYesAllNoAllCancel, FText::Format(
NSLOCTEXT("UnrealEd", "ImportedSoundAlreadyExists_F", "You are about to import '{0}' over an existing sound. Would you like to overwrite the existing settings?\n\nYes or Yes to All: Overwrite the existing settings.\nNo or No to All: Preserve the existing settings.\nCancel: Abort the operation."),
FText::FromName(Name)));
}
switch (OverwriteYesOrNoToAllState)
{
case EAppReturnType::Yes:
case EAppReturnType::YesAll:
{
// Overwrite existing settings
bUseExistingSettings = false;
break;
}
case EAppReturnType::No:
case EAppReturnType::NoAll:
{
// Preserve existing settings
bUseExistingSettings = true;
break;
}
default:
{
FEditorDelegates::OnAssetPostImport.Broadcast(this, NULL);
return NULL;
}
}
}
// Reset the flag back to false so subsequent imports are not suppressed unless the code explicitly suppresses it
bSoundModFactorySuppressImportOverwriteDialog = false;
TArray<uint8> RawModData;
RawModData.Empty(BufferEnd - Buffer);
RawModData.AddUninitialized(BufferEnd - Buffer);
FMemory::Memcpy(RawModData.GetData(), Buffer, RawModData.Num());
// TODO: Validate that this is actually a mod file
xmp_context xmpContext = xmp_create_context();
if (xmp_load_module_from_memory(xmpContext, RawModData.GetData(), RawModData.Num()) != 0)
{
return NULL;
}
xmp_module_info xmpModuleInfo;
xmp_get_module_info(xmpContext, &xmpModuleInfo);
// Use pre-existing sound if it exists and we want to keep settings,
// otherwise create new sound and import raw data.
USoundMod* Sound = (bUseExistingSettings && ExistingSound) ? ExistingSound : new(InParent, Name, Flags) USoundMod(FPostConstructInitializeProperties());
Sound->Duration = xmpModuleInfo.seq_data->duration / 1000.f;
xmp_release_module(xmpContext);
xmp_free_context(xmpContext);
Sound->RawData.Lock(LOCK_READ_WRITE);
void* LockedData = Sound->RawData.Realloc(BufferEnd - Buffer);
FMemory::Memcpy(LockedData, Buffer, BufferEnd - Buffer);
Sound->RawData.Unlock();
FEditorDelegates::OnAssetPostImport.Broadcast(this, Sound);
for (int32 ComponentIndex = 0; ComponentIndex < ComponentsToRestart.Num(); ++ComponentIndex)
{
ComponentsToRestart[ComponentIndex]->Play();
}
return Sound;
}
