d4708
/
source-engine
mirror of https://github.com/nillerusr/source-engine.git
1
0
Fork 0
Code Issues Projects Releases Wiki Activity
Modified source engine (2017) developed by valve and leaked in 2020. Not for commercial purporses
You can not select more than 25 topics Topics must start with a letter or number, can include dashes ('-') and can be up to 35 characters long.
551 Commits
25 Branches
6 Tags
221 MiB
 
 
 
 
 
 
Tree: 29985681a1
Branches Tags
${ item.name }
Create tag ${ searchTerm }
Create branch ${ searchTerm }
from '29985681a1'
${ noResults }
source-engine/utils/xbox/MakeGameData/MakeSounds.cpp

968 lines
28 KiB
Raw Blame History

//========= Copyright Valve Corporation, All rights reserved. ============//
//
// Purpose: .360.WAV Creation
//
//=====================================================================================//
#include "MakeGameData.h"
#ifndef NO_X360_XDK
#include <XMAEncoder.h>
#endif
#include "datamap.h"
#include "sentence.h"
#include "tier2/riff.h"
#include "resample.h"
#include "xwvfile.h"
// all files are built for streaming compliance
// allows for fastest runtime loading path
// actual streaming or static state is determined by engine
#define XBOX_DVD_SECTORSIZE 2048
#define XMA_BLOCK_SIZE 2048 // must be aligned to 1024
#define MAX_CHUNKS 256
// [0,100]
#define XMA_HIGH_QUALITY 90
#define XMA_DEFAULT_QUALITY 75
#define XMA_MEDIUM_QUALITY 50
#define XMA_LOW_QUALITY 25
typedef struct
{
unsigned int id;
int size;
byte *pData;
} chunk_t;
struct conversion_t
{
const char *pSubDir;
int quality;
bool bForceTo22K;
};
// default conversion rules
conversion_t g_defaultConversionRules[] =
{
// subdir quality 22Khz
{ "", XMA_DEFAULT_QUALITY, false }, // default settings
{ "weapons", XMA_DEFAULT_QUALITY, false },
{ "music", XMA_DEFAULT_QUALITY, false },
{ "vo", XMA_MEDIUM_QUALITY, false },
{ "npc", XMA_MEDIUM_QUALITY, false },
{ "ambient", XMA_DEFAULT_QUALITY, false },
{ "commentary", XMA_LOW_QUALITY, true },
{ NULL },
};
// portal conversion rules
conversion_t g_portalConversionRules[] =
{
// subdir quality 22Khz
{ "", XMA_DEFAULT_QUALITY, false }, // default settings
{ "commentary", XMA_LOW_QUALITY, true },
{ NULL },
};
chunk_t g_chunks[MAX_CHUNKS];
int g_numChunks;
extern IFileReadBinary *g_pSndIO;
//-----------------------------------------------------------------------------
// Purpose: chunk printer
//-----------------------------------------------------------------------------
void PrintChunk( unsigned int chunkName, int size )
{
char c[4];
for ( int i=0; i<4; i++ )
{
c[i] = ( chunkName >> i*8 ) & 0xFF;
if ( !c[i] )
c[i] = ' ';
}
Msg( "%c%c%c%c: %d bytes\n", c[0], c[1], c[2], c[3], size );
}
//-----------------------------------------------------------------------------
// Purpose: which chunks are supported, false to ignore
//-----------------------------------------------------------------------------
bool IsValidChunk( unsigned int chunkName )
{
switch ( chunkName )
{
case WAVE_DATA:
case WAVE_CUE:
case WAVE_SAMPLER:
case WAVE_VALVEDATA:
case WAVE_FMT:
return true;
}
return false;
}
//-----------------------------------------------------------------------------
// Purpose: align buffer
//-----------------------------------------------------------------------------
int AlignToBoundary( CUtlBuffer &buf, int alignment )
{
int curPosition;
int newPosition;
byte padByte = 0;
buf.SeekPut( CUtlBuffer::SEEK_TAIL, 0 );
curPosition = buf.TellPut();
if ( alignment <= 1 )
return curPosition;
// advance to aligned position
newPosition = AlignValue( curPosition, alignment );
buf.EnsureCapacity( newPosition );
// write empty
for ( int i=0; i<newPosition-curPosition; i++ )
{
buf.Put( &padByte, 1 );
}
return newPosition;
}
//--------------------------------------------------------------------------------------
// SampleToXMABlockOffset
//
// Description: converts from a sample index to a block index + the number of samples
// to offset from the beginning of the block.
//
// Parameters:
// dwSampleIndex: sample index to convert
// pdwSeekTable: pointer to the file's XMA2 seek table
// nEntries: number of DWORD entries in the seek table
// out_pBlockIndex: index of block where the desired sample lives
// out_pOffset: number of samples in the block before the desired sample
//--------------------------------------------------------------------------------------
bool SampleToXMABlockOffset( DWORD dwSampleIndex, const DWORD *pdwSeekTable, DWORD nEntries, DWORD *out_pBlockIndex, DWORD *out_pOffset )
{
// Run through the seek table to find the block closest to the desired sample.
// Each seek table entry is the index (counting from the beginning of the file)
// of the first sample in the corresponding block, but there's no entry for the
// first block (since the index would always be zero).
bool bFound = false;
for ( DWORD i = 0; !bFound && i < nEntries; ++i )
{
if ( dwSampleIndex < BigLong( pdwSeekTable[i] ) )
{
*out_pBlockIndex = i;
bFound = true;
}
}
// Calculate the sample offset by figuring out what the sample index of the first sample
// in the block is, then subtracting that from dwSampleIndex.
if ( bFound )
{
DWORD dwStartOfBlock = (*out_pBlockIndex == 0) ? 0 : BigLong( pdwSeekTable[*out_pBlockIndex - 1] );
*out_pOffset = dwSampleIndex - dwStartOfBlock;
}
return bFound;
}
//-----------------------------------------------------------------------------
// Compile and compress vdat
//-----------------------------------------------------------------------------
bool CompressVDAT( chunk_t *pChunk )
{
CSentence *pSentence;
CUtlBuffer buf( 0, 0, CUtlBuffer::TEXT_BUFFER );
buf.EnsureCapacity( pChunk->size );
memcpy( buf.Base(), pChunk->pData, pChunk->size );
buf.SeekPut( CUtlBuffer::SEEK_HEAD, pChunk->size );
pSentence = new CSentence();
// Make binary version of VDAT
// Throws all phonemes into one word, discards sentence memory, etc.
pSentence->InitFromDataChunk( buf.Base(), buf.TellPut() );
pSentence->MakeRuntimeOnly();
CUtlBuffer binaryBuffer( 0, 0, 0 );
binaryBuffer.SetBigEndian( true );
pSentence->CacheSaveToBuffer( binaryBuffer, CACHED_SENTENCE_VERSION_ALIGNED );
delete pSentence;
unsigned int compressedSize = 0;
unsigned char *pCompressedOutput = LZMA_OpportunisticCompress( (unsigned char *)binaryBuffer.Base(),
binaryBuffer.TellPut(), &compressedSize );
if ( pCompressedOutput )
{
if ( !g_bQuiet )
{
Msg( "CompressVDAT: Compressed %d to %d\n", binaryBuffer.TellPut(), compressedSize );
}
free( pChunk->pData );
pChunk->size = compressedSize;
pChunk->pData = pCompressedOutput;
}
else
{
// save binary VDAT as-is
free( pChunk->pData );
pChunk->size = binaryBuffer.TellPut();
pChunk->pData = (byte *)malloc( pChunk->size );
memcpy( pChunk->pData, binaryBuffer.Base(), pChunk->size );
}
// success
return true;
}
//-----------------------------------------------------------------------------
// Purpose: read chunks into provided array
//-----------------------------------------------------------------------------
bool ReadChunks( const char *pFileName, int &numChunks, chunk_t chunks[MAX_CHUNKS] )
{
numChunks = 0;
InFileRIFF riff( pFileName, *g_pSndIO );
if ( riff.RIFFName() != RIFF_WAVE )
{
return false;
}
IterateRIFF walk( riff, riff.RIFFSize() );
while ( walk.ChunkAvailable() )
{
chunks[numChunks].id = walk.ChunkName();
chunks[numChunks].size = walk.ChunkSize();
int size = chunks[numChunks].size;
if ( walk.ChunkName() == WAVE_FMT && size < sizeof( WAVEFORMATEXTENSIBLE ) )
{
// format chunks are variable and cast to different structures
// ensure the data footprint is at least the structure we want to manipulate
size = sizeof( WAVEFORMATEXTENSIBLE );
}
chunks[numChunks].pData = (byte *)malloc( size );
memset( chunks[numChunks].pData, 0, size );
walk.ChunkRead( chunks[numChunks].pData );
numChunks++;
if ( numChunks >= MAX_CHUNKS )
return false;
walk.ChunkNext();
}
// success
return true;
}
//-----------------------------------------------------------------------------
// Purpose: promote pcm 8 bit to 16 bit pcm
//-----------------------------------------------------------------------------
void ConvertPCMDataChunk8To16( chunk_t *pFormatChunk, chunk_t *pDataChunk )
{
WAVEFORMATEX *pFormat = (WAVEFORMATEX*)pFormatChunk->pData;
int sampleSize = ( pFormat->nChannels * pFormat->wBitsPerSample ) >> 3;
int sampleCount = pDataChunk->size / sampleSize;
int outputSize = sizeof( short ) * ( sampleCount * pFormat->nChannels );
short *pOut = (short *)malloc( outputSize );
// in-place convert data from 8-bits to 16-bits
Convert8To16( pDataChunk->pData, pOut, sampleCount, pFormat->nChannels );
free( pDataChunk->pData );
pDataChunk->pData = (byte *)pOut;
pDataChunk->size = outputSize;
pFormat->wFormatTag = WAVE_FORMAT_PCM;
pFormat->nBlockAlign = 2 * pFormat->nChannels;
pFormat->wBitsPerSample = 16;
pFormat->nAvgBytesPerSec = 2 * pFormat->nSamplesPerSec * pFormat->nChannels;
}
//-----------------------------------------------------------------------------
// Purpose: convert adpcm to 16 bit pcm
//-----------------------------------------------------------------------------
void ConvertADPCMDataChunkTo16( chunk_t *pFormatChunk, chunk_t *pDataChunk )
{
WAVEFORMATEX *pFormat = (WAVEFORMATEX*)pFormatChunk->pData;
int sampleCount = ADPCMSampleCount( (byte *)pFormat, pDataChunk->pData, pDataChunk->size );
int outputSize = sizeof( short ) * sampleCount * pFormat->nChannels;
short *pOut = (short *)malloc( outputSize );
// convert to PCM 16bit format
DecompressADPCMSamples( (byte*)pFormat, (byte*)pDataChunk->pData, pDataChunk->size, pOut );
free( pDataChunk->pData );
pDataChunk->pData = (byte *)pOut;
pDataChunk->size = outputSize;
pFormat->wFormatTag = WAVE_FORMAT_PCM;
pFormat->nBlockAlign = 2 * pFormat->nChannels;
pFormat->wBitsPerSample = 16;
pFormat->nAvgBytesPerSec = 2 * pFormat->nSamplesPerSec * pFormat->nChannels;
pFormatChunk->size = 16;
}
//-----------------------------------------------------------------------------
// Purpose: Decimate to 22K
//-----------------------------------------------------------------------------
void ConvertPCMDataChunk16To22K( chunk_t *pFormatChunk, chunk_t *pDataChunk )
{
WAVEFORMATEX *pFormat = (WAVEFORMATEX*)pFormatChunk->pData;
if ( pFormat->nSamplesPerSec != 44100 || pFormat->wBitsPerSample != 16 || pFormat->wFormatTag != WAVE_FORMAT_PCM )
{
// not in expected format
return;
}
int sampleSize = ( pFormat->nChannels * pFormat->wBitsPerSample ) >> 3;
int sampleCount = pDataChunk->size / sampleSize;
short *pOut = (short *)malloc( sizeof( short ) * ( sampleCount * pFormat->nChannels ) );
DecimateSampleRateBy2_16( (short *)pDataChunk->pData, pOut, sampleCount, pFormat->nChannels );
free( pDataChunk->pData );
pDataChunk->pData = (byte *)pOut;
pDataChunk->size = sizeof( short ) * ( sampleCount/2 * pFormat->nChannels );
pFormat->nSamplesPerSec = 22050;
pFormat->nBlockAlign = 2 * pFormat->nChannels;
pFormat->nAvgBytesPerSec = 2 * pFormat->nSamplesPerSec * pFormat->nChannels;
}
//-----------------------------------------------------------------------------
// Purpose: determine loop start
//-----------------------------------------------------------------------------
int FindLoopStart( int samplerChunk, int cueChunk )
{
int loopStartFromCue = -1;
int loopStartFromSampler = -1;
if ( cueChunk != -1 )
{
struct cuechunk_t
{
unsigned int dwName;
unsigned int dwPosition;
unsigned int fccChunk;
unsigned int dwChunkStart;
unsigned int dwBlockStart;
unsigned int dwSampleOffset;
};
struct cueRIFF_t
{
int cueCount;
cuechunk_t cues[1];
};
cueRIFF_t *pCue = (cueRIFF_t *)g_chunks[cueChunk].pData;
if ( pCue->cueCount > 0 )
{
loopStartFromCue = pCue->cues[0].dwSampleOffset;
}
}
if ( samplerChunk != -1 )
{
struct SampleLoop
{
unsigned int dwIdentifier;
unsigned int dwType;
unsigned int dwStart;
unsigned int dwEnd;
unsigned int dwFraction;
unsigned int dwPlayCount;
};
struct samplerchunk_t
{
unsigned int dwManufacturer;
unsigned int dwProduct;
unsigned int dwSamplePeriod;
unsigned int dwMIDIUnityNote;
unsigned int dwMIDIPitchFraction;
unsigned int dwSMPTEFormat;
unsigned int dwSMPTEOffset;
unsigned int cSampleLoops;
unsigned int cbSamplerData;
struct SampleLoop Loops[1];
};
// assume that the loop end is the sample end
// assume that only the first loop is relevant
samplerchunk_t *pSampler = (samplerchunk_t *)g_chunks[samplerChunk].pData;
if ( pSampler->cSampleLoops > 0 )
{
// only support normal forward loops
if ( pSampler->Loops[0].dwType == 0 )
{
loopStartFromSampler = pSampler->Loops[0].dwStart;
}
}
}
return ( max( loopStartFromCue, loopStartFromSampler ) );
}
//-----------------------------------------------------------------------------
// Purpose: returns chunk, -1 if not found
//-----------------------------------------------------------------------------
int FindChunk( unsigned int id )
{
int i;
for ( i=0; i<g_numChunks; i++ )
{
if ( g_chunks[i].id == id )
{
return i;
}
}
// not found
return - 1;
}
bool EncodeAsXMA( const char *pDebugName, CUtlBuffer &targetBuff, int quality, bool bIsVoiceOver )
{
#ifdef NO_X360_XDK
return false;
#else
int formatChunk = FindChunk( WAVE_FMT );
int dataChunk = FindChunk( WAVE_DATA );
if ( formatChunk == -1 || dataChunk == -1 )
{
// huh? these should have been pre-validated
return false;
}
int vdatSize = 0;
int vdatChunk = FindChunk( WAVE_VALVEDATA );
if ( vdatChunk != -1 )
{
vdatSize = g_chunks[vdatChunk].size;
}
int loopStart = FindLoopStart( FindChunk( WAVE_SAMPLER ), FindChunk( WAVE_CUE ) );
// format structure must be expected 16 bit PCM, otherwise encoder crashes
WAVEFORMATEX *pFormat = (WAVEFORMATEX *)g_chunks[formatChunk].pData;
pFormat->nAvgBytesPerSec = pFormat->nSamplesPerSec * pFormat->nChannels * 2;
pFormat->nBlockAlign = 2 * pFormat->nChannels;
pFormat->cbSize = 0;
XMAENCODERSTREAM inputStream = { 0 };
WAVEFORMATEXTENSIBLE wfx;
Assert( g_chunks[formatChunk].size <= sizeof( WAVEFORMATEXTENSIBLE ) );
memcpy( &wfx, g_chunks[formatChunk].pData, g_chunks[formatChunk].size );
if ( g_chunks[formatChunk].size < sizeof( WAVEFORMATEXTENSIBLE ) )
{
memset( (unsigned char*)&wfx + g_chunks[formatChunk].size, 0, sizeof( WAVEFORMATEXTENSIBLE ) - g_chunks[formatChunk].size );
}
memcpy( &inputStream.Format, &wfx, sizeof( WAVEFORMATEX ) );
inputStream.pBuffer = g_chunks[dataChunk].pData;
inputStream.BufferSize = g_chunks[dataChunk].size;
if ( loopStart != -1 )
{
// can only support a single loop point until end of file
inputStream.LoopStart = loopStart;
inputStream.LoopLength = inputStream.BufferSize / ( pFormat->nChannels * sizeof( short ) ) - loopStart;
}
void *pXMAData = NULL;
DWORD XMADataSize = 0;
XMA2WAVEFORMAT *pXMA2Format = NULL;
DWORD XMA2FormatSize = 0;
DWORD *pXMASeekTable = NULL;
DWORD XMASeekTableSize = 0;
HRESULT hr = S_OK;
DWORD xmaFlags = XMAENCODER_NOFILTER;
if ( loopStart != -1 )
{
xmaFlags |= XMAENCODER_LOOP;
}
int numAttempts = 1;
while ( numAttempts < 10 )
{
hr = XMA2InMemoryEncoder( 1, &inputStream, quality, xmaFlags, XMA_BLOCK_SIZE/1024, &pXMAData, &XMADataSize, &pXMA2Format, &XMA2FormatSize, &pXMASeekTable, &XMASeekTableSize );
if ( !FAILED( hr ) )
break;
// make small jumps
quality += 5;
if ( quality > 100 )
quality = 100;
if ( !g_bQuiet )
{
Msg( "XMA Encoding Error on '%s', Attempting increasing quality to %d\n", pDebugName, quality );
}
numAttempts++;
pXMAData = NULL;
XMADataSize = 0;
pXMA2Format = NULL;
XMA2FormatSize = 0;
pXMASeekTable = NULL;
XMASeekTableSize = 0;
}
if ( FAILED( hr ) )
{
// unrecoverable
return false;
}
else if ( numAttempts > 1 )
{
if ( !g_bQuiet )
{
Msg( "XMA Encoding Success on '%s' at quality %d\n", pDebugName, quality );
}
}
DWORD loopBlock = 0;
DWORD numLeadingSamples = 0;
DWORD numTrailingSamples = 0;
if ( loopStart != -1 )
{
// calculate start block/offset
DWORD loopBlockStartIndex = 0;
DWORD loopBlockStartOffset = 0;
if ( !SampleToXMABlockOffset( BigLong( pXMA2Format->LoopBegin ), pXMASeekTable, XMASeekTableSize/sizeof( DWORD ), &loopBlockStartIndex, &loopBlockStartOffset ) )
{
// could not determine loop point, out of range of encoded samples
Msg( "XMA Loop Encoding Error on '%s', loop %d\n", pDebugName, loopStart );
return false;
}
loopBlock = loopBlockStartIndex;
numLeadingSamples = loopBlockStartOffset;
if ( BigLong( pXMA2Format->LoopEnd ) < BigLong( pXMA2Format->SamplesEncoded ) )
{
// calculate end block/offset
DWORD loopBlockEndIndex = 0;
DWORD loopBlockEndOffset = 0;
if ( !SampleToXMABlockOffset( BigLong( pXMA2Format->LoopEnd ), pXMASeekTable, XMASeekTableSize/sizeof( DWORD ), &loopBlockEndIndex, &loopBlockEndOffset ) )
{
// could not determine loop point, out of range of encoded samples
Msg( "XMA Loop Encoding Error on '%s', loop %d\n", pDebugName, loopStart );
return false;
}
if ( loopBlockEndIndex != BigLong( pXMA2Format->BlockCount ) - 1 )
{
// end block MUST be last block
Msg( "XMA Loop Encoding Error on '%s', block end is %d/%d\n", pDebugName, loopBlockEndOffset, BigLong( pXMA2Format->BlockCount ) );
return false;
}
numTrailingSamples = BigLong( pXMA2Format->SamplesEncoded ) - BigLong( pXMA2Format->LoopEnd );
}
// check for proper encoding range
if ( loopBlock > 32767 )
{
Msg( "XMA Loop Encoding Error on '%s', loop block exceeds 16 bits %d\n", pDebugName, loopBlock );
return false;
}
if ( numLeadingSamples > 32767 )
{
Msg( "XMA Loop Encoding Error on '%s', leading samples exceeds 16 bits %d\n", pDebugName, numLeadingSamples );
return false;
}
if ( numTrailingSamples > 32767 )
{
Msg( "XMA Loop Encoding Error on '%s', trailing samples exceeds 16 bits %d\n", pDebugName, numTrailingSamples );
return false;
}
}
xwvHeader_t header;
memset( &header, 0, sizeof( xwvHeader_t ) );
int seekTableSize = 0;
if ( vdatSize || bIsVoiceOver )
{
// save the optional seek table only for vdat or vo
// the seek table size is expected to be derived by this calculation
seekTableSize = ( XMADataSize / XMA_BYTES_PER_PACKET ) * sizeof( int );
if ( seekTableSize != XMASeekTableSize )
{
Msg( "XMA Error: Unexpected seek table calculation in '%s'!", pDebugName );
return false;
}
}
if ( loopStart != -1 && ( vdatSize || bIsVoiceOver ) )
{
Msg( "XMA Warning: Unexpected loop in vo data '%s'!", pDebugName );
// do not write the seek table for looping sounds
seekTableSize = 0;
}
header.id = BigLong( XWV_ID );
header.version = BigLong( XWV_VERSION );
header.headerSize = BigLong( sizeof( xwvHeader_t ) );
header.staticDataSize = BigLong( seekTableSize + vdatSize );
header.dataOffset = BigLong( AlignValue( sizeof( xwvHeader_t) + seekTableSize + vdatSize, XBOX_DVD_SECTORSIZE ) );
header.dataSize = BigLong( XMADataSize );
// track the XMA number of samples that will get decoded
// which is NOT the same as what the source actually encoded
header.numDecodedSamples = pXMA2Format->SamplesEncoded;
if ( loopStart != -1 )
{
// the loop start is in source space (now meaningless), need the loop in XMA decoding sample space
header.loopStart = pXMA2Format->LoopBegin;
}
else
{
header.loopStart = BigLong( -1 );
}
header.loopBlock = BigShort( (unsigned short)loopBlock );
header.numLeadingSamples = BigShort( (unsigned short)numLeadingSamples );
header.numTrailingSamples = BigShort( (unsigned short)numTrailingSamples );
header.vdatSize = BigShort( (short)vdatSize );
header.format = XWV_FORMAT_XMA;
header.bitsPerSample = 16;
header.SetSampleRate( pFormat->nSamplesPerSec );
header.SetChannels( pFormat->nChannels );
header.quality = quality;
header.bHasSeekTable = ( seekTableSize != 0 );
// output header
targetBuff.Put( &header, sizeof( xwvHeader_t ) );
// output optional seek table
if ( seekTableSize )
{
// seek table is already in big-endian format
targetBuff.Put( pXMASeekTable, seekTableSize );
}
// output vdat
if ( vdatSize )
{
targetBuff.Put( g_chunks[vdatChunk].pData, g_chunks[vdatChunk].size );
}
AlignToBoundary( targetBuff, XBOX_DVD_SECTORSIZE );
// write data
targetBuff.Put( pXMAData, XMADataSize );
// pad to EOF
AlignToBoundary( targetBuff, XBOX_DVD_SECTORSIZE );
free( pXMAData );
free( pXMA2Format );
free( pXMASeekTable );
// xma encoder leaves its temporary files, we'll delete
scriptlib->DeleteTemporaryFiles( "LoopStrm*" );
scriptlib->DeleteTemporaryFiles( "EncStrm*" );
return true;
#endif
}
bool EncodeAsPCM( const char *pTargetName, CUtlBuffer &targetBuff )
{
int formatChunk = FindChunk( WAVE_FMT );
int dataChunk = FindChunk( WAVE_DATA );
if ( formatChunk == -1 || dataChunk == -1 )
{
// huh? these should have been pre-validated
return false;
}
WAVEFORMATEX *pFormat = (WAVEFORMATEX *)g_chunks[formatChunk].pData;
if ( pFormat->wBitsPerSample != 16 )
{
// huh? the input is expeted to be 16 bit PCM
return false;
}
int vdatSize = 0;
int vdatChunk = FindChunk( WAVE_VALVEDATA );
if ( vdatChunk != -1 )
{
vdatSize = g_chunks[vdatChunk].size;
}
chunk_t *pDataChunk = &g_chunks[dataChunk];
xwvHeader_t header;
memset( &header, 0, sizeof( xwvHeader_t ) );
int sampleSize = pFormat->nChannels * sizeof( short );
int sampleCount = pDataChunk->size / sampleSize;
header.id = BigLong( XWV_ID );
header.version = BigLong( XWV_VERSION );
header.headerSize = BigLong( sizeof( xwvHeader_t ) );
header.staticDataSize = BigLong( vdatSize );
header.dataOffset = BigLong( AlignValue( sizeof( xwvHeader_t) + vdatSize, XBOX_DVD_SECTORSIZE ) );
header.dataSize = BigLong( pDataChunk->size );
header.numDecodedSamples = BigLong( sampleCount );
header.loopStart = BigLong( -1 );
header.loopBlock = 0;
header.numLeadingSamples = 0;
header.numTrailingSamples = 0;
header.vdatSize = BigShort( (short)vdatSize );
header.format = XWV_FORMAT_PCM;
header.bitsPerSample = 16;
header.SetSampleRate( pFormat->nSamplesPerSec );
header.SetChannels( pFormat->nChannels );
header.quality = 100;
// output header
targetBuff.Put( &header, sizeof( xwvHeader_t ) );
// output vdat
if ( vdatSize )
{
targetBuff.Put( g_chunks[vdatChunk].pData, g_chunks[vdatChunk].size );
}
AlignToBoundary( targetBuff, XBOX_DVD_SECTORSIZE );
for ( int i = 0; i < sampleCount * pFormat->nChannels; i++ )
{
((short *)pDataChunk->pData)[i] = BigShort( ((short *)pDataChunk->pData)[i] );
}
// write data
targetBuff.Put( pDataChunk->pData, pDataChunk->size );
// pad to EOF
AlignToBoundary( targetBuff, XBOX_DVD_SECTORSIZE );
return true;
}
//-----------------------------------------------------------------------------
// Purpose: read source, do work, and write to target
//-----------------------------------------------------------------------------
bool CreateTargetFile_WAV( const char *pSourceName, const char *pTargetName, bool bWriteToZip )
{
g_numChunks = 0;
// resolve relative source to absolute path
char fullSourcePath[MAX_PATH];
if ( _fullpath( fullSourcePath, pSourceName, sizeof( fullSourcePath ) ) )
{
pSourceName = fullSourcePath;
}
if ( !ReadChunks( pSourceName, g_numChunks, g_chunks ) )
{
Msg( "No RIFF Chunks on '%s'\n", pSourceName );
return false;
}
int formatChunk = FindChunk( WAVE_FMT );
if ( formatChunk == -1 )
{
Msg( "RIFF Format Chunk not found on '%s'\n", pSourceName );
return false;
}
int dataChunk = FindChunk( WAVE_DATA );
if ( dataChunk == -1 )
{
Msg( "RIFF Data Chunk not found on '%s'\n", pSourceName );
return false;
}
// get the conversion rules
conversion_t *pConversion = g_defaultConversionRules;
if ( V_stristr( g_szModPath, "\\portal" ) )
{
pConversion = g_portalConversionRules;
}
// conversion rules are based on matching subdir
for ( int i=1; ;i++ )
{
char subString[MAX_PATH];
if ( !pConversion[i].pSubDir )
{
// end of list
break;
}
sprintf( subString, "\\%s\\", pConversion[i].pSubDir );
if ( V_stristr( pSourceName, subString ) )
{
// use matched conversion rules
pConversion = &pConversion[i];
break;
}
}
bool bForceTo22K = pConversion->bForceTo22K;
int quality = pConversion->quality;
// cannot trust the localization depots to have matched their sources
// cannot allow 44K
if ( IsLocalizedFile( pSourceName ) )
{
bForceTo22K = true;
}
// classify strict vo from /sound/vo only
bool bIsVoiceOver = V_stristr( pSourceName, "\\sound\\vo\\" ) != NULL;
// can override default settings
quality = CommandLine()->ParmValue( "-xmaquality", quality );
if ( quality < 0 )
quality = 0;
else if ( quality > 100 )
quality = 100;
if ( !g_bQuiet )
{
Msg( "Encoding quality: %d on '%s'\n", quality, pSourceName );
}
int vdatSize = 0;
int vdatChunk = FindChunk( WAVE_VALVEDATA );
if ( vdatChunk != -1 )
{
// compile to optimal block
if ( !CompressVDAT( &g_chunks[vdatChunk] ) )
{
Msg( "Compress VDAT Error on '%s'\n", pSourceName );
return false;
}
vdatSize = g_chunks[vdatChunk].size;
}
// for safety (not trusting their decoding) and simplicity convert all data to 16 bit PCM before encoding
WAVEFORMATEX *pFormat = (WAVEFORMATEX *)g_chunks[formatChunk].pData;
if ( ( pFormat->wFormatTag == WAVE_FORMAT_PCM ) )
{
if ( pFormat->wBitsPerSample == 8 )
{
ConvertPCMDataChunk8To16( &g_chunks[formatChunk], &g_chunks[dataChunk] );
}
}
else if ( pFormat->wFormatTag == WAVE_FORMAT_ADPCM )
{
ConvertADPCMDataChunkTo16( &g_chunks[formatChunk], &g_chunks[dataChunk] );
}
else
{
Msg( "Unknown RIFF Format on '%s'\n", pSourceName );
return false;
}
// optionally decimate to 22K
if ( pFormat->nSamplesPerSec == 44100 && bForceTo22K )
{
if ( !g_bQuiet )
{
Msg( "Converting to 22K '%s'\n", pSourceName );
}
ConvertPCMDataChunk16To22K( &g_chunks[formatChunk], &g_chunks[dataChunk] );
}
CUtlBuffer targetBuff;
bool bSuccess;
bSuccess = EncodeAsXMA( pSourceName, targetBuff, quality, bIsVoiceOver );
if ( bSuccess )
{
WriteBufferToFile( pTargetName, targetBuff, bWriteToZip, g_WriteModeForConversions );
}
// release data
for ( int i = 0; i < g_numChunks; i++ )
{
free( g_chunks[i].pData );
}
return bSuccess;
}
//-----------------------------------------------------------------------------
// Purpose: MP3's are already pre-converted into .360.wav
//-----------------------------------------------------------------------------
bool CreateTargetFile_MP3( const char *pSourceName, const char *pTargetName, bool bWriteToZip )
{
CUtlBuffer targetBuffer;
// ignore the .mp3 source, the .360.wav target should have been pre-converted, checked in, and exist
// use the expected target as the source
if ( !scriptlib->ReadFileToBuffer( pTargetName, targetBuffer ) )
{
// the .360.wav target does not exist
// try again using a .wav version and convert from that
char wavFilename[MAX_PATH];
V_StripExtension( pSourceName, wavFilename, sizeof( wavFilename ) );
V_SetExtension( wavFilename, ".wav", sizeof( wavFilename ) );
if ( scriptlib->DoesFileExist( wavFilename ) )
{
if ( CreateTargetFile_WAV( wavFilename, pTargetName, bWriteToZip ) )
{
return true;
}
}
return false;
}
// no conversion to write, but possibly zipped
bool bSuccess = WriteBufferToFile( pTargetName, targetBuffer, bWriteToZip, WRITE_TO_DISK_NEVER );
return bSuccess;
}
//-----------------------------------------------------------------------------
// Get the preload data for a wav file
//-----------------------------------------------------------------------------
bool GetPreloadData_WAV( const char *pFilename, CUtlBuffer &fileBufferIn, CUtlBuffer &preloadBufferOut )
{
xwvHeader_t *pHeader = ( xwvHeader_t * )fileBufferIn.Base();
if ( pHeader->id != ( unsigned int )BigLong( XWV_ID ) ||
pHeader->version != ( unsigned int )BigLong( XWV_VERSION ) ||
pHeader->headerSize != BigLong( sizeof( xwvHeader_t ) ) )
{
// bad version
Msg( "Can't preload: '%s', has bad version\n", pFilename );
return false;
}
// ensure caller's buffer is clean
// caller determines preload size, via TellMaxPut()
preloadBufferOut.Purge();
unsigned int preloadSize = BigLong( pHeader->headerSize ) + BigLong( pHeader->staticDataSize );
preloadBufferOut.Put( fileBufferIn.Base(), preloadSize );
return true;
}