ALvoid aluMixData(ALCdevice *device, ALvoid *buffer, ALsizei size)
{
ALuint SamplesToDo;
ALeffectslot **slot, **slot_end;
ALvoice *voice, *voice_end;
ALCcontext *ctx;
FPUCtl oldMode;
ALuint i, c;
SetMixerFPUMode(&oldMode);
while(size > 0)
{
ALfloat (*OutBuffer)[BUFFERSIZE];
ALuint OutChannels;
IncrementRef(&device->MixCount);
OutBuffer = device->DryBuffer;
OutChannels = device->NumChannels;
SamplesToDo = minu(size, BUFFERSIZE);
for(c = 0;c < OutChannels;c++)
memset(OutBuffer[c], 0, SamplesToDo*sizeof(ALfloat));
if(device->Hrtf)
{
/* Set OutBuffer/OutChannels to correspond to the actual output
* with HRTF. Make sure to clear them too. */
OutBuffer += OutChannels;
OutChannels = 2;
for(c = 0;c < OutChannels;c++)
memset(OutBuffer[c], 0, SamplesToDo*sizeof(ALfloat));
}
V0(device->Backend,lock)();
V(device->Synth,process)(SamplesToDo, OutBuffer, OutChannels);
ctx = ATOMIC_LOAD(&device->ContextList);
while(ctx)
{
ALenum DeferUpdates = ctx->DeferUpdates;
ALenum UpdateSources = AL_FALSE;
if(!DeferUpdates)
UpdateSources = ATOMIC_EXCHANGE(ALenum, &ctx->UpdateSources, AL_FALSE);
if(UpdateSources)
CalcListenerParams(ctx->Listener);
/* source processing */
voice = ctx->Voices;
voice_end = voice + ctx->VoiceCount;
while(voice != voice_end)
{
ALsource *source = voice->Source;
if(!source) goto next;
if(source->state != AL_PLAYING && source->state != AL_PAUSED)
{
voice->Source = NULL;
goto next;
}
if(!DeferUpdates && (ATOMIC_EXCHANGE(ALenum, &source->NeedsUpdate, AL_FALSE) ||
UpdateSources))
voice->Update(voice, source, ctx);
if(source->state != AL_PAUSED)
MixSource(voice, source, device, SamplesToDo);
next:
voice++;
}
/* effect slot processing */
slot = VECTOR_ITER_BEGIN(ctx->ActiveAuxSlots);
slot_end = VECTOR_ITER_END(ctx->ActiveAuxSlots);
while(slot != slot_end)
{
if(!DeferUpdates && ATOMIC_EXCHANGE(ALenum, &(*slot)->NeedsUpdate, AL_FALSE))
V((*slot)->EffectState,update)(device, *slot);
V((*slot)->EffectState,process)(SamplesToDo, (*slot)->WetBuffer[0],
device->DryBuffer, device->NumChannels);
for(i = 0;i < SamplesToDo;i++)
(*slot)->WetBuffer[0][i] = 0.0f;
slot++;
}
ctx = ctx->next;
}
slot = &device->DefaultSlot;
if(*slot != NULL)
{
if(ATOMIC_EXCHANGE(ALenum, &(*slot)->NeedsUpdate, AL_FALSE))
V((*slot)->EffectState,update)(device, *slot);
V((*slot)->EffectState,process)(SamplesToDo, (*slot)->WetBuffer[0],
device->DryBuffer, device->NumChannels);
for(i = 0;i < SamplesToDo;i++)
(*slot)->WetBuffer[0][i] = 0.0f;
}
/* Increment the clock time. Every second's worth of samples is
* converted and added to clock base so that large sample counts don't
* overflow during conversion. This also guarantees an exact, stable
* conversion. */
device->SamplesDone += SamplesToDo;
device->ClockBase += (device->SamplesDone/device->Frequency) * DEVICE_CLOCK_RES;
device->SamplesDone %= device->Frequency;
V0(device->Backend,unlock)();
if(device->Hrtf)
{
HrtfMixerFunc HrtfMix = SelectHrtfMixer();
ALuint irsize = GetHrtfIrSize(device->Hrtf);
for(c = 0;c < device->NumChannels;c++)
HrtfMix(OutBuffer, device->DryBuffer[c], 0, device->Hrtf_Offset,
0, irsize, &device->Hrtf_Params[c], &device->Hrtf_State[c],
SamplesToDo
);
device->Hrtf_Offset += SamplesToDo;
}
else if(device->Bs2b)
{
/* Apply binaural/crossfeed filter */
for(i = 0;i < SamplesToDo;i++)
{
float samples[2];
samples[0] = device->DryBuffer[0][i];
samples[1] = device->DryBuffer[1][i];
bs2b_cross_feed(device->Bs2b, samples);
device->DryBuffer[0][i] = samples[0];
device->DryBuffer[1][i] = samples[1];
}
}
if(buffer)
{
#define WRITE(T, a, b, c, d) do { \
Write_##T((a), (b), (c), (d)); \
buffer = (T*)buffer + (c)*(d); \
} while(0)
switch(device->FmtType)
{
case DevFmtByte:
WRITE(ALbyte, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
case DevFmtUByte:
WRITE(ALubyte, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
case DevFmtShort:
WRITE(ALshort, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
case DevFmtUShort:
WRITE(ALushort, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
case DevFmtInt:
WRITE(ALint, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
case DevFmtUInt:
WRITE(ALuint, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
case DevFmtFloat:
WRITE(ALfloat, OutBuffer, buffer, SamplesToDo, OutChannels);
break;
}
#undef WRITE
}
size -= SamplesToDo;
IncrementRef(&device->MixCount);
}
RestoreFPUMode(&oldMode);
}
num_errors DoPass2( section_ptr sec, unsigned_8 *contents, orl_sec_size size,
label_list sec_label_list, ref_list sec_ref_list )
// perform pass 2 on one section
{
struct pass2 data;
label_entry l_entry;
dis_dec_ins decoded;
char name[ MAX_INS_NAME ];
char ops[ MAX_OBJ_NAME + 24 ]; // at most 1 label/relocation per instruction, plus room for registers, brackets and other crap
dis_inst_flags flags;
scantab_ptr st;
int is_intel;
sa_disasm_struct sds;
char *FPU_fixup;
int pos_tabs;
bool is32bit;
routineBase = 0;
st = sec->scan;
data.size = size;
sds.data = contents;
sds.last = size - 1;
l_entry = NULL;
if( sec_label_list != NULL ) {
l_entry = sec_label_list->first;
}
if( sec_ref_list != NULL ) {
data.r_entry = sec_ref_list->first;
} else {
data.r_entry = NULL;
}
data.disassembly_errors = 0;
if( source_mix ) {
GetSourceFile( sec );
}
PrintHeader( sec );
if( size && sec_label_list )
PrintAssumeHeader( sec );
flags.u.all = DIF_NONE;
if( GetMachineType() == ORL_MACHINE_TYPE_I386 ) {
if( ( GetFormat() != ORL_OMF ) ||
( ORLSecGetFlags( sec->shnd ) & ORL_SEC_FLAG_USE_32 ) ) {
flags.u.x86 = DIF_X86_USE32_FLAGS;
}
is_intel = 1;
} else {
is_intel = IsIntelx86();
}
is32bit = ( size >= 0x10000 );
for( data.loop = 0; data.loop < size; data.loop += decoded.size ) {
// process data in code segment
while( st && ( data.loop > st->end ) ) {
st = st->next;
}
if( st && ( data.loop >= st->start ) ) {
decoded.size = 0;
processDataInCode( sec, contents, &data, st->end - data.loop, &l_entry );
st = st->next;
continue;
}
// data may not be listed in scan table, but a fixup at this offset will
// give it away
while( data.r_entry && ( data.r_entry->offset < data.loop ) ) {
data.r_entry = data.r_entry->next;
}
FPU_fixup = processFpuEmulatorFixup( &data.r_entry, data.loop );
if( data.r_entry && ( data.r_entry->offset == data.loop ) ) {
if( is_intel || IsDataReloc( data.r_entry ) ) {
// we just skip the data
decoded.size = 0;
processDataInCode( sec, contents, &data, RelocSize( data.r_entry ), &l_entry );
continue;
}
}
if( source_mix ) {
MixSource( data.loop );
}
DisDecodeInit( &DHnd, &decoded );
decoded.flags.u.all |= flags.u.all;
sds.offs = data.loop;
DisDecode( &DHnd, &sds, &decoded );
if( sec_label_list ) {
l_entry = handleLabels( sec->name, data.loop, data.loop + decoded.size, l_entry, size );
if( ( l_entry != NULL )
&& ( l_entry->offset > data.loop )
&& ( l_entry->offset < data.loop + decoded.size ) ) {
/*
If we have a label planted in the middle of this
instruction (see inline memchr for example), put
out a couple of data bytes, and then restart decode
and label process from offset of actual label.
*/
decoded.size = 0;
processDataInCode( sec, contents, &data, l_entry->offset - data.loop, &l_entry );
continue;
}
}
DisFormat( &DHnd, &data, &decoded, DFormat, name, sizeof( name ), ops, sizeof( ops ) );
if( FPU_fixup != NULL ) {
if( !(DFormat & DFF_ASM) ) {
BufferAlignToTab( PREFIX_SIZE_TABS );
}
BufferStore( "\t%sFPU fixup %s\n", CommentString, FPU_fixup );
}
if( !(DFormat & DFF_ASM) ) {
unsigned_64 *tmp_64;
unsigned_32 *tmp_32;
unsigned_16 *tmp_16;
tmp_64 = (unsigned_64 *)(contents + data.loop);
tmp_32 = (unsigned_32 *)(contents + data.loop);
tmp_16 = (unsigned_16 *)(contents + data.loop);
if( DHnd.need_bswap ) {
switch( DisInsSizeInc( &DHnd ) ) {
//case 8: SWAP_64( *tmp_64 );
// break;
case 4: SWAP_32( *tmp_32 );
break;
case 2: SWAP_16( *tmp_16 );
break;
default:
break;
}
}
PrintLinePrefixAddress( data.loop, is32bit );
PrintLinePrefixData( contents, data.loop, size, DisInsSizeInc( &DHnd ), decoded.size );
BufferAlignToTab( PREFIX_SIZE_TABS );
}
BufferStore( "\t%s", name );
if( *ops != '\0' ) {
pos_tabs = ( DisInsNameMax( &DHnd ) + TAB_WIDTH ) / TAB_WIDTH + 1;
if( !(DFormat & DFF_ASM) ) {
pos_tabs += PREFIX_SIZE_TABS;
}
BufferAlignToTab( pos_tabs );
BufferConcat( ops );
}
BufferConcatNL();
BufferPrint();
}
if( sec_label_list ) {
l_entry = handleLabels( sec->name, size, (orl_sec_offset)-1, l_entry, size );
}
if( !(DFormat & DFF_ASM) ) {
routineSize = data.loop - routineBase;
BufferConcatNL();
BufferMsg( ROUTINE_SIZE );
BufferStore(" %d ", routineSize );
BufferMsg( BYTES );
BufferConcat(", ");
BufferMsg( ROUTINE_BASE );
BufferStore(" %s + %04X\n\n", sec->name, routineBase );
BufferPrint();
}
if( source_mix ) {
EndSourceMix();
}
PrintTail( sec );
return( data.disassembly_errors );
}
