static void video_scheduler_slice_dump(
sSX_DESC *slice_head
)
{
UINT8 *curr_ptr;
UINT32 bytes_left;
UINT32 afc;
UINT32 pes_byte_count;
UINT32 payload_size;
UINT32 start_offset;
UINT32 copy_index;
UINT32 pid;
sSX_DESC *curr_desc;
sSX_DESC *head_desc;
// Consistency check.
assert(slice_head);
// Get descriptor.
sSX_DESC *hw_desc = sx_desc_get();
// Set this as another chain.
sSX_DESC *hw_desc_head = hw_desc;
// Get a hw buffer.
sDECODER_HW_BUFFER * hw_buf = sx_video_sink_buf_get();
assert(hw_buf != NULL);
// Set payload.
hw_desc->data = (UINT8 *) hw_buf;
// Get first descriptor.
//
// First descriptor holds the timestamp and will be skipped.
curr_desc = slice_head;
copy_index = 0;
do
{
// Get next.
curr_desc = curr_desc->next;
// Get current.
curr_ptr = curr_desc->data;
// Get data left.
bytes_left = curr_desc->data_len;
assert(bytes_left > sizeof(sRTP_HDR));
// Get RTP header.
// sRTP_HDR *rtp_hdr = (sRTP_HDR *) curr_ptr;
// Get TS header.
curr_ptr += sizeof(sRTP_HDR);
// Get TS bytes left.
bytes_left -= sizeof(sRTP_HDR);
assert((bytes_left % sizeof(sMPEG2_TS)) == 0);
pes_byte_count = 0;
do
{
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
afc = AFC_GET(ts->hdr);
pid = PID_GET(ts->hdr);
if(pid == 0x1011)
{
if(PUSI_GET(ts->hdr))
{
assert(afc == 0x01);
start_offset = 14;
payload_size = (sizeof(sMPEG2_TS_PAYLOAD) - 14);
}
else
{
if(afc == 0x01)
{
start_offset = 0;
payload_size = sizeof(sMPEG2_TS_PAYLOAD);
}
else if(afc == 0x03)
{
start_offset = 1 + ts->payload.payload[0];
payload_size = sizeof(sMPEG2_TS_PAYLOAD) - 1 - ts->payload.payload[0];
}
else
{
assert(0);
}
}
if((copy_index + payload_size) > 81920)
{
// If the hw buffer is full, just submit the current buffer.
hw_buf->buffer_len = copy_index;
// Get a new descriptor.
hw_desc->next = sx_desc_get();
// Point to the new descriptor.
hw_desc = hw_desc->next;
// Get a new buffer.
hw_buf = sx_video_sink_buf_get();
assert(hw_buf != NULL);
// Set new payload.
hw_desc->data = (UINT8 *) hw_buf;
// Reset index.
copy_index = 0;
}
memcpy(&hw_buf->buffer[copy_index],
&ts->payload.payload[start_offset],
payload_size);
copy_index += payload_size;
}
curr_ptr += sizeof(sMPEG2_TS);
bytes_left -= sizeof(sMPEG2_TS);
} while (bytes_left > 0);
} while (curr_desc->next != NULL);
// Set length.
hw_buf->buffer_len = copy_index;
// Free the existing slice, minus the head (timestamp).
sx_desc_put(slice_head->next);
// Set slice.
slice_head->next = hw_desc_head;
sx_pipe_put(SX_VRDMA_SLICE_READY, slice_head);
}
static void video_scheduler_slice_dump(
sdesc *slice_head
)
{
UINT8 *curr_ptr;
UINT32 bytes_left;
UINT32 afc;
UINT32 pes_byte_count;
UINT32 payload_size;
UINT32 start_offset;
UINT32 copy_index;
UINT32 pid;
sdesc *curr_desc;
sdesc *head_desc;
// Consistency check
assert(slice_head);
// Get descriptor
sdesc *hw_desc = desc_get();
// Set this as another chain
sdesc *hw_desc_head = hw_desc;
// Get a hw buffer
sDECODER_HW_BUFFER * hw_buf = video_sink_buf_get();
assert(hw_buf != NULL);
// Set payload
hw_desc->data = (UINT8 *) hw_buf;
// Get first descriptor
// First descriptor holds the timestamp and will be skipped
curr_desc = slice_head;
copy_index = 0;
do
{
// Get next
curr_desc = curr_desc->next;
// Get current
curr_ptr = curr_desc->data;
// Get data left
bytes_left = curr_desc->data_len;
assert(bytes_left > sizeof(sRTP_HDR));
// Get TS header
curr_ptr += sizeof(sRTP_HDR);
// Get TS bytes left
bytes_left -= sizeof(sRTP_HDR);
assert((bytes_left % sizeof(sMPEG2_TS)) == 0);
pes_byte_count = 0;
do
{
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
afc = AFC_GET(ts->hdr);
pid = PID_GET(ts->hdr);
if(pid == 0x1011)
{
UINT8 stuffing = 0;
if(afc & 0x02)
{
stuffing = 1 + ts->payload.payload[0];
}
start_offset = stuffing;
if(PUSI_GET(ts->hdr))
{
start_offset += 14;
}
payload_size = sizeof(sMPEG2_TS_PAYLOAD) - start_offset;
if((copy_index + payload_size) > 81920)
{
// If the hw buffer is full, just submit the current buffer
hw_buf->buffer_len = copy_index;
// Get a new descriptor
hw_desc->next = desc_get();
// Point to the new descriptor
hw_desc = hw_desc->next;
// Get a new buffer
hw_buf = video_sink_buf_get();
assert(hw_buf != NULL);
// Set new payload
hw_desc->data = (UINT8 *) hw_buf;
// Reset index
copy_index = 0;
}
memcpy(&hw_buf->buffer[copy_index],
&ts->payload.payload[start_offset],
payload_size);
copy_index += payload_size;
}
curr_ptr += sizeof(sMPEG2_TS);
bytes_left -= sizeof(sMPEG2_TS);
} while (bytes_left > 0);
} while (curr_desc->next != NULL);
// Set length
hw_buf->buffer_len = copy_index;
// Free the existing slice, minus the head (timestamp)
desc_put(slice_head->next);
// Set slice
slice_head->next = hw_desc_head;
pipe_put(VRDMA_SLICE_READY, slice_head);
}
/**
* Find the slice start.
*
* @param desc
* @param pes_payload_size
* @param pts_ms
* @return
*/
static UINT8 slice_start_find(
sSX_DESC *desc,
UINT32 *pes_payload_size,
UINT64 *pts_ms
)
{
UINT8 *curr_ptr;
UINT32 bytes_left;
sMPEG2_TS *ts;
UINT32 pid;
UINT32 afc;
// Get current.
curr_ptr = desc->data;
// Get data left.
bytes_left = desc->data_len;
assert(bytes_left > sizeof(sRTP_HDR));
// Get RTP header.
sRTP_HDR *rtp_hdr = (sRTP_HDR *) curr_ptr;
// Get TS header.
curr_ptr += sizeof(sRTP_HDR);
// Get TS bytes left.
bytes_left -= sizeof(sRTP_HDR);
assert((bytes_left % sizeof(sMPEG2_TS)) == 0);
do
{
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
afc = AFC_GET(ts->hdr);
pid = PID_GET(ts->hdr);
if(PUSI_GET(ts->hdr) && (pid == 0x1011))
{
curr_ptr = &ts->payload.payload[0];
curr_ptr += sizeof(sPES);
sPES_EXT *pes_ext = (sPES_EXT *) curr_ptr;
UINT16 len = ntohs(pes_ext->length);
if(len > 0)
{
*pes_payload_size = len - 8;
}
else
{
*pes_payload_size = 0;
}
curr_ptr += sizeof(sPES_EXT);
// Consistency check.
assert(*curr_ptr == 0x05);
curr_ptr++;
UINT32 i;
UINT64 pts;
pts = 0;
for(i = 0; i < 5; i++)
{
pts = ((pts << 8) | curr_ptr[i]);
}
UINT64 pts_hz;
UINT64 mask;
pts_hz = 0;
mask = 0x0007;
pts_hz |= (pts & (mask << 33)) >> 3;
mask = 0x7fff;
pts_hz |= (pts & (mask << 17)) >> 2;
mask = 0x7fff;
pts_hz |= (pts & (mask << 1)) >> 1;
// Convert to ms.
*pts_ms = pts_hz / 90;
return 1;
}
curr_ptr += sizeof(sMPEG2_TS);
bytes_left -= sizeof(sMPEG2_TS);
} while (bytes_left > 0);
/**
* Interpret mpeg 2 transport stream data.
*
* @param desc
* @param pes_payload_size
* @param cc_start
* @param cc_end
*/
static void m2ts_data_interpret(
sSX_DESC *desc,
UINT32 *pes_payload_size,
UINT8 *cc_start,
UINT8 *cc_end
)
{
UINT8 *curr_ptr;
UINT32 bytes_left;
UINT32 afc;
UINT32 pid;
UINT32 pes_byte_count;
UINT32 payload_size;
UINT8 cc;
// Get current.
curr_ptr = desc->data;
// Get data left.
bytes_left = desc->data_len;
assert(bytes_left > sizeof(sRTP_HDR));
// Get RTP header.
// sRTP_HDR *rtp_hdr = (sRTP_HDR *) curr_ptr;
// Get TS header.
curr_ptr += sizeof(sRTP_HDR);
// Get TS bytes left.
bytes_left -= sizeof(sRTP_HDR);
assert((bytes_left % sizeof(sMPEG2_TS)) == 0);
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
UINT8 first_chunk = 1;
pes_byte_count = 0;
do
{
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
afc = AFC_GET(ts->hdr);
pid = PID_GET(ts->hdr);
if(pid == 0x1011)
{
cc = CC_GET(ts->hdr);
if(first_chunk)
{
*cc_start = cc;
first_chunk = 0;
}
if(PUSI_GET(ts->hdr))
{
assert(afc == 0x01);
// printf("### 0x%x 0x%x 0x%x 0x%x\n",
// ts->payload.payload[14],
// ts->payload.payload[15],
// ts->payload.payload[16],
// ts->payload.payload[17]);
payload_size = (sizeof(sMPEG2_TS_PAYLOAD) - 14);
}
else
{
if(afc == 0x01)
{
payload_size = sizeof(sMPEG2_TS_PAYLOAD);
}
else if(afc == 0x03)
{
payload_size = sizeof(sMPEG2_TS_PAYLOAD) - 1 - ts->payload.payload[0];
}
else
{
assert(0);
}
}
pes_byte_count += payload_size;
}
bytes_left -= sizeof(sMPEG2_TS);
curr_ptr += sizeof(sMPEG2_TS);
} while (bytes_left > 0);
*cc_end = cc;
*pes_payload_size = pes_byte_count;
}
static void audio_scheduler_slice_dump(
sSX_DESC *slice_head
)
{
UINT8 *curr_ptr;
UINT32 bytes_left;
UINT32 afc;
UINT32 pid;
UINT32 pes_byte_count;
UINT32 payload_size;
UINT32 start_offset;
UINT32 copy_index;
UINT32 samples_left;
UINT32 ms_left;
sSX_DESC *desc;
static UINT8 playback_speed = 1;
ms_left = audio_total_remaining_ms();
if(ms_left > (100 + SX_SYSTEM_DELAY_MS))
{
if(playback_speed != 2)
{
sx_audio_sink_playback_speed_inc();
playback_speed = 2;
}
}
else if(ms_left < (50 + SX_SYSTEM_DELAY_MS))
{
if(playback_speed != 0)
{
sx_audio_sink_playback_speed_dec();
playback_speed = 0;
}
}
else
{
if(playback_speed != 1)
{
sx_audio_sink_playback_speed_reset();
playback_speed = 1;
}
}
UINT8 *buf = sx_audio_sink_buffer_get();
copy_index = 0;
desc = slice_head;
do
{
// Get current.
curr_ptr = desc->data;
// Get data left.
bytes_left = desc->data_len;
assert(bytes_left > sizeof(sRTP_HDR));
// Get RTP header.
// sRTP_HDR *rtp_hdr = (sRTP_HDR *) curr_ptr;
// Get TS header.
curr_ptr += sizeof(sRTP_HDR);
// Get TS bytes left.
bytes_left -= sizeof(sRTP_HDR);
assert((bytes_left % sizeof(sMPEG2_TS)) == 0);
pes_byte_count = 0;
do
{
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
afc = AFC_GET(ts->hdr);
pid = PID_GET(ts->hdr);
if(pid == 0x1100)
{
UINT8 stuffing = 0;
if(afc & 0x02)
{
stuffing = 1 + ts->payload.payload[0];
}
start_offset = stuffing;
if(PUSI_GET(ts->hdr))
{
start_offset += 20;
}
payload_size = sizeof(sMPEG2_TS_PAYLOAD) - start_offset;
#if 0
if(PUSI_GET(ts->hdr))
{
assert(afc == 0x01);
start_offset = 20;
payload_size = (sizeof(sMPEG2_TS_PAYLOAD) - start_offset);
}
else
{
if(afc == 0x01)
{
start_offset = 0;
payload_size = sizeof(sMPEG2_TS_PAYLOAD);
}
else if(afc == 0x03)
{
start_offset = 1 + ts->payload.payload[0];
payload_size = sizeof(sMPEG2_TS_PAYLOAD) - start_offset;
}
else
{
assert(0);
}
}
#endif
// printf("copy 0x%.2x 0x%.2x 0x%.2x 0x%.2x 0x%.2x 0x%.2x 0x%.2x 0x%.2x\n",
// ts->payload.payload[start_offset],
// ts->payload.payload[start_offset + 1],
// ts->payload.payload[start_offset + 2],
// ts->payload.payload[start_offset + 3],
// ts->payload.payload[start_offset + 4],
// ts->payload.payload[start_offset + 5],
// ts->payload.payload[start_offset + 6],
// ts->payload.payload[start_offset + 7]);
memcpy(&buf[copy_index],
&ts->payload.payload[start_offset],
payload_size);
copy_index += payload_size;
}
curr_ptr += sizeof(sMPEG2_TS);
bytes_left -= sizeof(sMPEG2_TS);
} while (bytes_left > 0);
desc = desc->next;
} while (desc != NULL);
sx_desc_put(slice_head);
assert(copy_index == 1920);
// printf("### 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x\n",
// buf[0],
// buf[1],
// buf[2],
// buf[3],
// buf[4],
// buf[5],
// buf[6],
// buf[7]);
audio_endianness_convert((UINT16 *) buf, 960);
// Push to decoder hardware.
sx_audio_sink_buffer_set(buf, 1920);
}
/**
* Find the slice start.
*
* @param desc
* @param pes_payload_size
* @param pts_ms
* @return
*/
static UINT8 slice_start_find(
sSX_DESC *desc,
UINT32 *pes_payload_size,
UINT64 *pts_ms
)
{
UINT8 *curr_ptr;
UINT32 bytes_left;
sMPEG2_TS *ts;
UINT32 pid;
UINT32 afc;
// Get current.
curr_ptr = desc->data;
// Get data left.
bytes_left = desc->data_len;
assert(bytes_left > sizeof(sRTP_HDR));
// Get RTP header.
sRTP_HDR *rtp_hdr = (sRTP_HDR *) curr_ptr;
// Get TS header.
curr_ptr += sizeof(sRTP_HDR);
// Get TS bytes left.
bytes_left -= sizeof(sRTP_HDR);
assert((bytes_left % sizeof(sMPEG2_TS)) == 0);
do
{
sMPEG2_TS *ts = (sMPEG2_TS *) curr_ptr;
afc = AFC_GET(ts->hdr);
pid = PID_GET(ts->hdr);
if(PUSI_GET(ts->hdr) && (pid == 0x1011))
{
curr_ptr = &ts->payload.payload[0];
UINT8 adaptation_field_len = 0;
if(afc & 0x02)
{
// adaption field is present.
//
// determine how many bytes to skip.
adaptation_field_len = 1 + *curr_ptr;
}
// Skip 'adaptation field length' field.
curr_ptr += adaptation_field_len;
// Skip adaptation field length.
curr_ptr += sizeof(sPES);
sPES_EXT *pes_ext = (sPES_EXT *) curr_ptr;
UINT16 len = ntohs(pes_ext->length);
if(len > 0)
{
*pes_payload_size = len - 8;
}
else
{
*pes_payload_size = 0;
}
curr_ptr += sizeof(sPES_EXT);
if(*curr_ptr != 0x05)
{
printf("0x%x 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x\n",
((UINT8 *) ts)[0],
((UINT8 *) ts)[1],
((UINT8 *) ts)[2],
((UINT8 *) ts)[3],
((UINT8 *) ts)[4],
((UINT8 *) ts)[5],
((UINT8 *) ts)[6],
((UINT8 *) ts)[7]);
printf("0x%x 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x 0x%x\n",
((UINT8 *) ts)[8],
((UINT8 *) ts)[9],
((UINT8 *) ts)[10],
((UINT8 *) ts)[11],
((UINT8 *) ts)[12],
((UINT8 *) ts)[13],
((UINT8 *) ts)[14],
((UINT8 *) ts)[15]);
printf("*curr_ptr = 0x%x, delta = %u\n",
*curr_ptr,
(UINT8 *)curr_ptr - (UINT8 *) ts);
// Consistency check.
assert(0);
}
curr_ptr++;
UINT32 i;
UINT64 pts;
pts = 0;
for(i = 0; i < 5; i++)
{
pts = ((pts << 8) | curr_ptr[i]);
}
UINT64 pts_hz;
UINT64 mask;
pts_hz = 0;
mask = 0x0007;
pts_hz |= (pts & (mask << 33)) >> 3;
mask = 0x7fff;
pts_hz |= (pts & (mask << 17)) >> 2;
mask = 0x7fff;
pts_hz |= (pts & (mask << 1)) >> 1;
// Convert to ms.
*pts_ms = pts_hz / 90;
return 1;
}
curr_ptr += sizeof(sMPEG2_TS);
bytes_left -= sizeof(sMPEG2_TS);
} while (bytes_left > 0);
