void UExporter::ExportComponentDefinitions(const FExportObjectInnerContext* Context, const TArray<UObject*>& Components, FOutputDevice& Ar, uint32 PortFlags)
{
PortFlags |= PPF_ExportsNotFullyQualified;
if (!(PortFlags & PPF_SeparateDefine))
{
// export forward declarations
// technically we only need to do this if there are circular references but it doesn't seem worth it
// to complicate this code for a minor speed improvement in the text import path
for (int32 ComponentIndex = 0; ComponentIndex < Components.Num(); ComponentIndex++)
{
UObject* Component = Components[ComponentIndex];
FName ComponentName = Component->GetFName();
if (!Component->HasAnyMarks(OBJECTMARK_TagImp) && !Component->HasAnyFlags(RF_TextExportTransient))
{
if (Component->HasAnyFlags(RF_ClassDefaultObject) || Component->GetArchetype()->HasAllFlags(RF_ClassDefaultObject))
{
Ar.Logf(TEXT("%sBegin Object Class=%s Name=%s ObjName=%s%s"), FCString::Spc(TextIndent), *Component->GetClass()->GetName(), *ComponentName.ToString(), *Component->GetName(), LINE_TERMINATOR);
}
else
{
Ar.Logf(TEXT("%sBegin Object Class=%s Name=%s ObjName=%s Archetype=%s'%s'%s"),FCString::Spc(TextIndent),*Component->GetClass()->GetName(), *ComponentName.ToString(), *Component->GetName(), *Component->GetArchetype()->GetClass()->GetName(), *Component->GetArchetype()->GetPathName(), LINE_TERMINATOR);
}
if (PortFlags & PPF_SeparateDeclare)
{
ExportObjectInner(Context, Component, Ar, PortFlags, false);
}
Ar.Logf(TEXT("%sEnd Object%s"), FCString::Spc(TextIndent), LINE_TERMINATOR);
}
}
}
if (!(PortFlags & PPF_SeparateDeclare))
{
// export property definitions
for (int32 ComponentIndex = 0; ComponentIndex < Components.Num(); ComponentIndex++)
{
UObject* Component = Components[ComponentIndex];
FName ComponentName = Component->GetFName();
if (!Component->HasAnyMarks(OBJECTMARK_TagImp) && !Component->HasAnyFlags(RF_TextExportTransient))
{
Ar.Logf(TEXT("%sBegin Object Name=%s%s"), FCString::Spc(TextIndent), *ComponentName.ToString(), LINE_TERMINATOR);
uint32 OldPortFlags = PortFlags;
if (!(Component->HasAnyFlags(RF_ClassDefaultObject) || Component->GetArchetype()->HasAllFlags(RF_ClassDefaultObject)))
{
// we created this thing with an archetype (see archetype=, above), so we don't want to list the archetype because it is unqualified and will clash, resetting the archetype pointer to something silly
PortFlags |= PPF_NoInternalArcheType;
}
ExportObjectInner(Context, Component, Ar, PortFlags, false);
PortFlags = OldPortFlags;
Ar.Logf(TEXT("%sEnd Object%s"), FCString::Spc(TextIndent), LINE_TERMINATOR);
Component->Mark(OBJECTMARK_TagImp);
}
}
}
}
void ConsoleCommandLibrary_DumpLibrary(UWorld* InWorld, FExec& SubSystem, const FString& Pattern, FOutputDevice& Ar)
{
ConsoleCommandLibrary LocalConsoleCommandLibrary(Pattern);
FOutputDeviceNull Null;
bool bExecuted = SubSystem.Exec( InWorld, *Pattern, Null);
{
IConsoleManager::Get().ForEachConsoleObjectThatStartsWith(
FConsoleObjectVisitor::CreateStatic< TSet<FString>& >(
&FConsoleVariableDumpVisitor::OnConsoleVariable,
LocalConsoleCommandLibrary.KnownNames ) );
}
LocalConsoleCommandLibrary.KnownNames.Sort( TLess<FString>() );
for(TSet<FString>::TConstIterator It(LocalConsoleCommandLibrary.KnownNames); It; ++It)
{
const FString Name = *It;
Ar.Logf(TEXT("%s"), *Name);
}
Ar.Logf(TEXT(""));
// the pattern (e.g. Motion*) should not really trigger the execution
if(bExecuted)
{
Ar.Logf(TEXT("ERROR: The function was supposed to only find matching commands but not have any side effect."));
Ar.Logf(TEXT("However Exec() returned true which means we either executed a command or the command parsing returned true where it shouldn't."));
}
}
void FObjectMemoryAnalyzer::PrintResults(FOutputDevice& Ar, uint32 PrintFlags)
{
TArray<FObjectMemoryUsage> Results;
GetResults(Results);
Results.Sort(FCompareFSortBySize(ESortKey::InclusiveTotal));
Ar.Logf( TEXT("%-100s %-10s %-10s %-10s %-10s"), TEXT("Object"), TEXT("InclBytes"), TEXT("ExclBytes"), TEXT("InclResKBytes"), TEXT("ExclResKBytes") );
for( int32 i=0; i < Results.Num(); ++i )
{
const FObjectMemoryUsage& Annotation = Results[i];
if (Annotation.IsRoot() || (Annotation.RootReferencer.Num() == 0 && Annotation.NonRootReferencer.Num() == 0) )
{
Ar.Logf( TEXT("%-100s %-10d %-10d %-10d %-10d"), *FString::Printf(TEXT("%s %s"), *Annotation.Object->GetClass()->GetName(), *Annotation.Object->GetName()),
(int32)Annotation.InclusiveMemoryUsage, (int32)Annotation.ExclusiveMemoryUsage,
(int32)(Annotation.InclusiveResourceSize/1024), (int32)(Annotation.ExclusiveResourceSize/1024) );
if (!!(PrintFlags&EPrintFlags::PrintReferences))
{
PrintSubObjects(Ar, TEXT(" -> "), Annotation.Object, PrintFlags);
}
}
}
}
/**
* Dump allocation information.
*/
void FBestFitAllocator::DumpAllocs( FOutputDevice& Ar/*=*GLog*/ )
{
// Memory usage stats.
INT UsedSize = 0;
INT FreeSize = 0;
INT NumUsedChunks = 0;
INT NumFreeChunks = 0;
// Fragmentation and allocation size visualization.
INT NumBlocks = MemorySize / AllocationAlignment;
INT Dimension = 1 + NumBlocks / appTrunc(appSqrt(NumBlocks));
TArray<FColor> AllocationVisualization;
AllocationVisualization.AddZeroed( Dimension * Dimension );
INT VisIndex = 0;
// Traverse linked list and gather allocation information.
FMemoryChunk* CurrentChunk = FirstChunk;
while( CurrentChunk )
{
FColor VisColor;
// Free chunk.
if( CurrentChunk->bIsAvailable )
{
NumFreeChunks++;
FreeSize += CurrentChunk->Size;
VisColor = FColor(0,255,0);
}
// Allocated chunk.
else
{
NumUsedChunks++;
UsedSize += CurrentChunk->Size;
// Slightly alternate coloration to also visualize allocation sizes.
if( NumUsedChunks % 2 == 0 )
{
VisColor = FColor(255,0,0);
}
else
{
VisColor = FColor(192,0,0);
}
}
for( INT i=0; i<(CurrentChunk->Size/AllocationAlignment); i++ )
{
AllocationVisualization(VisIndex++) = VisColor;
}
CurrentChunk = CurrentChunk->NextChunk;
}
check(UsedSize == AllocatedMemorySize);
check(FreeSize == AvailableMemorySize);
// Write out bitmap for visualization of fragmentation and allocation patterns.
appCreateBitmap( TEXT("..\\..\\Binaries\\TextureMemory"), Dimension, Dimension, AllocationVisualization.GetTypedData() );
Ar.Logf( TEXT("BestFitAllocator: Allocated %i KByte in %i chunks, leaving %i KByte in %i chunks."), UsedSize / 1024, NumUsedChunks, FreeSize / 1024, NumFreeChunks );
Ar.Logf( TEXT("BestFitAllocator: %5.2f ms in allocator"), TimeSpentInAllocator * 1000 );
}
/**
* Dumps capture stack trace summary to the passed in log.
*/
void FScriptStackTracker::DumpStackTraces( int32 StackThreshold, FOutputDevice& Ar )
{
// Avoid distorting results while we log them.
check( !bAvoidCapturing );
bAvoidCapturing = true;
// Make a copy as sorting causes index mismatch with TMap otherwise.
TArray<FCallStack> SortedCallStacks = CallStacks;
// Compare function, sorting callstack by stack count in descending order.
struct FCompareStackCount
{
FORCEINLINE bool operator()( const FCallStack& A, const FCallStack& B ) const { return B.StackCount < A.StackCount; }
};
// Sort callstacks in descending order by stack count.
SortedCallStacks.Sort( FCompareStackCount() );
// Iterate over each callstack to get total stack count.
uint64 TotalStackCount = 0;
for( int32 CallStackIndex=0; CallStackIndex<SortedCallStacks.Num(); CallStackIndex++ )
{
const FCallStack& CallStack = SortedCallStacks[CallStackIndex];
TotalStackCount += CallStack.StackCount;
}
// Calculate the number of frames we captured.
int32 FramesCaptured = 0;
if( bIsEnabled )
{
FramesCaptured = GFrameCounter - StartFrameCounter;
}
else
{
FramesCaptured = StopFrameCounter - StartFrameCounter;
}
// Log quick summary as we don't log each individual so totals in CSV won't represent real totals.
Ar.Logf(TEXT("Captured %i unique callstacks totalling %i function calls over %i frames, averaging %5.2f calls/frame"), SortedCallStacks.Num(), (int32)TotalStackCount, FramesCaptured, (float) TotalStackCount / FramesCaptured);
// Iterate over each callstack and write out info in human readable form in CSV format
for( int32 CallStackIndex=0; CallStackIndex<SortedCallStacks.Num(); CallStackIndex++ )
{
const FCallStack& CallStack = SortedCallStacks[CallStackIndex];
// Avoid log spam by only logging above threshold.
if( CallStack.StackCount > StackThreshold )
{
// First row is stack count.
FString CallStackString = FString::FromInt((int32)CallStack.StackCount);
CallStackString += LINE_TERMINATOR;
CallStackString += CallStack.StackTrace;
// Finally log with ',' prefix so "Log:" can easily be discarded as row in Excel.
Ar.Logf(TEXT(",%s"),*CallStackString);
}
}
// Done logging.
bAvoidCapturing = false;
}
void UExporter::EmitEndObject( FOutputDevice& Ar )
{
if ( bEnableDebugBrackets )
{
Ar.Logf(TEXT("%s}%s"), FCString::Spc(TextIndent), LINE_TERMINATOR);
}
Ar.Logf( TEXT("%sEnd Object\r\n"), FCString::Spc(TextIndent) );
}
void UK2Node_EditablePinBase::ExportCustomProperties(FOutputDevice& Out, uint32 Indent)
{
for (int32 PinIndex = 0; PinIndex < UserDefinedPins.Num(); ++PinIndex)
{
const FUserPinInfo& PinInfo = *UserDefinedPins[PinIndex].Get();
Out.Logf( TEXT("%sCustomProperties UserDefinedPin "), FCString::Spc(Indent));
Out.Logf( TEXT("Name=%s "), *PinInfo.PinName);
Out.Logf( TEXT("IsArray=%s "), (PinInfo.PinType.bIsArray ? TEXT("1") : TEXT("0")));
Out.Logf( TEXT("IsReference=%s "), (PinInfo.PinType.bIsReference ? TEXT("1") : TEXT("0")));
if (PinInfo.PinType.PinCategory.Len() > 0)
{
Out.Logf( TEXT("Category=%s "), *PinInfo.PinType.PinCategory);
}
if (PinInfo.PinType.PinSubCategory.Len() > 0)
{
Out.Logf( TEXT("SubCategory=%s "), *PinInfo.PinType.PinSubCategory);
}
if (PinInfo.PinType.PinSubCategoryObject.IsValid())
{
Out.Logf( TEXT("SubCategoryObject=%s "), *PinInfo.PinType.PinSubCategoryObject.Get()->GetPathName());
}
if (PinInfo.PinDefaultValue.Len() > 0)
{
Out.Logf( TEXT("DefaultValue=%s "), *PinInfo.PinDefaultValue);
}
Out.Logf( TEXT("\r\n"));
}
}
/**
* Dumps capture stack trace summary to the passed in log.
*/
void FScriptStackTracker::DumpStackTraces( INT StackThreshold, FOutputDevice& Ar )
{
// Avoid distorting results while we log them.
check( !bAvoidCapturing );
bAvoidCapturing = TRUE;
// Make a copy as sorting causes index mismatch with TMap otherwise.
TArray<FCallStack> SortedCallStacks = CallStacks;
// Sort callstacks in descending order by stack count.
Sort<USE_COMPARE_CONSTREF(FCallStack,StackTracker)>( SortedCallStacks.GetTypedData(), SortedCallStacks.Num() );
// Iterate over each callstack to get total stack count.
QWORD TotalStackCount = 0;
for( INT CallStackIndex=0; CallStackIndex<SortedCallStacks.Num(); CallStackIndex++ )
{
const FCallStack& CallStack = SortedCallStacks(CallStackIndex);
TotalStackCount += CallStack.StackCount;
}
// Calculate the number of frames we captured.
INT FramesCaptured = 0;
if( bIsEnabled )
{
FramesCaptured = GFrameCounter - StartFrameCounter;
}
else
{
FramesCaptured = StopFrameCounter - StartFrameCounter;
}
// Log quick summary as we don't log each individual so totals in CSV won't represent real totals.
Ar.Logf(TEXT("Captured %i unique callstacks totalling %i function calls over %i frames, averaging %5.2f calls/frame"), SortedCallStacks.Num(), (int)TotalStackCount, FramesCaptured, (FLOAT) TotalStackCount / FramesCaptured);
// Iterate over each callstack and write out info in human readable form in CSV format
for( INT CallStackIndex=0; CallStackIndex<SortedCallStacks.Num(); CallStackIndex++ )
{
const FCallStack& CallStack = SortedCallStacks(CallStackIndex);
// Avoid log spam by only logging above threshold.
if( CallStack.StackCount > StackThreshold )
{
// First row is stack count.
FString CallStackString = appItoa(CallStack.StackCount);
CallStackString += LINE_TERMINATOR;
CallStackString += CallStack.StackTrace;
// Finally log with ',' prefix so "Log:" can easily be discarded as row in Excel.
Ar.Logf(TEXT(",%s"),*CallStackString);
}
}
// Done logging.
bAvoidCapturing = FALSE;
}
void FHttpManager::DumpRequests(FOutputDevice& Ar) const
{
FScopeLock ScopeLock(&RequestLock);
Ar.Logf(TEXT("------- (%d) Http Requests"), Requests.Num());
for (const TSharedRef<IHttpRequest>& Request : Requests)
{
Ar.Logf(TEXT(" verb=[%s] url=[%s] status=%s"),
*Request->GetVerb(), *Request->GetURL(), EHttpRequestStatus::ToString(Request->GetStatus()));
}
}
/**
* Outputs the contents of the ObjectMap to the specified output device.
*/
void FTransaction::DumpObjectMap(FOutputDevice& Ar) const
{
Ar.Logf( TEXT("===== DumpObjectMap %s ==== "), *Title.ToString() );
for ( ObjectMapType::TConstIterator It(ObjectMap) ; It ; ++It )
{
const UObject* CurrentObject = It.Key();
const int32 SaveCount = It.Value();
Ar.Logf( TEXT("%i\t: %s"), SaveCount, *CurrentObject->GetPathName() );
}
Ar.Logf( TEXT("=== EndDumpObjectMap %s === "), *Title.ToString() );
}
bool UIpNetDriver::HandleSocketsCommand( const TCHAR* Cmd, FOutputDevice& Ar, UWorld* InWorld )
{
Ar.Logf(TEXT(""));
if (Socket != NULL)
{
TSharedRef<FInternetAddr> LocalAddr = GetSocketSubsystem()->CreateInternetAddr();
Socket->GetAddress(*LocalAddr);
Ar.Logf(TEXT("%s Socket: %s"), *GetDescription(), *LocalAddr->ToString(true));
}
else
{
Ar.Logf(TEXT("%s Socket: null"), *GetDescription());
}
return UNetDriver::Exec( InWorld, TEXT("SOCKETS"),Ar);
}
bool FOSVRHMD::Exec(UWorld* InWorld, const TCHAR* Cmd, FOutputDevice& Ar)
{
if (FParse::Command(&Cmd, TEXT("STEREO")))
{
if (FParse::Command(&Cmd, TEXT("ON")))
{
if (!IsHMDEnabled())
{
Ar.Logf(TEXT("HMD is disabled. Use 'hmd enable' to re-enable it."));
}
EnableStereo(true);
return true;
}
else if (FParse::Command(&Cmd, TEXT("OFF")))
{
EnableStereo(false);
return true;
}
}
else if (FParse::Command(&Cmd, TEXT("HMD")))
{
if (FParse::Command(&Cmd, TEXT("ENABLE")))
{
EnableHMD(true);
return true;
}
else if (FParse::Command(&Cmd, TEXT("DISABLE")))
{
EnableHMD(false);
return true;
}
}
else if (FParse::Command(&Cmd, TEXT("UNCAPFPS")))
{
GEngine->bSmoothFrameRate = false;
return true;
}
else if (FParse::Command(&Cmd, TEXT("HEADTRACKING")))
{
FString val;
if (FParse::Value(Cmd, TEXT("SOURCE="), val))
{
EnablePositionalTracking(false);
//OSVRInterfaceName = val;
EnablePositionalTracking(true);
}
if (FParse::Command(&Cmd, TEXT("ENABLE")))
{
EnablePositionalTracking(true);
return true;
}
else if (FParse::Command(&Cmd, TEXT("DISABLE")))
{
EnablePositionalTracking(false);
return true;
}
}
return false;
}
bool UGameEngine::HandleMinimizeCommand( const TCHAR *Cmd, FOutputDevice &Ar )
{
Ar.Log( TEXT("Minimize by request") );
FPlatformMisc::RequestMinimize();
return true;
}
bool UGameEngine::HandleExitCommand( const TCHAR* Cmd, FOutputDevice& Ar )
{
Ar.Log( TEXT("Closing by request") );
FGameDelegates::Get().GetExitCommandDelegate().Broadcast();
FPlatformMisc::RequestExit( 0 );
return true;
}
/**
* Exec handler implementation.
*
* @param InWorld World context
* @param Cmd Command to parse
* @param Ar Output device to log to
*
* @return true if command was handled, false otherwise
*/
bool FSystemSettings::Exec( UWorld* InWorld, const TCHAR* Cmd, FOutputDevice& Ar )
{
FSystemSettingsData OldSystemSettings = *this;
// Keep track whether the command was handled or not.
bool bHandledCommand = false;
if( FParse::Command(&Cmd,TEXT("SCALE")) )
{
// Some of these settings are used in both threads so we need to stop the rendering thread before changing them.
FlushRenderingCommands();
if( FParse::Command(&Cmd,TEXT("LOWEND")) )
{
bHandledCommand = HandleLowendCommand( Cmd, Ar );
}
else if( FParse::Command(&Cmd,TEXT("HIGHEND")) )
{
bHandledCommand = HandleHighendCommand( Cmd, Ar );
}
if (!bHandledCommand)
{
Ar.Logf(TEXT("Unrecognized system setting (note that console variables can be set much easier)"));
}
else
{
// Write the new settings to the INI.
SaveToIni();
}
}
return bHandledCommand;
}
/**
* The unsynchronized version of FlushThreadedLogs.
* Assumes that the caller holds a lock on SynchronizationObject.
*/
void FOutputDeviceRedirector::UnsynchronizedFlushThreadedLogs( bool bUseAllDevices )
{
for(int32 LineIndex = 0;LineIndex < BufferedLines.Num();LineIndex++)
{
FBufferedLine BufferedLine = BufferedLines[LineIndex];
for( int32 OutputDeviceIndex=0; OutputDeviceIndex<OutputDevices.Num(); OutputDeviceIndex++ )
{
FOutputDevice* OutputDevice = OutputDevices[OutputDeviceIndex];
if( OutputDevice->CanBeUsedOnAnyThread() || bUseAllDevices )
{
OutputDevice->Serialize( *BufferedLine.Data, BufferedLine.Verbosity, BufferedLine.Category, BufferedLine.Time );
}
}
}
BufferedLines.Empty();
}
void FPakPlatformFile::HandlePakListCommand(const TCHAR* Cmd, FOutputDevice& Ar)
{
TArray<FPakListEntry> Paks;
GetMountedPaks(Paks);
for (auto Pak : Paks)
{
Ar.Logf(TEXT("%s"), *Pak.PakFile->GetFilename());
}
}
virtual bool Exec( class UWorld* InWorld, const TCHAR* Cmd, FOutputDevice& Ar )
{
if (FParse::Command(&Cmd, TEXT("TOGGLESTATECACHE")))
{
GD3D11SkipStateCaching = !GD3D11SkipStateCaching;
Ar.Log(FString::Printf(TEXT("D3D11 State Caching: %s"), GD3D11SkipStateCaching ? TEXT("OFF") : TEXT("ON")));
return true;
}
return false;
}
static void DumpRHIMemory(FOutputDevice& OutputDevice)
{
TArray<FStatMessage> Stats;
GetPermanentStats(Stats);
FName NAME_STATGROUP_RHI(FStatGroup_STATGROUP_RHI::GetGroupName());
OutputDevice.Logf(TEXT("RHI resource memory (not tracked by our allocator)"));
int64 TotalMemory = 0;
for (int32 Index = 0; Index < Stats.Num(); Index++)
{
FStatMessage const& Meta = Stats[Index];
FName LastGroup = Meta.NameAndInfo.GetGroupName();
if (LastGroup == NAME_STATGROUP_RHI && Meta.NameAndInfo.GetFlag(EStatMetaFlags::IsMemory))
{
OutputDevice.Logf(TEXT("%s"), *FStatsUtils::DebugPrint(Meta));
TotalMemory += Meta.GetValue_int64();
}
}
OutputDevice.Logf(TEXT("%.3fMB total"), TotalMemory / 1024.f / 1024.f);
}
void FOutputDeviceRedirector::PanicFlushThreadedLogs()
{
SCOPE_CYCLE_COUNTER(STAT_FlushThreadedLogs);
// Acquire a lock on SynchronizationObject and call the unsynchronized worker function.
FScopeLock ScopeLock( &SynchronizationObject );
// Flush threaded logs, but use the safe version.
UnsynchronizedFlushThreadedLogs( false );
// Flush devices.
for (int32 OutputDeviceIndex = 0; OutputDeviceIndex<OutputDevices.Num(); OutputDeviceIndex++)
{
FOutputDevice* OutputDevice = OutputDevices[OutputDeviceIndex];
if (OutputDevice->CanBeUsedOnAnyThread())
{
OutputDevice->Flush();
}
}
BufferedLines.Empty();
}
// Disassemble all functions in any classes that have matching names.
void FKismetBytecodeDisassembler::DisassembleAllFunctionsInClasses(FOutputDevice& Ar, const FString& ClassnameSubstring)
{
FKismetBytecodeDisassembler Disasm(Ar);
for (TObjectIterator<UClass> ClassIter; ClassIter; ++ClassIter)
{
UClass* Class = *ClassIter;
FString ClassName = Class->GetName();
if (FCString::Strfind(*ClassName, *ClassnameSubstring))
{
Ar.Logf(TEXT("Processing class %s"), *ClassName);
for (TFieldIterator<UFunction> FunctionIter(Class, EFieldIteratorFlags::ExcludeSuper); FunctionIter; ++FunctionIter)
{
UFunction* Function = *FunctionIter;
FString FunctionName = Function->GetName();
Ar.Logf(TEXT(" Processing function %s (%d bytes)"), *FunctionName, Function->Script.Num());
Disasm.DisassembleStructure(Function);
Ar.Logf(TEXT(""));
}
Ar.Logf(TEXT(""));
Ar.Logf(TEXT("-----------"));
Ar.Logf(TEXT(""));
}
}
}
void UExporter::EmitBeginObject( FOutputDevice& Ar, UObject* Obj, uint32 PortFlags )
{
check(Obj);
// figure out how to export
bool bIsExportingDefaultObject = Obj->HasAnyFlags(RF_ClassDefaultObject) || Obj->GetArchetype()->HasAnyFlags(RF_ClassDefaultObject);
// start outputting the string for the Begin Object line
Ar.Logf(TEXT("%sBegin Object"), FCString::Spc(TextIndent));
if (!(PortFlags & PPF_SeparateDefine))
{
Ar.Logf(TEXT(" Class=%s"), *Obj->GetClass()->GetName());
}
// always need a name, adding "" for space handling
Ar.Logf(TEXT(" Name=\"%s\""), *Obj->GetName());
if (!(PortFlags & PPF_SeparateDefine))
{
// do we want the archetype string?
if (!bIsExportingDefaultObject)
{
Ar.Logf(TEXT(" Archetype=%s'%s'"), *Obj->GetArchetype()->GetClass()->GetName(), *Obj->GetArchetype()->GetPathName());
}
}
// end in a return
Ar.Logf(TEXT("\r\n"));
if ( bEnableDebugBrackets )
{
Ar.Logf(TEXT("%s{%s"), FCString::Spc(TextIndent), LINE_TERMINATOR);
}
}
void FName::DisplayHash( FOutputDevice& Ar )
{
int32 UsedBins=0, NameCount=0, MemUsed = 0;
for( int32 i=0; i<ARRAY_COUNT(NameHash); i++ )
{
if( NameHash[i] != NULL ) UsedBins++;
for( FNameEntry *Hash = NameHash[i]; Hash; Hash=Hash->HashNext )
{
NameCount++;
// Count how much memory this entry is using
MemUsed += FNameEntry::GetSize( Hash->GetNameLength(), Hash->IsWide() );
}
}
Ar.Logf( TEXT("Hash: %i names, %i/%i hash bins, Mem in bytes %i"), NameCount, UsedBins, ARRAY_COUNT(NameHash), MemUsed);
}
void FObjectMemoryAnalyzer::PrintSubObjects(FOutputDevice& Ar, const FString& Indent, UObject* Parent, uint32 PrintFlags)
{
TArray<UObject*> ReferencedObjects;
GetReferencedObjects(Parent, ReferencedObjects);
for( int32 ObjIndex = 0; ObjIndex < ReferencedObjects.Num(); ObjIndex++ )
{
UObject* SubObj = ReferencedObjects[ObjIndex];
const FObjectMemoryUsage& Annotation = GetObjectMemoryUsage(SubObj);
if (!Annotation.IsRoot())
{
Ar.Logf( TEXT("%-100s %-10d %-10d %-10d %-10d"), *FString::Printf(TEXT("%s%s %s"), *Indent, *SubObj->GetClass()->GetName(), *SubObj->GetName()),
(int32)Annotation.InclusiveMemoryUsage, (int32)Annotation.ExclusiveMemoryUsage,
(int32)(Annotation.InclusiveResourceSize/1024), (int32)(Annotation.ExclusiveResourceSize/1024) );
if (!!(PrintFlags&EPrintFlags::PrintReferencer))
{
for (int32 i=0; i < Annotation.NonRootReferencer.Num(); ++i)
{
Ar.Logf(TEXT("%s >> NonRootRef: %s"), *Indent, *Annotation.NonRootReferencer[i]->GetName());
}
for (int32 i=0; i < Annotation.RootReferencer.Num(); ++i)
{
Ar.Logf(TEXT("%s >> RootRef: %s"), *Indent, *Annotation.RootReferencer[i]->GetName());
}
}
if (!!(PrintFlags&EPrintFlags::PrintReferences))
{
PrintSubObjects(Ar, Indent + TEXT(" -> "), SubObj, PrintFlags);
}
}
}
}
/**
* Prints the subtitle associated with the SoundWave to the console
*/
void USoundWave::LogSubtitle( FOutputDevice& Ar )
{
FString Subtitle = "";
for( int32 i = 0; i < Subtitles.Num(); i++ )
{
Subtitle += Subtitles[ i ].Text.ToString();
}
if( Subtitle.Len() == 0 )
{
Subtitle = SpokenText;
}
if( Subtitle.Len() == 0 )
{
Subtitle = "<NO SUBTITLE>";
}
Ar.Logf( TEXT( "Subtitle: %s" ), *Subtitle );
#if WITH_EDITORONLY_DATA
Ar.Logf( TEXT( "Comment: %s" ), *Comment );
#endif // WITH_EDITORONLY_DATA
Ar.Logf( bMature ? TEXT( "Mature: Yes" ) : TEXT( "Mature: No" ) );
}
/**
* Process a "[cat] only" string command to the logging suppression system
* @param CmdString, string to process
* @return true if CmdString was a "[cat] only" string command, false otherwise
*/
bool ProcessLogOnly(const FString& CmdString, FOutputDevice& Ar)
{
TArray<FString> CommandParts;
CmdString.ParseIntoArrayWS(CommandParts);
if (CommandParts.Num() <= 1)
{
return false;
}
static FName NAME_Only(TEXT("only"));
if (NAME_Only != FName(*CommandParts[1]))
{
return false;
}
FName LogCategory = FName(*CommandParts[0]);
static const FString OffString = FString(" off");
static const FString OnString = FString(" Verbose");
for (auto It : Associations)
{
FName Name = It.Value;
if (Name == LogCategory)
{
ProcessCmdString(Name.ToString() + OnString);
FLogCategoryBase* Verb = It.Key;
Ar.Logf(TEXT("%s is now %s"), *CommandParts[0], FOutputDevice::VerbosityToString(Verb ? ELogVerbosity::Type(Verb->Verbosity) : ELogVerbosity::Verbose));
}
else
{
ProcessCmdString(Name.ToString() + OffString);
}
}
Ar.Logf(TEXT("Disabling other logs finished"));
return true;
}
bool VZipFileReader::Close()
{
guard(VZipFileReader::Close);
if (rest_read_uncompressed == 0)
{
if (Crc32 != Info.crc)
{
bError = true;
Error->Log("Bad CRC");
}
}
if (stream_initialised)
{
inflateEnd(&stream);
}
stream_initialised = false;
return !bError;
unguard;
}
bool UGameInstance::HandleOpenCommand(const TCHAR* Cmd, FOutputDevice& Ar, UWorld* InWorld)
{
check(WorldContext && WorldContext->World() == InWorld);
UEngine* const Engine = GetEngine();
FURL TestURL(&WorldContext->LastURL, Cmd, TRAVEL_Absolute);
if (TestURL.IsLocalInternal())
{
// make sure the file exists if we are opening a local file
if (!Engine->MakeSureMapNameIsValid(TestURL.Map))
{
Ar.Logf(TEXT("ERROR: The map '%s' does not exist."), *TestURL.Map);
return true;
}
}
Engine->SetClientTravel(InWorld, Cmd, TRAVEL_Absolute);
return true;
}
/** After the stack tracker reports a given stack trace, it calls this function
* which appends data particular to line checks
*/
static void LineCheckReportFn(const FStackTracker::FCallStack& CallStack, uint64 TotalStackCount, FOutputDevice& Ar)
{
//Output to a csv file any relevant data
LineCheckTracker::FLineCheckData* const LCData = static_cast<LineCheckTracker::FLineCheckData*>(CallStack.UserData);
if (LCData)
{
FString UserOutput = LINE_TERMINATOR TEXT(",,,");
UserOutput += (LCData->IsNonZeroExtent ? TEXT( "NonZeroExtent") : TEXT("ZeroExtent"));
for (TMap<const FName, LineCheckTracker::FLineCheckData::LineCheckObj>::TConstIterator It(LCData->LineCheckObjsMap); It; ++It)
{
UserOutput += LINE_TERMINATOR TEXT(",,,");
const LineCheckTracker::FLineCheckData::LineCheckObj &CurObj = It.Value();
UserOutput += FString::Printf(TEXT("%s (%d) : %s"), *CurObj.ObjectName.ToString(), CurObj.Count, *CurObj.DetailedInfo);
}
UserOutput += LINE_TERMINATOR TEXT(",,,");
Ar.Log(*UserOutput);
}
}
bool UGameEngine::HandleExitCommand( const TCHAR* Cmd, FOutputDevice& Ar )
{
for (int32 WorldIndex = 0; WorldIndex < WorldList.Num(); ++WorldIndex)
{
UWorld* const World = WorldList[WorldIndex].World();
AGameMode* const GameMode = World->GetAuthGameMode();
if (GameMode)
{
GameMode->GameEnding();
}
// Cancel any pending connection to a server
CancelPending(WorldList[WorldIndex]);
// Shut down any existing game connections
ShutdownWorldNetDriver(World);
}
Ar.Log( TEXT("Closing by request") );
FPlatformMisc::RequestExit( 0 );
return true;
}
