/******************************************************************************
* gst_ticircbuffer_shift_data
* Look for uncopied data in the last window and move it to the first one.
******************************************************************************/
static gboolean gst_ticircbuffer_shift_data(GstTICircBuffer *circBuf)
{
Int8* firstWindow = Buffer_getUserPtr(circBuf->hBuf);
Int32 lastWinOffset = Buffer_getSize(circBuf->hBuf) -
(circBuf->windowSize + circBuf->readAheadSize);
Int8* lastWindow = firstWindow + lastWinOffset;
Int32 bytesToCopy = 0;
gboolean writePtrReset = FALSE;
/* In fixedBlockSize mode, just wait until the write poitner reaches the
* end of the buffer and then reset it to the beginning (no copying).
*/
if (circBuf->fixedBlockSize && circBuf->writePtr >= circBuf->readPtr) {
if (circBuf->writePtr == firstWindow + Buffer_getSize(circBuf->hBuf)) {
GST_LOG("resetting write pointer (%lu->0)\n",
(UInt32)(circBuf->writePtr - firstWindow));
circBuf->writePtr = Buffer_getUserPtr(circBuf->hBuf);
circBuf->contiguousData = FALSE;
}
return TRUE;
}
/* Otherwise copy unconsumed data from the last window to the first one
* and reset the write pointer back to the first window.
*/
if (gst_ticircbuffer_first_window_free(circBuf) &&
circBuf->writePtr >= circBuf->readPtr &&
circBuf->writePtr >= lastWindow + circBuf->windowSize)
{
bytesToCopy = circBuf->writePtr - lastWindow;
GST_LOG("shifting %lu bytes of data from %lu to 0\n", bytesToCopy,
(UInt32)(lastWindow - firstWindow));
if (bytesToCopy > 0) {
memcpy(firstWindow, lastWindow, bytesToCopy);
}
GST_LOG("resetting write pointer (%lu->%lu)\n",
(UInt32)(circBuf->writePtr - firstWindow),
(UInt32)(circBuf->writePtr - (lastWindow - firstWindow) -
firstWindow));
circBuf->writePtr -= (lastWindow - firstWindow);
circBuf->contiguousData = FALSE;
writePtrReset = TRUE;
/* The queue function will not unblock the consumer until there is
* at least windowSize + readAhead available, but if the read pointer
* is toward the end of the buffer, we may never get more than just
* windowSize available and will deadlock. To avoid this situation,
* wake the consumer after shifting data so it has an opportunity to
* process the last window in the buffer and reset itself to the
* beginning of the buffer.
*/
gst_ticircbuffer_broadcast_producer(circBuf);
}
return writePtrReset;
}
/******************************************************************************
* Framecopy_resizer_accel_execute
******************************************************************************/
Int Framecopy_resizer_accel_execute(Framecopy_Handle hFc,
Buffer_Handle hSrcBuf,
Buffer_Handle hDstBuf)
{
#if defined(CONFIG_VIDEO_OMAP34XX_ISP_RESIZER)
Int i;
struct v4l2_buffer qbuf[2];
assert(hFc);
assert(hSrcBuf);
assert(hDstBuf);
/* Pointers must be a multiple of 32 bytes */
assert((Buffer_getPhysicalPtr(hDstBuf) & 0x1F) == 0);
assert((Buffer_getPhysicalPtr(hSrcBuf) & 0x1F) == 0);
/* Queue the resizer buffers */
for (i=0; i < 2; i++) {
qbuf[i].type = V4L2_BUF_TYPE_VIDEO_CAPTURE;
qbuf[i].memory = V4L2_MEMORY_USERPTR;
qbuf[i].index = i;
if (ioctl (hFc->fd, RSZ_QUERYBUF, &qbuf[i]) == -1) {
Dmai_err1("Failed to query buffer index %d\n", i);
return Dmai_EFAIL;
}
if (i == 0) {
qbuf[i].m.userptr = (unsigned long) Buffer_getUserPtr(hSrcBuf);
}
else {
qbuf[i].m.userptr = (unsigned long) Buffer_getUserPtr(hDstBuf);
}
if (ioctl (hFc->fd, RSZ_QUEUEBUF, &qbuf[i]) == -1) {
Dmai_err1("Failed to queue buffer index %d\n",i);
return Dmai_EFAIL;
}
}
if (ioctl(hFc->fd, RSZ_RESIZE, NULL) == -1) {
Dmai_err0("Failed to execute resize job\n");
return Dmai_EFAIL;
}
Buffer_setNumBytesUsed(hDstBuf, Buffer_getNumBytesUsed(hSrcBuf));
return Dmai_EOK;
#else
Dmai_err0("not implemented\n");
return Dmai_ENOTIMPL;
#endif /* end CONFIG_VIDEO_OMAP34XX_ISP_RESIZER */
}
/******************************************************************************
* Resize_execute
******************************************************************************/
Int Resize_execute(Resize_Handle hResize,
Buffer_Handle hSrcBuf, Buffer_Handle hDstBuf)
{
#ifdef CONFIG_DM365_IPIPE
struct imp_convert rsz;
BufferGfx_Dimensions srcDim;
BufferGfx_Dimensions dstDim;
UInt32 srcOffset;
UInt32 dstOffset;
assert(hResize);
assert(hSrcBuf);
assert(hDstBuf);
Dmai_clear(rsz);
BufferGfx_getDimensions(hSrcBuf, &srcDim);
BufferGfx_getDimensions(hDstBuf, &dstDim);
srcOffset = srcDim.y * srcDim.lineLength + (srcDim.x << 1);
dstOffset = dstDim.y * dstDim.lineLength + (dstDim.x << 1);
rsz.in_buff.index = -1;
rsz.in_buff.buf_type = IMP_BUF_IN;
rsz.in_buff.offset = (UInt32) Buffer_getUserPtr(hSrcBuf) + srcOffset;
rsz.in_buff.size = Buffer_getSize(hSrcBuf);
rsz.out_buff1.index = -1;
rsz.out_buff1.buf_type = IMP_BUF_OUT1;
rsz.out_buff1.offset = (UInt32) Buffer_getUserPtr(hDstBuf) + dstOffset;
rsz.out_buff1.size = Buffer_getSize(hDstBuf);
/*
* The IPIPE requires that the memory offsets of the input and output
* buffers start on 32-byte boundaries.
*/
assert((rsz.in_buff.offset & 0x1F) == 0);
assert((rsz.out_buff1.offset & 0x1F) == 0);
/* Start IPIPE operation */
if (ioctl(hResize->fd, RSZ_RESIZE, &rsz) == -1) {
Dmai_err0("Failed RSZ_RESIZE\n");
return Dmai_EFAIL;
}
Buffer_setNumBytesUsed(hDstBuf, Buffer_getNumBytesUsed(hSrcBuf));
return Dmai_EOK;
#else
Dmai_err0("not implemented\n");
return Dmai_ENOTIMPL;
#endif
}
/******************************************************************************
* readFrame420P
******************************************************************************/
Int readFrame420P(Buffer_Handle hBuf, FILE *outFile, Int imageHeight)
{
Int8 *yPtr = Buffer_getUserPtr(hBuf);
Int8 *cbcrPtr;
Int y, x;
BufferGfx_Dimensions dim;
BufferGfx_getDimensions(hBuf, &dim);
/* Write Y plane */
for (y = 0; y < imageHeight; y++) {
if (fread(yPtr, dim.width, 1, outFile) != 1) {
fprintf(stderr,"Failed to read data from file\n");
return -1;
}
yPtr += dim.lineLength;
}
/* Join Cb to CbCr interleaved */
cbcrPtr = Buffer_getUserPtr(hBuf) + Buffer_getSize(hBuf) * 2 / 3;
for (y = 0; y < imageHeight / 2; y++) {
for (x = 0; x < dim.width; x += 2) {
if (fread(&cbcrPtr[x], 1, 1, outFile) != 1) {
fprintf(stderr,"Failed to read data from file\n");
return -1;
}
}
cbcrPtr += dim.lineLength;
}
/* Join Cr to CbCr interleaved */
cbcrPtr = Buffer_getUserPtr(hBuf) + Buffer_getSize(hBuf) * 2 / 3;
for (y = 0; y < imageHeight / 2; y++) {
for (x = 1; x < dim.width; x += 2) {
if (fread(&cbcrPtr[x], 1, 1, outFile) != 1) {
fprintf(stderr,"Failed to read data from file\n");
return -1;
}
}
cbcrPtr += dim.lineLength;
}
printf("Read 420P frame size %d (%dx%d) from file\n",
(Int) (dim.width * 3 / 2 * imageHeight),
(Int) dim.width, (Int) imageHeight);
Buffer_setNumBytesUsed(hBuf, Buffer_getSize(hBuf));
return 0;
}
int write2_yuv_422(Buffer_Handle hCapBuf, int width, int height)
{
FILE *fp;
unsigned char *pY, *pU, *pV;
unsigned int i;
static int g_time = 0;
char buf[100];
int linlen = 640;
int j = 0;
sprintf(buf, "/%dx%d_%d.yuv", width, height, g_time++);
printf("buf = %s,width=%d,height=%d\n", buf, width, height);
// if(time != 50)
// return 1;
fp = fopen(buf, "wb");
pY = (unsigned char *)Buffer_getUserPtr(hCapBuf);
pU = (unsigned char *)Buffer_getUserPtr(hCapBuf) + 640 * 64;
pV = (unsigned char *)Buffer_getUserPtr(hCapBuf) + 640 * 64 + 1;
j = 0;
for(i = 0; i < height; i++) {
if(j < width) {
fputc(*pY, fp);
pY++;
j++;
}
j = 0;
pY = pY + (linlen - width);
}
for(i = 0; i < height * width / 2; i++) {
fputc(*pU, fp);
pU++;
pU++;
}
for(i = 0; i < height * width / 2; i++) {
fputc(*pV, fp);
pV++;
pV++;
}
fclose(fp);
printf("write over height=%d width=%d time = %d\n", height, width, g_time);
return 1;
}
/******************************************************************************
* Display_v4l2_put
******************************************************************************/
Int Display_v4l2_put(Display_Handle hDisplay, Buffer_Handle hBuf)
{
Int idx;
assert(hDisplay);
assert(hBuf);
idx = getUsedIdx(hDisplay->bufDescs, BufTab_getNumBufs(hDisplay->hBufTab));
if (idx < 0) {
Dmai_err0("No v4l2 buffers available\n");
return Dmai_ENOMEM;
}
hDisplay->bufDescs[idx].v4l2buf.m.userptr = (Int)Buffer_getUserPtr(hBuf);
hDisplay->bufDescs[idx].v4l2buf.type = V4L2_BUF_TYPE_VIDEO_OUTPUT;
/* Issue captured frame buffer back to device driver */
if (ioctl(hDisplay->fd, VIDIOC_QBUF,
&hDisplay->bufDescs[idx].v4l2buf) == -1) {
Dmai_err1("VIDIOC_QBUF failed (%s)\n", strerror(errno));
return Dmai_EFAIL;
}
hDisplay->bufDescs[idx].hBuf = hBuf;
hDisplay->bufDescs[idx].used = FALSE;
return Dmai_EOK;
}
/******************************************************************************
* readFrameUYVY
******************************************************************************/
Int readFrameUYVY(Buffer_Handle hBuf, FILE *outFile)
{
Int8 *ptr = Buffer_getUserPtr(hBuf);
Int y;
BufferGfx_Dimensions dim;
BufferGfx_getDimensions(hBuf, &dim);
for (y = 0; y < dim.height; y++) {
if (fread(ptr, dim.width * 2, 1, outFile) != 1) {
fprintf(stderr,"Failed to read data from file\n");
return -1;
}
ptr += dim.lineLength;
}
printf("Read UYVY frame size %d (%dx%d) from file\n",
(Int) (dim.width * 2 * dim.height),
(Int) dim.width, (Int) dim.height);
Buffer_setNumBytesUsed(hBuf, dim.width * 2 * dim.height);
return 0;
}
/*****************************************************************************
* gst_tiprepencbuf_prepare_output_buffer
* Function is used to allocate output buffer
*****************************************************************************/
static GstFlowReturn
gst_tiprepencbuf_prepare_output_buffer(GstBaseTransform * trans,
GstBuffer * inBuf, gint size, GstCaps * caps, GstBuffer ** outBuf)
{
GstTIPrepEncBuf *prepencbuf = GST_TIPREPENCBUF(trans);
Buffer_Handle hOutBuf;
GST_LOG("begin prepare output buffer\n");
/* Get free buffer from buftab */
if (!(hOutBuf = gst_tidmaibuftab_get_buf(prepencbuf->hOutBufTab))) {
GST_ELEMENT_ERROR(prepencbuf, RESOURCE, READ,
("failed to get free buffer\n"), (NULL));
return GST_FLOW_ERROR;
}
/* Create a DMAI transport buffer object to carry a DMAI buffer to
* the source pad. The transport buffer knows how to release the
* buffer for re-use in this element when the source pad calls
* gst_buffer_unref().
*/
GST_LOG("creating dmai transport buffer\n");
*outBuf = gst_tidmaibuffertransport_new(hOutBuf, prepencbuf->hOutBufTab, NULL, NULL);
gst_buffer_set_data(*outBuf, (guint8 *) Buffer_getUserPtr(hOutBuf),
Buffer_getSize(hOutBuf));
gst_buffer_set_caps(*outBuf, GST_PAD_CAPS(trans->srcpad));
GST_LOG("end prepare output buffer\n");
return GST_FLOW_OK;
}
/******************************************************************************
* Sound_alsa_read
******************************************************************************/
Int Sound_alsa_read(Sound_Handle hSound, Buffer_Handle hBuf)
{
Int32 numSamples, readSamples;
Int8 *bufPtr;
assert(hSound);
assert(hBuf);
readSamples = Buffer_getNumBytesUsed(hBuf) / (2 * hSound->channels);
bufPtr = Buffer_getUserPtr(hBuf);
while (readSamples > 0) {
numSamples = snd_pcm_readi(hSound->rcIn, bufPtr, readSamples);
if (numSamples == -EAGAIN)
continue;
if (numSamples < 0) {
if (xrunRecovery(hSound->rcIn,numSamples) < 0) {
Dmai_err2 ("Failed to read from %s (%s)\n",
AUDIO_DEVICE, strerror(numSamples));
return Dmai_EFAIL;
}
}
else {
bufPtr += numSamples * 2 * hSound->channels;
readSamples -= numSamples;
}
}
Buffer_setNumBytesUsed(hBuf, Buffer_getSize(hBuf));
return Dmai_EOK;
}
/******************************************************************************
* Capture_put
******************************************************************************/
Int Capture_put(Capture_Handle hCapture, Buffer_Handle hBuf)
{
Int idx;
assert(hCapture);
assert(hBuf);
idx = getUsedIdx(hCapture->bufDescs, BufTab_getNumBufs(hCapture->hBufTab));
if (idx < 0) {
Dmai_err0("You must get a captured buffer before putting one\n");
return Dmai_ENOMEM;
}
hCapture->bufDescs[idx].v4l2buf.m.userptr =
(Int) Buffer_getUserPtr(hBuf);
hCapture->bufDescs[idx].v4l2buf.type = V4L2_BUF_TYPE_VIDEO_CAPTURE;
/* Issue captured frame buffer back to device driver */
if (ioctl(hCapture->fd, VIDIOC_QBUF,
&hCapture->bufDescs[idx].v4l2buf) == -1) {
Dmai_err1("VIDIOC_QBUF failed (%s)\n", strerror(errno));
return Dmai_EFAIL;
}
hCapture->bufDescs[idx].hBuf = hBuf;
hCapture->bufDescs[idx].used = FALSE;
return Dmai_EOK;
}
static gboolean gstti_viddec_process(GstTIDmaidec *dmaidec, GstBuffer *encData,
Buffer_Handle hDstBuf,gboolean codecFlushed){
GstTIDmaidecData *decoder;
Buffer_Handle hEncData = NULL;
Int32 encDataConsumed, originalBufferSize;
Int ret;
decoder = (GstTIDmaidecData *)
g_type_get_qdata(G_OBJECT_CLASS_TYPE(G_OBJECT_GET_CLASS(dmaidec)),
GST_TIDMAIDEC_PARAMS_QDATA);
hEncData = GST_TIDMAIBUFFERTRANSPORT_DMAIBUF(encData);
g_assert(hEncData != NULL);
/* Make sure the whole buffer is used for output */
BufferGfx_resetDimensions(hDstBuf);
/* Invoke the video decoder */
originalBufferSize = Buffer_getNumBytesUsed(hEncData);
GST_DEBUG("invoking the video decoder, with %ld bytes (%p, %p)\n",originalBufferSize,
Buffer_getUserPtr(hEncData),Buffer_getUserPtr(hDstBuf));
ret = Vdec_process(dmaidec->hCodec, hEncData, hDstBuf);
encDataConsumed = (codecFlushed) ? 0 :
Buffer_getNumBytesUsed(hEncData);
if (ret < 0) {
GST_ELEMENT_ERROR(dmaidec,STREAM,DECODE,(NULL),
("failed to decode video buffer"));
return FALSE;
}
if (ret == Dmai_EBITERROR){
GST_ELEMENT_WARNING(dmaidec,STREAM,DECODE,(NULL),
("Unable to decode frame with timestamp %"GST_TIME_FORMAT,
GST_TIME_ARGS(GST_BUFFER_TIMESTAMP(encData))));
/* We failed to process this buffer, so we need to release it
because the codec won't do it.
*/
GST_DEBUG("Freeing buffer because of bit error on the stream");
Buffer_freeUseMask(hDstBuf, gst_tidmaibuffertransport_GST_FREE |
decoder->dops->outputUseMask);
return FALSE;
}
return TRUE;
}
/******************************************************************************
* gst_ticircbuffer_write_space
* Return the free space available in the buffer for CONTIGUOUS WRITING at
* the writePtr location.
******************************************************************************/
static Int32 gst_ticircbuffer_write_space(GstTICircBuffer *circBuf)
{
if (circBuf->contiguousData) {
return (Buffer_getUserPtr(circBuf->hBuf) +
Buffer_getSize(circBuf->hBuf)) - circBuf->writePtr;
}
return circBuf->readPtr - circBuf->writePtr;
}
void dmaiaccel_release_cb(gpointer data,
GstTIDmaiBufferTransport *buf){
Buffer_Handle hBuf = GST_TIDMAIBUFFERTRANSPORT_DMAIBUF(buf);
GstBuffer *inBuf = (GstBuffer *)data;
GST_DEBUG("Release callback for dmaiaccel allocated buffer");
Memory_unregisterContigBuf((UInt32)Buffer_getUserPtr(hBuf),
Buffer_getSize(hBuf));
/* Now we can release our input buffer */
gst_buffer_unref(inBuf);
}
/******************************************************************************
* gst_ticircbuffer_reset_read_pointer
* Reset the read pointer back to the beginning of the buffer.
******************************************************************************/
static Int32 gst_ticircbuffer_reset_read_pointer(GstTICircBuffer *circBuf)
{
Int8 *circBufStart = Buffer_getUserPtr(circBuf->hBuf);
Int32 lastWinOffset = Buffer_getSize(circBuf->hBuf) -
(circBuf->windowSize + circBuf->readAheadSize);
Int8 *lastWindow = circBufStart + lastWinOffset;
Int32 resetDelta = lastWindow - circBufStart;
/* In fixedBlockSize mode, just wait until the read poitner reaches the
* end of the buffer and then reset it to the beginning.
*/
if (circBuf->fixedBlockSize && !circBuf->contiguousData) {
if (circBuf->readPtr == circBufStart + Buffer_getSize(circBuf->hBuf)) {
GST_LOG("resetting read pointer (%lu->0)\n",
(UInt32)(circBuf->readPtr - circBufStart));
circBuf->readPtr = Buffer_getUserPtr(circBuf->hBuf);
circBuf->contiguousData = TRUE;
}
return 0;
}
/* Otherwise, reset it when the read pointer reaches the last window and
* the last window has already been copied back to the first window.
*/
if (!circBuf->contiguousData &&
circBuf->readPtr > lastWindow &&
circBuf->readPtr - resetDelta <= circBuf->writePtr) {
GST_LOG("resetting read pointer (%lu->%lu)\n",
(UInt32)(circBuf->readPtr - circBufStart),
(UInt32)(circBuf->readPtr - resetDelta - circBufStart));
circBuf->readPtr -= resetDelta;
circBuf->contiguousData = TRUE;
return TRUE;
}
return FALSE;
}
/******************************************************************************
* cleanup
******************************************************************************/
static Int cleanup(Display_Handle hDisplay)
{
Int ret = Dmai_EOK;
BufTab_Handle hBufTab = hDisplay->hBufTab;
enum v4l2_buf_type type;
Int bufIdx;
Buffer_Handle hDispBuf;
if (hDisplay->fd != -1) {
if (hDisplay->started) {
/* Shut off the video display */
type = V4L2_BUF_TYPE_VIDEO_OUTPUT;
if (ioctl(hDisplay->fd, VIDIOC_STREAMOFF, &type) == -1) {
Dmai_err1("VIDIOC_STREAMOFF failed (%s)\n", strerror(errno));
ret = Dmai_EFAIL;
}
}
if (close(hDisplay->fd) == -1) {
Dmai_err1("Failed to close capture device (%s)\n", strerror(errno));
ret = Dmai_EIO;
}
if (hDisplay->userAlloc == FALSE) {
if (hBufTab) {
for (bufIdx = 0;
bufIdx < BufTab_getNumBufs(hBufTab);
bufIdx++) {
hDispBuf = BufTab_getBuf(hBufTab, bufIdx);
if (munmap(Buffer_getUserPtr(hDispBuf),
Buffer_getSize(hDispBuf)) == -1) {
Dmai_err1("Failed to unmap capture buffer%d\n", bufIdx);
ret = Dmai_EFAIL;
}
}
}
}
}
if (hDisplay->bufDescs) {
free(hDisplay->bufDescs);
}
free(hDisplay);
return ret;
}
/******************************************************************************
* cleanup
******************************************************************************/
static Int cleanup(Capture_Handle hCapture)
{
BufTab_Handle hBufTab = hCapture->hBufTab;
Int ret = Dmai_EOK;
Int8 *capBufPtr;
enum v4l2_buf_type type;
Uns bufIdx;
Buffer_Handle hCapBuf;
if (hCapture->fd != -1) {
if (hCapture->started) {
/* Shut off the video capture */
type = V4L2_BUF_TYPE_VIDEO_CAPTURE;
if (ioctl(hCapture->fd, VIDIOC_STREAMOFF, &type) == -1) {
Dmai_err1("VIDIOC_STREAMOFF failed (%s)\n", strerror(errno));
ret = Dmai_EFAIL;
}
}
if (close(hCapture->fd) == -1) {
Dmai_err1("Failed to close capture device (%s)\n", strerror(errno));
ret = Dmai_EIO;
}
if (hCapture->userAlloc == FALSE && hBufTab) {
for (bufIdx = 0;
bufIdx < BufTab_getNumBufs(hBufTab);
bufIdx++) {
hCapBuf = BufTab_getBuf(hBufTab, bufIdx);
capBufPtr = Buffer_getUserPtr(hCapBuf);
if (munmap(capBufPtr - hCapture->topOffset,
Buffer_getSize(hCapBuf)) == -1) {
Dmai_err1("Failed to unmap capture buffer%d\n", bufIdx);
ret = Dmai_EFAIL;
}
}
}
if (hCapture->bufDescs) {
free(hCapture->bufDescs);
}
}
free(hCapture);
return ret;
}
/******************************************************************************
* writeFrame
******************************************************************************/
static Int writeFrame(Buffer_Handle hBuf, FILE *outFile)
{
Int8 *ptr = Buffer_getUserPtr(hBuf);
Int size;
size = Buffer_getNumBytesUsed(hBuf);
if (fwrite(ptr, size, 1, outFile) != 1) {
fprintf(stderr,"Failed to write data to disk\n");
return -1;
}
printf("Wrote audio frame size %d to disk\n", size);
return 0;
}
/******************************************************************************
* setOsdTransparency
******************************************************************************/
static Int setOsdTransparency(UI_Handle hUI, Char trans)
{
Buffer_Handle hBuf;
if (Display_get(hUI->hAttr, &hBuf) < 0) {
ERR("Failed to get attribute window buffer\n");
return FAILURE;
}
memset(Buffer_getUserPtr(hBuf), trans, Buffer_getSize(hBuf));
if (Display_put(hUI->hAttr, hBuf) < 0) {
ERR("Failed to put display buffer\n");
return FAILURE;
}
return SUCCESS;
}
/******************************************************************************
* gst_ticircbuffer_new
* Create a circular buffer to store an encoded input stream. Increasing
* the number of windows stored in the buffer can help performance if
* adequate memory is available.
******************************************************************************/
GstTICircBuffer* gst_ticircbuffer_new(Int32 windowSize, Int32 numWindows,
Bool fixedBlockSize)
{
GstTICircBuffer *circBuf;
Buffer_Attrs bAttrs = Buffer_Attrs_DEFAULT;
Int32 bufSize;
circBuf = (GstTICircBuffer*)gst_mini_object_new(GST_TYPE_TICIRCBUFFER);
g_return_val_if_fail(circBuf != NULL, NULL);
GST_INFO("requested windowSize: %ld\n", windowSize);
circBuf->windowSize = windowSize;
GST_INFO("fixed block size is %s\n", fixedBlockSize ? "ON" : "OFF");
circBuf->fixedBlockSize = fixedBlockSize;
/* We need to have at least 2 windows allocated for us to be able
* to copy buffer data while the consumer is running.
*/
if (numWindows < 3 && circBuf->fixedBlockSize != TRUE) {
GST_ERROR("numWindows must be at least 3 when fixedBlockSize=FALSE");
return NULL;
}
/* Set the read ahead size to be 1/4 of a window */
circBuf->readAheadSize = (fixedBlockSize) ? 0 : windowSize >> 2;
/* Allocate the circular buffer */
bufSize = (numWindows * windowSize) + (circBuf->readAheadSize << 1);
GST_LOG("creating circular input buffer of size %lu\n", bufSize);
circBuf->hBuf = Buffer_create(bufSize, &bAttrs);
if (circBuf->hBuf == NULL) {
GST_ERROR("failed to create buffer");
gst_object_unref(circBuf);
return NULL;
}
circBuf->readPtr = circBuf->writePtr = Buffer_getUserPtr(circBuf->hBuf);
return circBuf;
}
/******************************************************************************
* writeFrameUYVY
******************************************************************************/
static Int writeFrameUYVY(Buffer_Handle hBuf, FILE *outFile)
{
Int8 *ptr = Buffer_getUserPtr(hBuf);
BufferGfx_Dimensions dim;
BufferGfx_getDimensions(hBuf, &dim);
if (fwrite(ptr, 1, dim.width * dim.height * 2, outFile) !=
dim.width * dim.height * 2) {
fprintf(stderr,"Failed to write data to disk\n");
return -1;
}
printf("Wrote UYVY frame size %d (%dx%d) to disk\n",
(Int) (dim.width * 2 * dim.height),
(Int) dim.width, (Int) dim.height);
return 0;
}
/******************************************************************************
* cleanup
******************************************************************************/
static Int cleanup(Display_Handle hDisplay)
{
Int ret = Dmai_EOK;
BufTab_Handle hBufTab = hDisplay->hBufTab;
struct fb_var_screeninfo varInfo;
struct fb_fix_screeninfo fixInfo;
if (hDisplay->fd != -1) {
if (ioctl(hDisplay->fd, FBIOGET_FSCREENINFO, &fixInfo) == -1) {
Dmai_err1("Failed FBIOGET_FSCREENINFO (%s)\n", strerror(errno));
ret = Dmai_EFAIL;
}
if (ioctl(hDisplay->fd, FBIOGET_VSCREENINFO, &varInfo) == -1) {
Dmai_err1("Failed ioctl FBIOGET_VSCREENINFO (%s)\n",
strerror(errno));
ret = Dmai_EFAIL;
}
if (ioctl(hDisplay->fd, FBIOPUT_VSCREENINFO, &hDisplay->origVarInfo)
== -1) {
Dmai_err1("Failed FBIOGET_FSCREENINFO (%s)\n", strerror(errno));
ret = Dmai_EFAIL;
}
if (hBufTab) {
munmap(Buffer_getUserPtr(BufTab_getBuf(hBufTab, 0)),
fixInfo.line_length * varInfo.yres_virtual);
free(hBufTab);
}
setDisplayBuffer(hDisplay, 0);
close(hDisplay->fd);
}
free(hDisplay);
return ret;
}
/******************************************************************************
* Sound_alsa_write
******************************************************************************/
Int Sound_alsa_write(Sound_Handle hSound, Buffer_Handle hBuf)
{
Int32 numSamples, writeSamples;
Int8 *bufPtr;
assert(hSound);
assert(hBuf);
writeSamples = Buffer_getNumBytesUsed(hBuf) / (2 * hSound->channels);
bufPtr = Buffer_getUserPtr(hBuf);
while (writeSamples > 0) {
/* start by doing a blocking wait for free space. */
snd_pcm_wait (hSound->rcOut, PCM_TIMEOUT);
numSamples = snd_pcm_writei(hSound->rcOut, bufPtr, writeSamples);
if (numSamples == -EAGAIN)
continue;
if (numSamples < 0) {
if (xrunRecovery(hSound->rcOut,numSamples) < 0) {
Dmai_err2 ("Failed to write to %s (%s)\n",
AUDIO_DEVICE, strerror(-numSamples));
return Dmai_EFAIL;
}
}
else {
bufPtr += numSamples * 2 * hSound->channels;
writeSamples -= numSamples;
}
}
Buffer_setNumBytesUsed(hBuf, Buffer_getSize(hBuf));
return Dmai_EOK;
}
/******************************************************************************
* gst_ticircbuffer_data_available
* Return how much contiguous data is available at the read pointer.
******************************************************************************/
static Int32 gst_ticircbuffer_data_available(GstTICircBuffer *circBuf)
{
/* First check if the buffer is empty, in which case return 0. */
if (gst_ticircbuffer_is_empty(circBuf)) {
return 0;
}
/* If the write pointer is now ahead of the read pointer, make sure there
* is a window available.
*/
if (circBuf->contiguousData) {
return (circBuf->writePtr - circBuf->readPtr);
}
/* Otherwise, there needs to be enough data between the read pointer and
* the end of the buffer.
*/
else {
return (Buffer_getUserPtr(circBuf->hBuf) +
Buffer_getSize(circBuf->hBuf)) - circBuf->readPtr;
}
return 0;
}
/******************************************************************************
* Capture_put
******************************************************************************/
Int Capture_put(Capture_Handle hCapture, Buffer_Handle hBuf)
{
Int idx;
assert(hCapture);
assert(hBuf);
/*
* The used Flag as part of bufdesc is with respect to the use of buffer
* by the application. If Used = TRUE then the index is available for
* storing new buffer information. This is set to FALSE once it contains
* valid information about the buffer.
*/
idx = getUsedIdx(hCapture->bufDescs, BufTab_getNumBufs(hCapture->hBufTab));
if (idx < 0) {
Dmai_err0("You must get a captured buffer before putting one\n");
return Dmai_ENOMEM;
}
hCapture->bufDescs[idx].v4l2buf.m.userptr =
(Int) Buffer_getUserPtr(hBuf);
hCapture->bufDescs[idx].v4l2buf.type = V4L2_BUF_TYPE_VIDEO_CAPTURE;
/* Issue captured frame buffer back to device driver */
if (ioctl(hCapture->fd, VIDIOC_QBUF,
&hCapture->bufDescs[idx].v4l2buf) == -1) {
Dmai_err1("VIDIOC_QBUF failed (%s)\n", strerror(errno));
return Dmai_EFAIL;
}
hCapture->bufDescs[idx].hBuf = hBuf;
hCapture->bufDescs[idx].used = FALSE;
return Dmai_EOK;
}
/******************************************************************************
* appMain
******************************************************************************/
Int appMain(Args * args)
{
Time_Attrs tAttrs = Time_Attrs_DEFAULT;
BufferGfx_Attrs gfxAttrs = BufferGfx_Attrs_DEFAULT;
Display_Handle hDisplay = NULL;
Time_Handle hTime = NULL;
BufTab_Handle hDisBufTab= NULL;
Int numFrame = 0;
Display_Attrs dAttrs;
Buffer_Handle hDispBuf;
Int y, x, pos, color;
Cpu_Device device;
UInt32 time;
Int32 bufSize;
BufferGfx_Dimensions dim;
Int ret = Dmai_EOK;
/* Initialize DMAI */
Dmai_init();
if (args->benchmark) {
hTime = Time_create(&tAttrs);
if (hTime == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr, "Failed to create Time object\n");
goto cleanup;
}
}
/* Determine which device the application is running on */
if (Cpu_getDevice(NULL, &device) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to determine target board\n");
goto cleanup;
}
switch (device) {
case Cpu_Device_DM6467:
dAttrs = Display_Attrs_DM6467_VID_DEFAULT;
break;
case Cpu_Device_OMAP3530:
case Cpu_Device_DM3730:
dAttrs = Display_Attrs_O3530_VID_DEFAULT;
break;
case Cpu_Device_OMAPL138:
dAttrs = Display_Attrs_OMAPL138_OSD_DEFAULT;
break;
case Cpu_Device_DM365:
case Cpu_Device_DM368:
dAttrs = Display_Attrs_DM365_VID_DEFAULT;
break;
case Cpu_Device_OMAPL137:
dAttrs = Display_Attrs_OMAPL137_OSD_DEFAULT;
break;
default:
dAttrs = Display_Attrs_DM6446_DM355_VID_DEFAULT;
break;
}
if (args->displayUalloc) {
gfxAttrs.colorSpace = dAttrs.colorSpace;
if (VideoStd_getResolution(args->videoStd, &gfxAttrs.dim.width,
&gfxAttrs.dim.height) < 0) {
goto cleanup;
}
gfxAttrs.dim.lineLength =
Dmai_roundUp(BufferGfx_calcLineLength(gfxAttrs.dim.width,
gfxAttrs.colorSpace), 32);
gfxAttrs.dim.x = 0;
gfxAttrs.dim.y = 0;
if (gfxAttrs.colorSpace == ColorSpace_YUV422PSEMI) {
bufSize = gfxAttrs.dim.lineLength * gfxAttrs.dim.height * 2;
}
else if (gfxAttrs.colorSpace == ColorSpace_YUV420PSEMI) {
bufSize = gfxAttrs.dim.lineLength * gfxAttrs.dim.height * 3 / 2;
}
else {
bufSize = gfxAttrs.dim.lineLength * gfxAttrs.dim.height;
}
if (bufSize < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to calculated size for display buffers\n");
goto cleanup;
}
/* Create a table of video buffers to use with the display device */
hDisBufTab = BufTab_create(dAttrs.numBufs, bufSize,
BufferGfx_getBufferAttrs(&gfxAttrs));
if (hDisBufTab == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to allocate contiguous buffers\n");
goto cleanup;
}
}
/* Create the video display */
dAttrs.videoStd = args->videoStd;
dAttrs.videoOutput = args->videoOutput;
hDisplay = Display_create(hDisBufTab, &dAttrs);
if (hDisplay == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to open display device\n");
goto cleanup;
}
x = color = 0;
while (numFrame++ < args->numFrames) {
if (args->benchmark) {
if (Time_reset(hTime) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to reset timer\n");
goto cleanup;
}
}
/* Get a buffer from the display driver */
if (Display_get(hDisplay, &hDispBuf) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get display buffer\n");
goto cleanup;
}
/* Retrieve the dimensions of the display buffer */
BufferGfx_getDimensions(hDispBuf, &dim);
printf("Display size %dx%d pitch %d x = %d color %d\n", (Int) dim.width,
(Int) dim.height, (Int) dim.lineLength, x, color);
/* Draw a vertical bar of a color */
for (y = 0; y < dim.height; y++) {
pos = y * dim.lineLength + x * 2;
memset(Buffer_getUserPtr(hDispBuf) + pos, color, 2);
}
x = (x + 1) % dim.width;
color = (color + 1) % 0xff;
/* Give the display buffer back to be displayed */
if (Display_put(hDisplay, hDispBuf) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to put display buffer\n");
goto cleanup;
}
if (args->benchmark) {
if (Time_total(hTime, &time) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get timer total\n");
goto cleanup;
}
printf("[%d] Frame time: %uus\n", numFrame, (Uns) time);
}
}
cleanup:
/* Clean up the application */
if (hDisplay) {
Display_delete(hDisplay);
}
if (hDisBufTab) {
BufTab_delete(hDisBufTab);
}
if (hTime) {
Time_delete(hTime);
}
if (ret == Dmai_EFAIL)
return 1;
else
return 0;
}
/*******************************************************************************
* gst_tidmaivideosink_render
*******************************************************************************/
static GstFlowReturn gst_tidmaivideosink_render(GstBaseSink * bsink,
GstBuffer * buf)
{
BufferGfx_Attrs gfxAttrs = BufferGfx_Attrs_DEFAULT;
Buffer_Handle hDispBuf = NULL;
Buffer_Handle inBuf = NULL;
BufferGfx_Dimensions inDimSave;
GstTIDmaiVideoSink *sink = GST_TIDMAIVIDEOSINK_CAST(bsink);
GST_DEBUG("Begin, buffer %p",buf);
/* The base sink send us the first buffer twice, so we avoid processing
* it again, since the Display_put may fail on this case when using
* pad_allocation
*/
if (sink->prerolledBuffer == buf){
GST_DEBUG("Not displaying previously pre-rolled buffer");
sink->prerolledBuffer = NULL;
return GST_FLOW_OK;
}
sink->prerolledBuffer = NULL;
/* If the input buffer is non dmai buffer, then allocate dmai buffer and
* copy input buffer in dmai buffer using memcpy routine.
*/
if (GST_IS_TIDMAIBUFFERTRANSPORT(buf)) {
inBuf = GST_TIDMAIBUFFERTRANSPORT_DMAIBUF(buf);
} else {
/* allocate DMAI buffer */
if (sink->tempDmaiBuf == NULL) {
GST_DEBUG("Input buffer is non-dmai, allocating new buffer");
gfxAttrs.dim.width = sink->width;
gfxAttrs.dim.height = sink->height;
gfxAttrs.dim.lineLength = BufferGfx_calcLineLength(sink->width,
sink->colorSpace);
gfxAttrs.colorSpace = sink->colorSpace;
sink->tempDmaiBuf = Buffer_create(GST_BUFFER_SIZE(buf),
BufferGfx_getBufferAttrs(&gfxAttrs));
if (sink->tempDmaiBuf == NULL) {
GST_ELEMENT_ERROR(sink,STREAM,FAILED,(NULL),
("Failed to allocate memory for the input buffer"));
return GST_FLOW_UNEXPECTED;
}
}
inBuf = sink->tempDmaiBuf;
memcpy(Buffer_getUserPtr(inBuf), buf->data, buf->size);
}
if (Buffer_getBufTab(inBuf) == Display_getBufTab(sink->hDisplay)) {
GST_DEBUG("Flipping pad allocated buffer");
/* We got a buffer that is already on video memory, just flip it */
hDispBuf = inBuf;
if (sink->numAllocatedBuffers)
sink->numAllocatedBuffers--;
sink->allocatedBuffers[Buffer_getId(inBuf)] = NULL;
if (buf == sink->lastAllocatedBuffer){
sink->lastAllocatedBuffer = NULL;
}
} else {
/* Check if we can allocate a new buffer, otherwise we may need
* to drop the buffer
*/
BufferGfx_getDimensions(inBuf, &inDimSave);
if ((sink->numAllocatedBuffers >=
(BufTab_getNumBufs(Display_getBufTab(sink->hDisplay)) - 1)) &&
(sink->numUnusedBuffers == 0)){
GST_ELEMENT_WARNING(sink,RESOURCE,NO_SPACE_LEFT,(NULL),
("Dropping incoming buffers because no display buffer"
" available"));
return GST_FLOW_OK;
} else {
GST_DEBUG("Obtaining display buffer");
hDispBuf = gst_tidmaivideosink_get_display_buffer(sink,inBuf);
if (!hDispBuf){
return GST_FLOW_UNEXPECTED;
}
}
if (Framecopy_config(sink->hFc, inBuf, hDispBuf) < 0) {
GST_ELEMENT_ERROR(sink,STREAM,FAILED,(NULL),
("Failed to configure the frame copy"));
return GST_FLOW_UNEXPECTED;
}
if (Framecopy_execute(sink->hFc, inBuf, hDispBuf) < 0) {
GST_ELEMENT_ERROR(sink,STREAM,FAILED,(NULL),
("Failed to execute the frame copy"));
return GST_FLOW_UNEXPECTED;
}
BufferGfx_resetDimensions(hDispBuf);
BufferGfx_setDimensions(inBuf, &inDimSave);
}
/* Send filled buffer to display device driver to be displayed */
if (Display_put(sink->hDisplay, hDispBuf) < 0) {
GST_ELEMENT_ERROR(sink,STREAM,FAILED,(NULL),
("Failed to put the buffer on display"));
return GST_FLOW_UNEXPECTED;
}
GST_DEBUG("Finish");
return GST_FLOW_OK;
}
/******************************************************************************
* Idec1_process
******************************************************************************/
Int Idec1_process(Idec1_Handle hId, Buffer_Handle hInBuf,
Buffer_Handle hOutBuf)
{
BufferGfx_Dimensions dim;
IMGDEC1_DynamicParams dynParams;
IMGDEC1_InArgs inArgs;
IMGDEC1_OutArgs outArgs;
IMGDEC1_Status decStatus;
XDM1_BufDesc inBufDesc;
XDM1_BufDesc outBufDesc;
XDAS_Int32 status;
XDAS_Int8 * inPtr;
XDAS_Int8 * outPtr;
UInt32 offset = 0;
UInt32 i;
assert(hId);
assert(hInBuf);
assert(hOutBuf);
assert(Buffer_getSize(hInBuf));
assert(Buffer_getUserPtr(hInBuf));
assert(Buffer_getUserPtr(hOutBuf));
assert(Buffer_getNumBytesUsed(hInBuf));
assert(Buffer_getSize(hOutBuf));
assert(Buffer_getType(hOutBuf) == Buffer_Type_GRAPHICS);
BufferGfx_getDimensions(hOutBuf, &dim);
inPtr = Buffer_getUserPtr(hInBuf);
outPtr = Buffer_getUserPtr(hOutBuf);
inArgs.size = sizeof(IMGDEC1_InArgs);
inArgs.numBytes = Buffer_getNumBytesUsed(hInBuf);
outArgs.size = sizeof(IMGDEC1_OutArgs);
inBufDesc.numBufs = 1;
outBufDesc.numBufs = hId->minNumOutBufs;
inBufDesc.descs[0].buf = inPtr;
inBufDesc.descs[0].bufSize = Buffer_getSize(hInBuf);
for(i = 0; i < hId->minNumOutBufs; i++)
{
outBufDesc.descs[i].buf = (XDAS_Int8 *)((unsigned int)outPtr + offset);
offset += hId->minOutBufSize[i];
outBufDesc.descs[i].bufSize = hId->minOutBufSize[i];
}
/* Decode image buffer */
status = IMGDEC1_process(hId->hDecode, &inBufDesc, &outBufDesc, &inArgs,
&outArgs);
Buffer_setNumBytesUsed(hInBuf, outArgs.bytesConsumed);
if (status != IMGDEC1_EOK) {
if (XDM_ISFATALERROR(outArgs.extendedError)) {
Dmai_err2("IMGDEC1_process() failed with error (%d ext: 0x%x)\n",
(Int)status, (Uns) outArgs.extendedError);
return Dmai_EFAIL;
}
else {
Dmai_dbg1("IMGDEC1_process() non-fatal error 0x%x\n",
(Uns) outArgs.extendedError);
return Dmai_EBITERROR;
}
}
/* Get the dynamic codec status */
decStatus.data.buf = NULL;
decStatus.size = sizeof(IMGDEC1_Status);
dynParams.size = sizeof(IMGDEC1_DynamicParams);
status = IMGDEC1_control(hId->hDecode, XDM_GETSTATUS, &dynParams,
&decStatus);
if (status != IMGDEC1_EOK) {
Dmai_err1("XDM_GETSTATUS failed, status=%d\n", status);
return Dmai_EFAIL;
}
/* Set output Color Format */
switch (decStatus.outputChromaFormat) {
case XDM_YUV_422ILE:
BufferGfx_setColorSpace (hOutBuf, ColorSpace_UYVY);
break;
case XDM_YUV_420P:
BufferGfx_setColorSpace (hOutBuf, ColorSpace_YUV420P);
break;
case XDM_YUV_422P:
BufferGfx_setColorSpace (hOutBuf, ColorSpace_YUV422P);
break;
case XDM_YUV_444P:
BufferGfx_setColorSpace (hOutBuf, ColorSpace_YUV444P);
break;
case XDM_GRAY:
BufferGfx_setColorSpace (hOutBuf, ColorSpace_GRAY);
break;
default:
printf("Unsupported output color space.\n");
return Dmai_EFAIL;
}
dim.x = dim.y = 0;
dim.width = decStatus.outputWidth;
dim.height = decStatus.outputHeight;
dim.lineLength = decStatus.outputWidth *
ColorSpace_getBpp(BufferGfx_getColorSpace(hOutBuf)) / 8;
if (BufferGfx_setDimensions(hOutBuf, &dim) < 0) {
Dmai_err0("Frame does not fit in allocated buffer\n");
return Dmai_EFAIL;
}
return Dmai_EOK;
}
/******************************************************************************
* speechThrFxn
******************************************************************************/
Void *speechThrFxn(Void *arg)
{
SpeechEnv *envp = (SpeechEnv *) arg;
SPHDEC1_Params defaultParams = Sdec1_Params_DEFAULT;
SPHDEC1_DynamicParams defaultDynParams = Sdec1_DynamicParams_DEFAULT;
Void *status = THREAD_SUCCESS;
Sound_Attrs sAttrs = Sound_Attrs_MONO_DEFAULT;
Loader_Attrs lAttrs = Loader_Attrs_DEFAULT;
Buffer_Attrs bAttrs = Buffer_Attrs_DEFAULT;
Sdec1_Handle hSd1 = NULL;
Sound_Handle hSound = NULL;
Loader_Handle hLoader = NULL;
Engine_Handle hEngine = NULL;
Buffer_Handle hOutBuf = NULL;
SPHDEC1_Params *params;
SPHDEC1_DynamicParams *dynParams;
Buffer_Handle hInBuf;
/* Open the codec engine */
hEngine = Engine_open(envp->engineName, NULL, NULL);
if (hEngine == NULL) {
ERR("Failed to open codec engine %s\n", envp->engineName);
cleanup(THREAD_FAILURE);
}
/* Create the sound device */
sAttrs.sampleRate = 8000;
sAttrs.mode = Sound_Mode_OUTPUT;
sAttrs.leftGain = 127;
sAttrs.rightGain = 127;
sAttrs.bufSize = 128;
hSound = Sound_create(&sAttrs);
if (hSound == NULL) {
ERR("Failed to create audio device\n");
cleanup(THREAD_FAILURE);
}
/* Set the sample rate for the user interface */
gblSetSamplingFrequency(sAttrs.sampleRate);
/* Use supplied params if any, otherwise use defaults */
params = envp->params ? envp->params : &defaultParams;
dynParams = envp->dynParams ? envp->dynParams : &defaultDynParams;
/* Create the speech decoder */
hSd1 = Sdec1_create(hEngine, envp->speechDecoder, params, dynParams);
if (hSd1 == NULL) {
ERR("Failed to create speech decoder: %s\n", envp->speechDecoder);
cleanup(THREAD_FAILURE);
}
/*
* Make the output buffer size twice the size of what the codec needs
* as the codec needs mono and the Sound module converts the decoded
* mono samples to stereo before writing to the device driver.
*/
hOutBuf = Buffer_create(OUTBUFSIZE, &bAttrs);
if (hOutBuf == NULL) {
ERR("Failed to allocate output buffer\n");
cleanup(THREAD_FAILURE);
}
/* How much encoded data to feed the codec each process call */
lAttrs.readSize = INBUFSIZE;
/* Make the total ring buffer larger */
lAttrs.readBufSize = lAttrs.readSize * 512;
/* Create the file loader for reading encoded data */
hLoader = Loader_create(envp->speechFile, &lAttrs);
if (hLoader == NULL) {
ERR("Failed to create loader\n");
cleanup(THREAD_FAILURE);
}
/* Signal that initialization is done and wait for other threads */
Rendezvous_meet(envp->hRendezvousInit);
/* Prime the file loader */
Loader_prime(hLoader, &hInBuf);
while (!gblGetQuit()) {
/* Pause processing? */
Pause_test(envp->hPauseProcess);
/* Decode the audio buffer */
if (Sdec1_process(hSd1, hInBuf, hOutBuf) < 0) {
ERR("Failed to decode audio buffer\n");
cleanup(THREAD_FAILURE);
}
/* Increment statistics for user interface */
gblIncSoundBytesProcessed(Buffer_getNumBytesUsed(hInBuf));
/*
* Force the output buffer size since we are forcing the size of the
* output buffer allocated as opposed to asking the codec for a size.
*/
Buffer_setNumBytesUsed(hOutBuf, OUTBUFSIZE);
/* Write the decoded samples to the sound device */
if (Sound_write(hSound, hOutBuf) < 0) {
ERR("Failed to write audio buffer\n");
cleanup(THREAD_FAILURE);
}
/* Load a new frame from the file system */
if (Loader_getFrame(hLoader, hInBuf) < 0) {
ERR("Failed to read a frame of encoded data\n");
cleanup(THREAD_FAILURE);
}
/* Check if the clip has ended */
if (Buffer_getUserPtr(hInBuf) == NULL) {
/* Wait for the video clip to finish, if applicable */
Rendezvous_meet(envp->hRendezvousLoop);
/* If we are to loop the clip, start over */
if (envp->loop) {
/* Recreate the speech codec */
Sdec1_delete(hSd1);
hSd1 = Sdec1_create(hEngine, envp->speechDecoder,
params, dynParams);
if (hSd1 == NULL) {
ERR("Failed to create speech decoder: %s\n",
envp->speechDecoder);
cleanup(THREAD_FAILURE);
}
/* Re-prime the file loader */
Loader_prime(hLoader, &hInBuf);
}
else {
printf("End of clip reached, exiting..\n");
cleanup(THREAD_SUCCESS);
}
}
}
cleanup:
/* Make sure the other threads aren't waiting for us */
Rendezvous_force(envp->hRendezvousInit);
Rendezvous_force(envp->hRendezvousLoop);
Pause_off(envp->hPauseProcess);
/* Meet up with other threads before cleaning up */
Rendezvous_meet(envp->hRendezvousCleanup);
/* Clean up the thread before exiting */
if (hLoader) {
Loader_delete(hLoader);
}
if (hSd1) {
Sdec1_delete(hSd1);
}
if (hSound) {
Sound_delete(hSound);
}
if (hOutBuf) {
Buffer_delete(hOutBuf);
}
if (hEngine) {
Engine_close(hEngine);
}
return status;
}
/******************************************************************************
* appMain
******************************************************************************/
Int appMain(Args * args)
{
VIDENC1_Params params = Venc1_Params_DEFAULT;
VIDENC1_DynamicParams dynParams = Venc1_DynamicParams_DEFAULT;
BufferGfx_Attrs gfxAttrs = BufferGfx_Attrs_DEFAULT;
Buffer_Attrs bAttrs = Buffer_Attrs_DEFAULT;
Time_Attrs tAttrs = Time_Attrs_DEFAULT;
Venc1_Handle hVe1 = NULL;
FILE *outFile = NULL;
FILE *reconFile = NULL;
FILE *inFile = NULL;
Engine_Handle hEngine = NULL;
Time_Handle hTime = NULL;
Bool flushed = FALSE;
Bool mustExit = FALSE;
BufTab_Handle hBufTab = NULL;
Buffer_Handle hOutBuf = NULL;
Buffer_Handle hFreeBuf = NULL;
Buffer_Handle hInBuf = NULL;
Buffer_Handle hReconBuf = NULL;
Int numFrame = 0;
Int flushCntr = 1;
Int bufIdx;
Int inBufSize, outBufSize;
Cpu_Device device;
Int numBufs;
ColorSpace_Type colorSpace;
UInt32 time;
Int ret = Dmai_EOK;
printf("Starting application...\n");
/* Initialize the codec engine run time */
CERuntime_init();
/* Initialize DMAI */
Dmai_init();
/* Determine which device the application is running on */
if (Cpu_getDevice(NULL, &device) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to determine target board\n");
goto cleanup;
}
if (args->benchmark) {
hTime = Time_create(&tAttrs);
if (hTime == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to create Time object\n");
goto cleanup;
}
}
/* Open the input file with raw yuv data */
inFile = fopen(args->inFile, "rb");
if (inFile == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to open input file %s\n", args->inFile);
goto cleanup;
}
/* Using a larger vbuf to enhance performance of file i/o */
if (setvbuf(inFile, vbufferIn, _IOFBF, sizeof(vbufferIn)) != 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to setvbuf on input file descriptor\n");
goto cleanup;
}
/* Open the output file where to put encoded data */
outFile = fopen(args->outFile, "wb");
if (outFile == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to open output file %s\n", args->outFile);
goto cleanup;
}
/* Using a larger vbuf to enhance performance of file i/o */
if (setvbuf(outFile, vbufferOut, _IOFBF, sizeof(vbufferOut)) != 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to setvbuf on output file descriptor\n");
goto cleanup;
}
/* Open the output file where to put reconstructed frames */
if (args->writeReconFrames) {
reconFile = fopen(args->reconFile, "wb");
if (reconFile == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to open output file %s\n", args->reconFile);
goto cleanup;
}
/* Using a larger vbuf to enhance performance of file i/o */
if (setvbuf(reconFile, vbufferRecon, _IOFBF,
sizeof(vbufferRecon)) != 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to setvbuf on output file descriptor\n");
goto cleanup;
}
}
/* Open the codec engine */
hEngine = Engine_open(args->engineName, NULL, NULL);
if (hEngine == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to open codec engine: %s\n", args->engineName);
goto cleanup;
}
/* Set up codec parameters depending on bit rate */
if (args->bitRate < 0) {
/* Variable bit rate */
params.rateControlPreset = IVIDEO_NONE;
/*
* If variable bit rate use a bogus bit rate value (> 0)
* since it will be ignored.
*/
params.maxBitRate = 2000000;
}
else {
/* Constant bit rate */
params.rateControlPreset = IVIDEO_LOW_DELAY;
params.maxBitRate = args->bitRate;
}
/* Set up codec parameters depending on device */
switch (device) {
case Cpu_Device_DM6467:
params.inputChromaFormat = XDM_YUV_420SP;
params.reconChromaFormat = XDM_CHROMA_NA;
break;
case Cpu_Device_DM355:
params.inputChromaFormat = XDM_YUV_422ILE;
params.reconChromaFormat = XDM_YUV_420P;
break;
case Cpu_Device_DM365:
case Cpu_Device_DM368:
params.inputChromaFormat = XDM_YUV_420SP;
params.reconChromaFormat = XDM_YUV_420SP;
break;
case Cpu_Device_DM3730:
params.rateControlPreset = IVIDEO_STORAGE;
params.inputChromaFormat = XDM_YUV_422ILE;
break;
default:
params.inputChromaFormat = XDM_YUV_422ILE;
break;
}
params.maxWidth = args->width;
params.maxHeight = args->height;
/* Workaround for SDOCM00068944: h264fhdvenc fails
to create codec when params.dataEndianness is
set as XDM_BYTE */
if(device == Cpu_Device_DM6467) {
if (!strcmp(args->codecName, "h264fhdvenc")) {
params.dataEndianness = XDM_LE_32;
}
}
params.maxInterFrameInterval = 1;
dynParams.targetBitRate = params.maxBitRate;
dynParams.inputWidth = params.maxWidth;
dynParams.inputHeight = params.maxHeight;
/* Create the video encoder */
hVe1 = Venc1_create(hEngine, args->codecName, ¶ms, &dynParams);
if (hVe1 == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to create video encoder: %s\n", args->codecName);
goto cleanup;
}
/* Ask the codec how much input data it needs */
inBufSize = Venc1_getInBufSize(hVe1);
/* Ask the codec how much space it needs for output data */
outBufSize = Venc1_getOutBufSize(hVe1);
/* Which color space to use in the graphics buffers depends on the device */
colorSpace = ((device == Cpu_Device_DM6467)||
(device == Cpu_Device_DM365) ||
(device == Cpu_Device_DM368)) ? ColorSpace_YUV420PSEMI :
ColorSpace_UYVY;
/* Align buffers to cache line boundary */
gfxAttrs.bAttrs.memParams.align = bAttrs.memParams.align = BUFSIZEALIGN;
/* Use cached buffers if requested */
if (args->cache) {
gfxAttrs.bAttrs.memParams.flags = bAttrs.memParams.flags
= Memory_CACHED;
}
gfxAttrs.dim.width = args->width;
gfxAttrs.dim.height = args->height;
if ((device == Cpu_Device_DM6467) || (device == Cpu_Device_DM365)
|| (device == Cpu_Device_DM368)) {
gfxAttrs.dim.height = Dmai_roundUp(gfxAttrs.dim.height, CODECHEIGHTALIGN);
}
gfxAttrs.dim.lineLength = BufferGfx_calcLineLength(args->width, colorSpace);
gfxAttrs.colorSpace = colorSpace;
if (inBufSize < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to calculate buffer attributes\n");
goto cleanup;
}
/* Number of input buffers required */
if(params.maxInterFrameInterval>1) {
/* B frame support */
numBufs = params.maxInterFrameInterval;
}
else {
numBufs = 1;
}
/* Create a table of input buffers of the size requested by the codec */
hBufTab =
BufTab_create(numBufs, Dmai_roundUp(inBufSize, BUFSIZEALIGN),
BufferGfx_getBufferAttrs(&gfxAttrs));
if (hBufTab == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to allocate contiguous buffers\n");
goto cleanup;
}
/* Set input buffer table */
Venc1_setBufTab(hVe1, hBufTab);
/* Create the reconstructed frame buffer for raw yuv data */
if (args->writeReconFrames) {
hReconBuf =
Buffer_create(Dmai_roundUp(inBufSize, BUFSIZEALIGN),
BufferGfx_getBufferAttrs(&gfxAttrs));
if (hReconBuf == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to allocate contiguous buffer\n");
goto cleanup;
}
}
/* Create the output buffer for encoded video data */
hOutBuf = Buffer_create(Dmai_roundUp(outBufSize, BUFSIZEALIGN), &bAttrs);
if (hOutBuf == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to create contiguous buffer\n");
goto cleanup;
}
while (1) {
/* Get a buffer for input */
hInBuf = BufTab_getFreeBuf(hBufTab);
if (hInBuf == NULL) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get a free contiguous buffer from BufTab\n");
BufTab_print(hBufTab);
goto cleanup;
}
if (args->benchmark) {
if (Time_reset(hTime) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to reset timer\n");
goto cleanup;
}
}
/* Read a yuv input frame */
printf("\n Frame %d: ", numFrame);
if ((device == Cpu_Device_DM6467)||
(device == Cpu_Device_DM365) ||
(device == Cpu_Device_DM368)) {
if(args->sp) {
if (readFrame420SP(hInBuf, inFile, args->height) < 0) {
ret = Dmai_EFAIL;
goto cleanup;
}
} else {
if (readFrame420P(hInBuf, inFile, args->height) < 0) {
ret = Dmai_EFAIL;
goto cleanup;
}
}
}
else {
if (readFrameUYVY(hInBuf, inFile) < 0) {
ret = Dmai_EFAIL;
mustExit = TRUE;
}
}
if (++numFrame == args->numFrames||mustExit == TRUE) {
if(!(params.maxInterFrameInterval>1)) {
/* No B-frame support */
printf("... exiting \n");
goto cleanup;
}
/*
* When encoding a stream with B-frames, ending the processing
* requires to free the buffer held by the encoder. This is done by
* flushing the encoder and performing a last process() call
* with a dummy input buffer.
*/
printf("\n... exiting with flush (B-frame stream) \n");
flushCntr = params.maxInterFrameInterval-1;
flushed = TRUE;
Venc1_flush(hVe1);
}
if (args->benchmark) {
if (Time_delta(hTime, &time) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get timer delta\n");
goto cleanup;
}
printf("Read time: %uus\n", (Uns)time);
}
/*
* Following flushing loop will iterate more than one time only
* when the encoder completes processing by flushing the frames
* held by the encoder. All flushed frames will be encoded as P
* or I frames.
*/
for(bufIdx = 0; bufIdx < flushCntr; bufIdx++) {
if (args->cache) {
/*
* To meet xDAIS DMA Rule 7, when input buffers are cached, we
* must writeback the cache into physical memory. Also, per DMA
* Rule 7, we must invalidate the output buffer from
* cache before providing it to any xDAIS algorithm.
*/
Memory_cacheWbInv(Buffer_getUserPtr(hInBuf),
Buffer_getSize(hInBuf));
/* Per DMA Rule 7, our output buffer cache lines must be cleaned */
Memory_cacheInv(Buffer_getUserPtr(hOutBuf),
Buffer_getSize(hOutBuf));
if (args->benchmark) {
if (Time_delta(hTime, &time) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get timer delta\n");
goto cleanup;
}
printf("Pre-process cache maintenance: %uus \n", (Uns) time);
}
}
/* Make sure the whole buffer is used for input */
BufferGfx_resetDimensions(hInBuf);
/* Encode the video buffer */
if (Venc1_process(hVe1, hInBuf, hOutBuf) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to encode video buffer\n");
goto cleanup;
}
/* if encoder generated output content, free released buffer */
if (Buffer_getNumBytesUsed(hOutBuf)>0) {
/* Get free buffer */
hFreeBuf = Venc1_getFreeBuf(hVe1);
/* Free buffer */
BufTab_freeBuf(hFreeBuf);
}
/* if encoder did not generate output content */
else {
/* if non B frame sequence */
/* encoder skipped frame probably exceeding target bitrate */
if (params.maxInterFrameInterval<=1) {
/* free buffer */
printf(" Encoder generated 0 size frame\n");
BufTab_freeBuf(hInBuf);
}
}
if (args->benchmark) {
if (Time_delta(hTime, &time) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get encode time\n");
goto cleanup;
}
printf("[%d] Encode: %uus\n", numFrame, (Uns)time);
}
if (args->cache) {
/* Writeback the outBuf. */
Memory_cacheWb(Buffer_getUserPtr(hOutBuf),
Buffer_getSize(hOutBuf));
if (args->benchmark) {
if (Time_delta(hTime, &time) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get timer delta\n");
goto cleanup;
}
printf("Post-process cache write back: %uus \n", (Uns) time);
}
}
/* Write the encoded frame to the file system */
if (Buffer_getNumBytesUsed(hOutBuf)) {
if (fwrite(Buffer_getUserPtr(hOutBuf),
Buffer_getNumBytesUsed(hOutBuf), 1, outFile) != 1) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to write encoded video data to file\n");
goto cleanup;
}
}
/* Write the reconstructed frame to the file system */
if (args->writeReconFrames) {
processReconData(Venc1_getReconBufs(hVe1), hInBuf, hReconBuf);
if (Buffer_getNumBytesUsed(hReconBuf)) {
if (fwrite(Buffer_getUserPtr(hReconBuf),
Buffer_getNumBytesUsed(hReconBuf), 1, reconFile) != 1) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to write reconstructed frame to file\n");
goto cleanup;
}
}
}
if (args->benchmark) {
if (Time_delta(hTime, &time) < 0) {
ret = Dmai_EFAIL;
printf("Failed to get timer delta\n");
goto cleanup;
}
printf("File write time: %uus\n", (Uns)time);
if (Time_total(hTime, &time) < 0) {
ret = Dmai_EFAIL;
fprintf(stderr,"Failed to get timer total\n");
goto cleanup;
}
printf("Total: %uus\n", (Uns)time);
}
}
/* If the codec flushing completed, exit main thread */
if (flushed) {
/* Free dummy input buffer used for flushing process() calls */
printf("freeing dummy input buffer ... \n");
BufTab_freeBuf(hInBuf);
break;
}
}
cleanup:
/* Clean up the application */
if (hOutBuf) {
Buffer_delete(hOutBuf);
}
if (hReconBuf) {
Buffer_delete(hReconBuf);
}
if (hVe1) {
Venc1_delete(hVe1);
}
if (hBufTab) {
BufTab_delete(hBufTab);
}
if (hEngine) {
Engine_close(hEngine);
}
if (inFile) {
fclose(inFile);
}
if (outFile) {
fclose(outFile);
}
if (reconFile) {
fclose(reconFile);
}
if (hTime) {
Time_delete(hTime);
}
printf("End of application.\n");
if (ret == Dmai_EFAIL)
return 1;
else
return 0;
}
/******************************************************************************
* processReconData
* Transform reconstructed buffer data into a UYVY frame. The format of
* the reconstructed buffer data is expected to conform to the specification
* found in "MPEG4 Simple Profile Encoder Codec on DM355 User's Guide"
* (SPRUFE4C), and may not work for other codecs.
******************************************************************************/
Void processReconData(IVIDEO1_BufDesc* reconBufs, Buffer_Handle hSrcBuf,
Buffer_Handle hDstBuf)
{
Int16 mbSizeY;
Int16 mbSizeX;
Uint32 lumaColLength;
Uint32 chromaColSize;
Uint32 UYVYRowLength;
Uint32 UYVYMbSize;
UInt8 *lum_buf;
UInt8 *chr_buf;
UInt8 *curr_mb;
UInt8 *curr_lum_mb;
UInt8 *curr_chroma_mb;
Int16 i, j, k, l;
BufferGfx_Dimensions dim;
/*
* A single Master Block is 16x16 pixels. Get our master block dimensions
* by divding the pixel height and width by 16.
*/
BufferGfx_getDimensions(hSrcBuf, &dim);
mbSizeY = dim.height >> 4;
mbSizeX = dim.width >> 4;
/*
* Our luma buffer is a series of 16x16 byte blocks, and our chroma buffer
* is a series of 16x8 byte blocks. Each block corresponds to information
* for one master block. The first block in each buffer contains header
* information. Set lum_buf and chr_buf to the first block after the
* header.
*/
lum_buf = (UInt8*) (reconBufs->bufDesc[0].buf + 16 * 16);
chr_buf = (UInt8*) (reconBufs->bufDesc[1].buf + 16 * 8);
/*
* The luma and chroma buffers are constructed in column-major order.
* The blocks for a single column are followed by two padding blocks
* before the next column starts. Set lumaColLength and chromaColSize
* to the number of bytes that must be skipped over to get to the next
* column in the corresponding buffer.
*/
lumaColLength = (16*16) * (mbSizeY + 2);
chromaColSize = (16*8) * (mbSizeY + 2);
/*
* Calculate the number of bytes that must be skipped over to go to the
* next row in the reconstructed UYVY frame. Also calculate how many
* bytes in the UYVY file are needed to represent a single master block.
*/
UYVYRowLength = 32 * mbSizeX;
UYVYMbSize = 32 * 16;
/*
* Copy the reconstructed buffer information into a UYVY frame.
*/
for (i = 0; i < mbSizeX; i++) {
for (j = 0; j < mbSizeY; j++) {
/* Calculate input and output buffer offsets for the current */
/* master block */
curr_lum_mb = lum_buf + (lumaColLength * i) + (256 * j);
curr_chroma_mb = chr_buf + (chromaColSize * i) + (128 * j);
curr_mb = (UInt8 *) Buffer_getUserPtr(hDstBuf) +
(j * (UYVYMbSize * mbSizeX)) + (i * 32);
/* Copy Luma information */
for (k = 0; k < 16; k++) {
for (l = 0; l < 16; l++) {
curr_mb[(k * UYVYRowLength) + (l * 2) + 1] =
curr_lum_mb[k * 16 + l];
}
}
/* Copy Chroma information */
for (k = 0; k < 8; k++) {
for (l = 0; l < 16; l++) {
curr_mb[((k * 2) * UYVYRowLength) + (l * 2)] =
curr_chroma_mb[k * 16 + l];
curr_mb[((k * 2 + 1) * UYVYRowLength) + (l * 2)] =
curr_chroma_mb[k * 16 + l];
}
}
}
}
Buffer_setNumBytesUsed(hDstBuf, dim.width * dim.height * 2);
}