static int
DSOUND_OpenDevice(_THIS, void *handle, const char *devname, int iscapture)
{
HRESULT result;
SDL_bool valid_format = SDL_FALSE;
SDL_bool tried_format = SDL_FALSE;
SDL_AudioFormat test_format = SDL_FirstAudioFormat(this->spec.format);
LPGUID guid = (LPGUID) handle;
/* Initialize all variables that we clean on shutdown */
this->hidden = (struct SDL_PrivateAudioData *)
SDL_malloc((sizeof *this->hidden));
if (this->hidden == NULL) {
return SDL_OutOfMemory();
}
SDL_memset(this->hidden, 0, (sizeof *this->hidden));
/* Open the audio device */
result = pDirectSoundCreate8(guid, &this->hidden->sound, NULL);
if (result != DS_OK) {
DSOUND_CloseDevice(this);
return SetDSerror("DirectSoundCreate", result);
}
while ((!valid_format) && (test_format)) {
switch (test_format) {
case AUDIO_U8:
case AUDIO_S16:
case AUDIO_S32:
case AUDIO_F32:
tried_format = SDL_TRUE;
this->spec.format = test_format;
this->hidden->num_buffers = CreateSecondary(this, NULL);
if (this->hidden->num_buffers > 0) {
valid_format = SDL_TRUE;
}
break;
}
test_format = SDL_NextAudioFormat();
}
if (!valid_format) {
DSOUND_CloseDevice(this);
if (tried_format) {
return -1; /* CreateSecondary() should have called SDL_SetError(). */
}
return SDL_SetError("DirectSound: Unsupported audio format");
}
/* The buffer will auto-start playing in DSOUND_WaitDevice() */
this->hidden->mixlen = this->spec.size;
return 0; /* good to go. */
}
static void win32_display_frame( vo_driver_t * vo_driver, vo_frame_t * vo_frame )
{
win32_driver_t * win32_driver = ( win32_driver_t * ) vo_driver;
win32_frame_t * win32_frame = ( win32_frame_t * ) vo_frame;
int offset;
int size;
// if the required width, height or format has changed
// then recreate the secondary buffer
if( ( win32_driver->req_format != win32_frame->format ) ||
( win32_driver->width != win32_frame->width ) ||
( win32_driver->height != win32_frame->height ) )
{
CreateSecondary( win32_driver, win32_frame->width, win32_frame->height, win32_frame->format );
}
// determine desired ratio
win32_driver->ratio = win32_frame->ratio;
// lock our surface to update its contents
win32_driver->contents = Lock( win32_driver->secondary );
// surface unavailable, skip frame render
if( !win32_driver->contents )
{
vo_frame->free( vo_frame );
return;
}
// if our actual frame format is the native screen
// pixel format, we need to convert it
if( win32_driver->act_format == IMGFMT_NATIVE )
{
// use the software color conversion functions
// to rebuild the frame in our native screen
// pixel format ... this is slow
if( win32_driver->req_format == XINE_IMGFMT_YV12 )
{
// convert from yv12 to native
// screen pixel format
#if NEW_YUV
win32_driver->yuv2rgb->configure( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_driver->width, win32_driver->width/2,
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#else
yuv2rgb_setup( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_driver->width, win32_driver->width/2,
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#endif
win32_driver->yuv2rgb->yuv2rgb_fun( win32_driver->yuv2rgb,
win32_driver->contents,
win32_frame->vo_frame.base[0],
win32_frame->vo_frame.base[1],
win32_frame->vo_frame.base[2] );
}
if( win32_driver->req_format == XINE_IMGFMT_YUY2 )
{
// convert from yuy2 to native
// screen pixel format
#if NEW_YUV
win32_driver->yuv2rgb->configure( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_driver->width, win32_driver->width/2,
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#else
yuv2rgb_setup( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_driver->width, win32_driver->width/2,
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#endif
win32_driver->yuv2rgb->yuy22rgb_fun( win32_driver->yuv2rgb,
win32_driver->contents,
win32_frame->vo_frame.base[0] );
}
#if RGB_SUPPORT
if( win32_driver->req_format == IMGFMT_RGB )
{
// convert from 24 bit rgb to native
// screen pixel format
// TODO : rgb2rgb conversion
}
#endif
}
else
{
// the actual format is identical to our
// stream format. we just need to copy it
switch(win32_frame->format)
{
case XINE_IMGFMT_YV12:
{
vo_frame_t *frame;
uint8_t *img;
frame = vo_frame;
img = (uint8_t *)win32_driver->contents;
offset = 0;
size = frame->pitches[0] * frame->height;
memcpy( img+offset, frame->base[0], size);
offset += size;
size = frame->pitches[2]* frame->height / 2;
memcpy( img+offset, frame->base[2], size);
offset += size;
size = frame->pitches[1] * frame->height / 2;
memcpy( img+offset, frame->base[1], size);
}
break;
case XINE_IMGFMT_YUY2:
memcpy( win32_driver->contents, win32_frame->vo_frame.base[0], win32_frame->vo_frame.pitches[0] * win32_frame->vo_frame.height * 2);
break;
default:
memcpy( win32_driver->contents, win32_frame->vo_frame.base[0], win32_frame->vo_frame.pitches[0] * win32_frame->vo_frame.height * 2);
break;
}
}
// unlock the surface
Unlock( win32_driver->secondary );
// scale, clip and display our frame
DisplayFrame( win32_driver );
// tag our frame as displayed
if((win32_driver->current != NULL) && (win32_driver->current != vo_frame)) {
vo_frame->free(&win32_driver->current->vo_frame);
}
win32_driver->current = vo_frame;
}
static int
DSOUND_OpenDevice(_THIS, const char *devname, int iscapture)
{
HRESULT result;
WAVEFORMATEX waveformat;
int valid_format = 0;
SDL_AudioFormat test_format = SDL_FirstAudioFormat(this->spec.format);
FindDevGUIDData devguid;
LPGUID guid = NULL;
if (devname != NULL) {
devguid.found = 0;
devguid.devname = devname;
if (iscapture)
pDirectSoundCaptureEnumerateW(FindDevGUID, &devguid);
else
pDirectSoundEnumerateW(FindDevGUID, &devguid);
if (!devguid.found) {
SDL_SetError("DirectSound: Requested device not found");
return 0;
}
guid = &devguid.guid;
}
/* Initialize all variables that we clean on shutdown */
this->hidden = (struct SDL_PrivateAudioData *)
SDL_malloc((sizeof *this->hidden));
if (this->hidden == NULL) {
SDL_OutOfMemory();
return 0;
}
SDL_memset(this->hidden, 0, (sizeof *this->hidden));
while ((!valid_format) && (test_format)) {
switch (test_format) {
case AUDIO_U8:
case AUDIO_S16:
case AUDIO_S32:
this->spec.format = test_format;
valid_format = 1;
break;
}
test_format = SDL_NextAudioFormat();
}
if (!valid_format) {
DSOUND_CloseDevice(this);
SDL_SetError("DirectSound: Unsupported audio format");
return 0;
}
SDL_memset(&waveformat, 0, sizeof(waveformat));
waveformat.wFormatTag = WAVE_FORMAT_PCM;
waveformat.wBitsPerSample = SDL_AUDIO_BITSIZE(this->spec.format);
waveformat.nChannels = this->spec.channels;
waveformat.nSamplesPerSec = this->spec.freq;
waveformat.nBlockAlign =
waveformat.nChannels * (waveformat.wBitsPerSample / 8);
waveformat.nAvgBytesPerSec =
waveformat.nSamplesPerSec * waveformat.nBlockAlign;
/* Update the fragment size as size in bytes */
SDL_CalculateAudioSpec(&this->spec);
/* Open the audio device */
result = pDirectSoundCreate8(guid, &this->hidden->sound, NULL);
if (result != DS_OK) {
DSOUND_CloseDevice(this);
SetDSerror("DirectSoundCreate", result);
return 0;
}
/* Create the audio buffer to which we write */
this->hidden->num_buffers = CreateSecondary(this, NULL, &waveformat);
if (this->hidden->num_buffers < 0) {
DSOUND_CloseDevice(this);
return 0;
}
/* The buffer will auto-start playing in DSOUND_WaitDevice() */
this->hidden->mixlen = this->spec.size;
return 1; /* good to go. */
}
static int
DSOUND_OpenDevice(_THIS, void *handle, const char *devname, int iscapture)
{
const DWORD numchunks = 8;
HRESULT result;
SDL_bool valid_format = SDL_FALSE;
SDL_bool tried_format = SDL_FALSE;
SDL_AudioFormat test_format = SDL_FirstAudioFormat(this->spec.format);
LPGUID guid = (LPGUID) handle;
DWORD bufsize;
/* Initialize all variables that we clean on shutdown */
this->hidden = (struct SDL_PrivateAudioData *)
SDL_malloc((sizeof *this->hidden));
if (this->hidden == NULL) {
return SDL_OutOfMemory();
}
SDL_zerop(this->hidden);
/* Open the audio device */
if (iscapture) {
result = pDirectSoundCaptureCreate8(guid, &this->hidden->capture, NULL);
if (result != DS_OK) {
return SetDSerror("DirectSoundCaptureCreate8", result);
}
} else {
result = pDirectSoundCreate8(guid, &this->hidden->sound, NULL);
if (result != DS_OK) {
return SetDSerror("DirectSoundCreate8", result);
}
result = IDirectSound_SetCooperativeLevel(this->hidden->sound,
GetDesktopWindow(),
DSSCL_NORMAL);
if (result != DS_OK) {
return SetDSerror("DirectSound SetCooperativeLevel", result);
}
}
while ((!valid_format) && (test_format)) {
switch (test_format) {
case AUDIO_U8:
case AUDIO_S16:
case AUDIO_S32:
case AUDIO_F32:
tried_format = SDL_TRUE;
this->spec.format = test_format;
/* Update the fragment size as size in bytes */
SDL_CalculateAudioSpec(&this->spec);
bufsize = numchunks * this->spec.size;
if ((bufsize < DSBSIZE_MIN) || (bufsize > DSBSIZE_MAX)) {
SDL_SetError("Sound buffer size must be between %d and %d",
(DSBSIZE_MIN < numchunks) ? 1 : DSBSIZE_MIN / numchunks,
DSBSIZE_MAX / numchunks);
} else {
int rc;
WAVEFORMATEX wfmt;
SDL_zero(wfmt);
if (SDL_AUDIO_ISFLOAT(this->spec.format)) {
wfmt.wFormatTag = WAVE_FORMAT_IEEE_FLOAT;
} else {
wfmt.wFormatTag = WAVE_FORMAT_PCM;
}
wfmt.wBitsPerSample = SDL_AUDIO_BITSIZE(this->spec.format);
wfmt.nChannels = this->spec.channels;
wfmt.nSamplesPerSec = this->spec.freq;
wfmt.nBlockAlign = wfmt.nChannels * (wfmt.wBitsPerSample / 8);
wfmt.nAvgBytesPerSec = wfmt.nSamplesPerSec * wfmt.nBlockAlign;
rc = iscapture ? CreateCaptureBuffer(this, bufsize, &wfmt) : CreateSecondary(this, bufsize, &wfmt);
if (rc == 0) {
this->hidden->num_buffers = numchunks;
valid_format = SDL_TRUE;
}
}
break;
}
test_format = SDL_NextAudioFormat();
}
if (!valid_format) {
if (tried_format) {
return -1; /* CreateSecondary() should have called SDL_SetError(). */
}
return SDL_SetError("DirectSound: Unsupported audio format");
}
/* Playback buffers will auto-start playing in DSOUND_WaitDevice() */
return 0; /* good to go. */
}
static void win32_display_frame( vo_driver_t * vo_driver, vo_frame_t * vo_frame )
{
win32_driver_t *win32_driver = ( win32_driver_t * ) vo_driver;
win32_frame_t *win32_frame = ( win32_frame_t * ) vo_frame;
/* if the required width, height or format has changed
* then recreate the secondary buffer */
if( ( win32_driver->req_format != win32_frame->format ) ||
( win32_driver->width != win32_frame->width ) ||
( win32_driver->height != win32_frame->height ) )
{
CreateSecondary( win32_driver, win32_frame->width, win32_frame->height, win32_frame->format );
}
/* determine desired ratio */
win32_driver->ratio = win32_frame->ratio;
/* lock our surface to update its contents */
win32_driver->contents = Lock( win32_driver, win32_driver->secondary );
/* surface unavailable, skip frame render */
if( !win32_driver->contents )
{
vo_frame->free( vo_frame );
return;
}
/* if our actual frame format is the native screen
* pixel format, we need to convert it */
if( win32_driver->act_format == IMGFMT_NATIVE )
{
/* use the software color conversion functions
* to rebuild the frame in our native screen
* pixel format ... this is slow */
if( win32_driver->req_format == XINE_IMGFMT_YV12 )
{
/* convert from yv12 to native
* screen pixel format */
#if NEW_YUV
win32_driver->yuv2rgb->configure( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_frame->vo_frame.pitches[0], win32_frame->vo_frame.pitches[1],
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp);
#else
yuv2rgb_setup( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_frame->vo_frame.pitches[0], win32_frame->vo_frame.pitches[1],
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#endif
win32_driver->yuv2rgb->yuv2rgb_fun( win32_driver->yuv2rgb,
win32_driver->contents,
win32_frame->vo_frame.base[0],
win32_frame->vo_frame.base[1],
win32_frame->vo_frame.base[2] );
}
if( win32_driver->req_format == XINE_IMGFMT_YUY2 )
{
/* convert from yuy2 to native
* screen pixel format */
#if NEW_YUV
win32_driver->yuv2rgb->configure( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_frame->vo_frame.pitches[0], win32_frame->vo_frame.pitches[0] / 2,
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#else
yuv2rgb_setup( win32_driver->yuv2rgb,
win32_driver->width, win32_driver->height,
win32_frame->vo_frame.pitches[0], win32_frame->vo_frame.pitches[0] / 2,
win32_driver->width, win32_driver->height,
win32_driver->width * win32_driver->bytespp );
#endif
win32_driver->yuv2rgb->yuy22rgb_fun( win32_driver->yuv2rgb,
win32_driver->contents,
win32_frame->vo_frame.base[0] );
}
#if RGB_SUPPORT
if( win32_driver->req_format == IMGFMT_RGB )
{
/* convert from 24 bit rgb to native
* screen pixel format */
/* TODO : rgb2rgb conversion */
}
#endif
}
else
{
/* the actual format is identical to our
* stream format. we just need to copy it */
int line;
uint8_t * src;
vo_frame_t * frame = vo_frame;
uint8_t * dst = (uint8_t *)win32_driver->contents;
switch(win32_frame->format)
{
case XINE_IMGFMT_YV12:
src = frame->base[0];
for (line = 0; line < frame->height ; line++){
xine_fast_memcpy( dst, src, frame->width);
src += vo_frame->pitches[0];
dst += win32_driver->ddsd.lPitch;
}
src = frame->base[2];
for (line = 0; line < frame->height/2 ; line++){
xine_fast_memcpy( dst, src, frame->width/2);
src += vo_frame->pitches[2];
dst += win32_driver->ddsd.lPitch/2;
}
src = frame->base[1];
for (line = 0; line < frame->height/2 ; line++){
xine_fast_memcpy( dst, src, frame->width/2);
src += vo_frame->pitches[1];
dst += win32_driver->ddsd.lPitch/2;
}
break;
case XINE_IMGFMT_YUY2:
default:
src = frame->base[0];
for (line = 0; line < frame->height ; line++){
xine_fast_memcpy( dst, src, frame->width*2);
src += vo_frame->pitches[0];
dst += win32_driver->ddsd.lPitch;
}
break;
}
}
/* unlock the surface */
Unlock( win32_driver->secondary );
/* scale, clip and display our frame */
DisplayFrame( win32_driver );
/* tag our frame as displayed */
if((win32_driver->current != NULL) && ((vo_frame_t *)win32_driver->current != vo_frame)) {
vo_frame->free(&win32_driver->current->vo_frame);
}
win32_driver->current = (win32_frame_t *)vo_frame;
}
static int DX5_OpenAudio(_THIS, SDL_AudioSpec *spec)
{
HRESULT result;
WAVEFORMATEX waveformat;
/* Set basic WAVE format parameters */
memset(&waveformat, 0, sizeof(waveformat));
waveformat.wFormatTag = WAVE_FORMAT_PCM;
/* Determine the audio parameters from the AudioSpec */
switch ( spec->format & 0xFF ) {
case 8:
/* Unsigned 8 bit audio data */
spec->format = AUDIO_U8;
silence = 0x80;
waveformat.wBitsPerSample = 8;
break;
case 16:
/* Signed 16 bit audio data */
spec->format = AUDIO_S16;
silence = 0x00;
waveformat.wBitsPerSample = 16;
break;
default:
SDL_SetError("Unsupported audio format");
return(-1);
}
waveformat.nChannels = spec->channels;
waveformat.nSamplesPerSec = spec->freq;
waveformat.nBlockAlign =
waveformat.nChannels * (waveformat.wBitsPerSample/8);
waveformat.nAvgBytesPerSec =
waveformat.nSamplesPerSec * waveformat.nBlockAlign;
/* Update the fragment size as size in bytes */
SDL_CalculateAudioSpec(spec);
/* Open the audio device */
result = DSoundCreate(NULL, &sound, NULL);
if ( result != DS_OK ) {
SetDSerror("DirectSoundCreate", result);
return(-1);
}
/* Create the audio buffer to which we write */
NUM_BUFFERS = -1;
#ifdef USE_PRIMARY_BUFFER
if ( mainwin ) {
NUM_BUFFERS = CreatePrimary(sound, mainwin, &mixbuf,
&waveformat, spec->size);
}
#endif /* USE_PRIMARY_BUFFER */
if ( NUM_BUFFERS < 0 ) {
NUM_BUFFERS = CreateSecondary(sound, mainwin, &mixbuf,
&waveformat, spec->size);
if ( NUM_BUFFERS < 0 ) {
return(-1);
}
#ifdef DEBUG_SOUND
fprintf(stderr, "Using secondary audio buffer\n");
#endif
}
#ifdef DEBUG_SOUND
else
fprintf(stderr, "Using primary audio buffer\n");
#endif
/* The buffer will auto-start playing in DX5_WaitAudio() */
playing = 0;
mixlen = spec->size;
#ifdef USE_POSITION_NOTIFY
/* See if we can use DirectX 6 event notification */
if ( CreateAudioEvent(this) == 0 ) {
this->WaitAudio = DX6_WaitAudio_EventWait;
} else {
this->WaitAudio = DX5_WaitAudio_BusyWait;
}
#endif
return(0);
}
