void WindowManager::SetFullscreenMode(SDL_Rect *Mode)
{
Cleanup();
_Window=SDL_SetVideoMode(Mode->w, Mode->h, 0, SDL_HWSURFACE|SDL_OPENGL|SDL_FULLSCREEN); // Switch to Fullscreen
_Fullscreen=true;
Reinitialize();
}
void FAnimNode_BlendSpacePlayer::UpdateInternal(const FAnimationUpdateContext& Context)
{
if ((BlendSpace != NULL) && (Context.AnimInstanceProxy->IsSkeletonCompatible(BlendSpace->GetSkeleton())))
{
// Create a tick record and fill it out
FAnimGroupInstance* SyncGroup;
FAnimTickRecord& TickRecord = Context.AnimInstanceProxy->CreateUninitializedTickRecord(GroupIndex, /*out*/ SyncGroup);
const FVector BlendInput(X, Y, Z);
if (PreviousBlendSpace != BlendSpace)
{
Reinitialize();
}
Context.AnimInstanceProxy->MakeBlendSpaceTickRecord(TickRecord, BlendSpace, BlendInput, BlendSampleDataCache, BlendFilter, bLoop, PlayRate, Context.GetFinalBlendWeight(), /*inout*/ InternalTimeAccumulator, MarkerTickRecord);
// Update the sync group if it exists
if (SyncGroup != NULL)
{
SyncGroup->TestTickRecordForLeadership(GroupRole);
}
PreviousBlendSpace = BlendSpace;
}
}
//------------------------------------------------------------------------
// Update the vegetation object.
//------------------------------------------------------------------------
void etVegetationObject::UpdateObject(void)
{
if( m_Type == VGT_MESH &&
m_nDirtyState != m_pMesh->GetDirtyState() )
Reinitialize();
m_WorldBBox = m_Bounds;
m_WorldBBox.TransformBox( GetWorldTransform() );
}
void WindowManager::SetFullscreenMode(int w, int h)
{
Cleanup();
_Window=SDL_SetVideoMode(w, h, 0, SDL_HWSURFACE|SDL_OPENGL|SDL_FULLSCREEN); // Switch to Fullscreen
_Fullscreen=true;
Reinitialize();
return;
}
void WindowManager::ShowFullscreen()
{
if(!_Fullscreen)
{
Cleanup();
_Window=SDL_SetVideoMode(_CurrentFSMode->w, _CurrentFSMode->h, 0, SDL_HWSURFACE|SDL_OPENGL|SDL_FULLSCREEN); // Switch to Fullscreen
Reinitialize();
}
_Fullscreen=true;
}
void TradeInterface::MakeActive()
{
Reinitialize();
_selected_object = _list_displays[_current_category]->GetSelectedObject();
ShopMode::CurrentInstance()->ObjectViewer()->ChangeViewMode(_view_mode);
ShopMode::CurrentInstance()->ObjectViewer()->SetSelectedObject(_selected_object);
_category_display.ChangeViewMode(_view_mode);
_category_display.SetSelectedObject(_selected_object);
}
void FAnimNode_BlendSpacePlayer::Initialize(const FAnimationInitializeContext& Context)
{
FAnimNode_AssetPlayerBase::Initialize(Context);
EvaluateGraphExposedInputs.Execute(Context);
Reinitialize();
PreviousBlendSpace = BlendSpace;
}
void WindowManager::ShowNormal()
{
if(_Fullscreen)
{
Cleanup();
_Active=false;
_Window=SDL_SetVideoMode(_CurrentWMode.w, _CurrentWMode.h, 0, SDL_HWSURFACE | SDL_OPENGL); // Switch to Fullscreen
Reinitialize();
}
_Fullscreen=false;
}
bool MMDeviceAudioSource::Initialize(bool bMic, CTSTR lpID)
{
const IID IID_IMMDeviceEnumerator = __uuidof(IMMDeviceEnumerator);
const CLSID CLSID_MMDeviceEnumerator = __uuidof(MMDeviceEnumerator);
bIsMic = bMic;
deviceId = lpID;
HRESULT err = CoCreateInstance(CLSID_MMDeviceEnumerator, NULL, CLSCTX_ALL, IID_IMMDeviceEnumerator, (void**)&mmEnumerator);
if(FAILED(err))
{
AppWarning(TEXT("MMDeviceAudioSource::Initialize(%d): Could not create IMMDeviceEnumerator = %08lX"), (BOOL)bIsMic, err);
return false;
}
return Reinitialize();
}
bool ApplicationCenter::LoadContent(const std::string& filePath,int nMaxSize)
{
m_bPauseDrawing = true;
g_filePath = filePath;
if(!m_loadFirstTime)
Reinitialize();
if(m_processorList.size() < 0)
{
ShowMessage("m_processorList为空");
return false;
}
m_volumeData->SetNMaxSize(nMaxSize);
if(!m_volumeData->LoadDataFromFile(g_filePath.c_str()))
{
ShowMessage("读取文件错误");
}
//第二步
//设置数据（只有一次设置，其他用attach）
m_processorList[0]->SetData(m_volumeData->GetDataArray());
for(int i=1;i<(int)m_processorList.size();i++)
{
m_processorList[i]->AttachArray(m_processorList[0]->GetOriginalData(),
m_processorList[0]->GetProcessDataArray());
}
//for(int i=0;i<m_processorList.size();i++)
//{
//m_processorList[i]->Process();
//}
//这里有glewinit需要先处理
SetRendererAndProcessor(0);
m_bPauseDrawing = false;
m_loadFirstTime = false;
return true;
}
bool HumanClientApp::ToggleFullscreen() {
bool fs = GetOptionsDB().Get<bool>("fullscreen");
GetOptionsDB().Set<bool>("fullscreen", !fs);
Reinitialize();
return true;
}
void Mesh::Reinitialize(Mesh* pMesh) {
if (pMesh) {
Reinitialize(pMesh->m_VertexBuffer, pMesh->m_VertexDeclaration,
pMesh->m_IndexBuffer, pMesh->m_Bones);
}
}
// Pick a sequence for the given activity. If the current sequence is appropriate for the
// current activity, and its stored weight is negative (whatever that means), always select
// it. Otherwise perform a weighted selection -- imagine a large roulette wheel, with each
// sequence having a number of spaces corresponding to its weight.
int CStudioHdr::CActivityToSequenceMapping::SelectWeightedSequence( CStudioHdr *pstudiohdr, int activity, int curSequence )
{
if (!ValidateAgainst(pstudiohdr))
{
AssertMsg1(false, "CStudioHdr %s has changed its vmodel pointer without reinitializing its activity mapping! Now performing emergency reinitialization.", pstudiohdr->pszName());
ExecuteOnce(DebuggerBreakIfDebugging());
Reinitialize(pstudiohdr);
}
// a null m_pSequenceTuples just means that this studio header has no activities.
if (!m_pSequenceTuples)
return ACTIVITY_NOT_AVAILABLE;
// is the current sequence appropriate?
if (curSequence >= 0)
{
mstudioseqdesc_t &seqdesc = pstudiohdr->pSeqdesc( curSequence );
if (seqdesc.activity == activity && seqdesc.actweight < 0)
return curSequence;
}
// get the data for the given activity
HashValueType dummy( activity, 0, 0, 0 );
UtlHashHandle_t handle = m_ActToSeqHash.Find(dummy);
if (!m_ActToSeqHash.IsValidHandle(handle))
{
return ACTIVITY_NOT_AVAILABLE;
}
const HashValueType * __restrict actData = &m_ActToSeqHash[handle];
int weighttotal = actData->totalWeight;
// generate a random number from 0 to the total weight
int randomValue;
if ( IsInPrediction() )
{
randomValue = SharedRandomInt( "SelectWeightedSequence", 0, weighttotal - 1 );
}
else
{
randomValue = RandomInt( 0, weighttotal - 1 );
}
// chug through the entries in the list (they are sequential therefore cache-coherent)
// until we run out of random juice
SequenceTuple * __restrict sequenceInfo = m_pSequenceTuples + actData->startingIdx;
const SequenceTuple *const stopHere = sequenceInfo + actData->count; // this is a backup
// in case the weights are somehow miscalculated -- we don't read or write through
// it (because it aliases the restricted pointer above); it's only here for
// the comparison.
while (randomValue >= sequenceInfo->weight && sequenceInfo < stopHere)
{
randomValue -= sequenceInfo->weight;
++sequenceInfo;
}
return sequenceInfo->seqnum;
}
AuthorizationSet::AuthorizationSet(const AuthorizationSet& set)
: Serializable(), elems_(NULL), indirect_data_(NULL) {
Reinitialize(set.elems_, set.elems_size_);
}
bool FCompressedFileBuffer::CompressFileToWorkingBuffer(const FPakInputPair& InFile, uint8*& InOutPersistentBuffer, int64& InOutBufferSize, ECompressionFlags CompressionMethod, const int32 CompressionBlockSize)
{
TAutoPtr<FArchive> FileHandle(IFileManager::Get().CreateFileReader(*InFile.Source));
if(!FileHandle.IsValid())
{
TotalCompressedSize = 0;
return false;
}
Reinitialize(FileHandle.GetOwnedPointer(), CompressionMethod, CompressionBlockSize);
const int64 FileSize = OriginalSize;
const int64 PaddedEncryptedFileSize = Align(FileSize,FAES::AESBlockSize);
if(InOutBufferSize < PaddedEncryptedFileSize)
{
InOutPersistentBuffer = (uint8*)FMemory::Realloc(InOutPersistentBuffer,PaddedEncryptedFileSize);
InOutBufferSize = FileSize;
}
// Load to buffer
FileHandle->Serialize(InOutPersistentBuffer,FileSize);
// Build buffers for working
int64 UncompressedSize = FileSize;
int32 CompressionBufferSize = Align(FCompression::CompressMemoryBound(CompressionMethod,CompressionBlockSize),FAES::AESBlockSize);
EnsureBufferSpace(Align(FCompression::CompressMemoryBound(CompressionMethod,FileSize),FAES::AESBlockSize));
TotalCompressedSize = 0;
int64 UncompressedBytes = 0;
int32 CurrentBlock = 0;
while(UncompressedSize)
{
int32 BlockSize = (int32)FMath::Min<int64>(UncompressedSize,CompressionBlockSize);
int32 CompressedBlockSize = CompressionBufferSize;
FileCompressionBlockSize = FMath::Max<uint32>(BlockSize, FileCompressionBlockSize);
EnsureBufferSpace(TotalCompressedSize+CompressedBlockSize);
if(!FCompression::CompressMemory(CompressionMethod,CompressedBuffer.Get()+TotalCompressedSize,CompressedBlockSize,InOutPersistentBuffer+UncompressedBytes,BlockSize))
{
return false;
}
UncompressedSize -= BlockSize;
UncompressedBytes += BlockSize;
CompressedBlocks[CurrentBlock].CompressedStart = TotalCompressedSize;
CompressedBlocks[CurrentBlock].CompressedEnd = TotalCompressedSize+CompressedBlockSize;
++CurrentBlock;
TotalCompressedSize += CompressedBlockSize;
if(InFile.bNeedEncryption)
{
int32 EncryptionBlockPadding = Align(TotalCompressedSize,FAES::AESBlockSize);
for(int64 FillIndex=TotalCompressedSize; FillIndex < EncryptionBlockPadding; ++FillIndex)
{
// Fill the trailing buffer with random bytes from file
CompressedBuffer.Get()[FillIndex] = CompressedBuffer.Get()[rand()%TotalCompressedSize];
}
TotalCompressedSize += EncryptionBlockPadding - TotalCompressedSize;
}
}
return true;
}
void Recalculate () {Reinitialize(); Calculate();}
void WindowManager::SetWindowedMode(SDL_Rect Mode)
{
_CurrentWMode=Mode;
Reinitialize();
}
bool MMDeviceAudioSource::GetNextBuffer(void **buffer, UINT *numFrames, QWORD *timestamp)
{
UINT captureSize = 0;
bool bFirstRun = true;
HRESULT hRes;
UINT64 devPosition, qpcTimestamp;
LPBYTE captureBuffer;
UINT32 numFramesRead;
DWORD dwFlags = 0;
if (deviceLost) {
QWORD timeVal = GetQPCTimeMS();
QWORD timer = (timeVal - reinitTimer);
if (timer > 1000) {
if (Reinitialize()) {
Log(L"Device '%s' reacquired.", strDeviceName.Array());
StartCapture();
}
reinitTimer = timeVal;
}
return false;
}
while (true) {
if (inputBufferSize >= sampleWindowSize*GetChannelCount()) {
if (bFirstRun)
lastQPCTimestamp += 10;
firstTimestamp = GetTimestamp(lastQPCTimestamp);
break;
}
//---------------------------------------------------------
hRes = mmCapture->GetNextPacketSize(&captureSize);
if (FAILED(hRes)) {
if (hRes == AUDCLNT_E_DEVICE_INVALIDATED) {
FreeData();
deviceLost = true;
Log(L"Audio device '%s' has been lost, attempting to reinitialize", strDeviceName.Array());
reinitTimer = GetQPCTimeMS();
return false;
}
RUNONCE AppWarning(TEXT("MMDeviceAudioSource::GetBuffer: GetNextPacketSize failed, result = %08lX"), hRes);
return false;
}
if (!captureSize)
return false;
//---------------------------------------------------------
hRes = mmCapture->GetBuffer(&captureBuffer, &numFramesRead, &dwFlags, &devPosition, &qpcTimestamp);
if (FAILED(hRes)) {
RUNONCE AppWarning(TEXT("MMDeviceAudioSource::GetBuffer: GetBuffer failed, result = %08lX"), hRes);
return false;
}
UINT totalFloatsRead = numFramesRead*GetChannelCount();
if (inputBufferSize) {
double timeAdjust = double(inputBufferSize/GetChannelCount());
timeAdjust /= (double(GetSamplesPerSec())*0.0000001);
qpcTimestamp -= UINT64(timeAdjust);
}
qpcTimestamp /= 10000;
lastQPCTimestamp = qpcTimestamp;
//---------------------------------------------------------
UINT newInputBufferSize = inputBufferSize + totalFloatsRead;
if (newInputBufferSize > inputBuffer.Num())
inputBuffer.SetSize(newInputBufferSize);
mcpy(inputBuffer.Array()+inputBufferSize, captureBuffer, totalFloatsRead*sizeof(float));
inputBufferSize = newInputBufferSize;
mmCapture->ReleaseBuffer(numFramesRead);
bFirstRun = false;
}
*numFrames = sampleWindowSize;
*buffer = (void*)inputBuffer.Array();
*timestamp = firstTimestamp;
/*if (bIsMic) {
static QWORD lastTimestamp = 0;
if (firstTimestamp != lastTimestamp+10)
Log(TEXT("A: %llu, difference: %llu"), firstTimestamp, firstTimestamp-lastTimestamp);
lastTimestamp = firstTimestamp;
}*/
return true;
}
int CStudioHdr::CActivityToSequenceMapping::SelectWeightedSequenceFromModifiers( CStudioHdr *pstudiohdr, int activity, CUtlSymbol *pActivityModifiers, int iModifierCount )
{
if ( !pstudiohdr->SequencesAvailable() )
{
return ACTIVITY_NOT_AVAILABLE;
}
VerifySequenceIndex( pstudiohdr );
if ( pstudiohdr->GetNumSeq() == 1 )
{
return ( ::GetSequenceActivity( pstudiohdr, 0, NULL ) == activity ) ? 0 : ACTIVITY_NOT_AVAILABLE;
}
if (!ValidateAgainst(pstudiohdr))
{
AssertMsg1(false, "CStudioHdr %s has changed its vmodel pointer without reinitializing its activity mapping! Now performing emergency reinitialization.", pstudiohdr->pszName());
ExecuteOnce(DebuggerBreakIfDebugging());
Reinitialize(pstudiohdr);
}
// a null m_pSequenceTuples just means that this studio header has no activities.
if (!m_pSequenceTuples)
return ACTIVITY_NOT_AVAILABLE;
// get the data for the given activity
HashValueType dummy( activity, 0, 0, 0 );
UtlHashHandle_t handle = m_ActToSeqHash.Find(dummy);
if (!m_ActToSeqHash.IsValidHandle(handle))
{
return ACTIVITY_NOT_AVAILABLE;
}
const HashValueType * __restrict actData = &m_ActToSeqHash[handle];
// go through each sequence and give it a score
int top_score = -1;
CUtlVector<int> topScoring( actData->count, actData->count );
for ( int i = 0; i < actData->count; i++ )
{
SequenceTuple * __restrict sequenceInfo = m_pSequenceTuples + actData->startingIdx + i;
int score = 0;
// count matching activity modifiers
for ( int m = 0; m < iModifierCount; m++ )
{
int num_modifiers = sequenceInfo->iNumActivityModifiers;
for ( int k = 0; k < num_modifiers; k++ )
{
if ( sequenceInfo->pActivityModifiers[ k ] == pActivityModifiers[ m ] )
{
score++;
break;
}
}
}
if ( score > top_score )
{
topScoring.RemoveAll();
topScoring.AddToTail( sequenceInfo->seqnum );
top_score = score;
}
}
// randomly pick between the highest scoring sequences ( NOTE: this method of selecting a sequence ignores activity weights )
if ( IsInPrediction() )
{
return topScoring[ SharedRandomInt( "SelectWeightedSequence", 0, topScoring.Count() - 1 ) ];
}
return topScoring[ RandomInt( 0, topScoring.Count() - 1 ) ];
}
