//////////////////////////////////////////////////////////////////////////
// markupResources
void CsPackageLoader::markupResources()
{
// Use this to advance as we need.
BcU8* pCurrPackageData = reinterpret_cast< BcU8* >( pPackageData_ ) + Header_.ResourceDataStart_;
// Allocate chunks.
for( BcU32 ChunkIdx = 0; ChunkIdx <= Header_.TotalChunks_; ++ChunkIdx )
{
CsPackageChunkHeader& ChunkHeader( pChunkHeaders_[ ChunkIdx ] );
CsPackageChunkData& ChunkData( pChunkData_[ ChunkIdx ] );
if( ChunkHeader.Flags_ & csPCF_MANAGED )
{
ChunkData.Managed_ = BcTrue;
ChunkData.pUnpackedData_ = pCurrPackageData;
// Advance package data.
pCurrPackageData += BcCalcAlignment( ChunkHeader.UnpackedBytes_, ChunkHeader.RequiredAlignment_ );
#if PSY_DEBUG
// Clear memory.
BcMemSet( ChunkData.pUnpackedData_, 0x11, ChunkHeader.UnpackedBytes_ );
#endif
}
else
{
ChunkData.Managed_ = BcFalse;
}
}
}
void* operator new[]( size_t Size)
{
initHeap();
void* pMem = malloc( Size );
#ifdef PSY_DEBUG // neilogd: stamp 0x69 over uninitialised memory.
BcMemSet( pMem, 0x69, Size );
#endif
#ifdef MEM_DEBUG
BcU32 BreakID = -1;
if( gAllocID == BreakID )
{
BcBreakpoint;
}
BcPrintf( "PsyNew: %p - %u\n", pMem, gAllocID++ );
printBacktrace();
#endif
return pMem;
}
