int _jxr_r_TILE_DC(jxr_image_t image, struct rbitstream*str,
unsigned tx, unsigned ty)
{
unsigned mx, my;
unsigned mb_height;
unsigned mb_width;
unsigned char s0, s1, s2, s3;
DEBUG("START TILE_DC at tile=[%u %u] bitpos=%zu\n", tx, ty, _jxr_rbitstream_bitpos(str));
/* TILE_STARTCODE == 1 */
s0 = _jxr_rbitstream_uint8(str); /* 0x00 */
s1 = _jxr_rbitstream_uint8(str); /* 0x00 */
s2 = _jxr_rbitstream_uint8(str); /* 0x01 */
s3 = _jxr_rbitstream_uint8(str); /* reserved */
DEBUG(" TILE_STARTCODE == %02x %02x %02x (reserved: %02x)\n", s0, s1, s2, s3);
_jxr_r_TILE_HEADER_DC(image, str, 0 /* alpha */, tx, ty);
if (ALPHACHANNEL_FLAG(image))
_jxr_r_TILE_HEADER_DC(image->alpha, str, 1, tx, ty);
/* Now form and write out all the compressed data for the
tile. This involves scanning the macroblocks, and the
blocks within the macroblocks, generating bits as we go. */
mb_height = EXTENDED_HEIGHT_BLOCKS(image);
mb_width = EXTENDED_WIDTH_BLOCKS(image);
if (TILING_FLAG(image)) {
mb_height = image->tile_row_height[ty];
mb_width = image->tile_column_width[tx];
}
for (my = 0 ; my < mb_height ; my += 1) {
_jxr_r_rotate_mb_strip(image);
image->cur_my = my;
for (mx = 0 ; mx < mb_width ; mx += 1) {
_jxr_r_MB_DC(image, str, 0, tx, ty, mx, my);
if (image->bands_present == 3 /* DCONLY */)
_jxr_complete_cur_dclp(image, tx, mx, my);
if (ALPHACHANNEL_FLAG(image)) {
_jxr_r_MB_DC(image->alpha, str, 1, tx, ty, mx, my);
if (image->alpha->bands_present == 3 /* DCONLY */)
_jxr_complete_cur_dclp(image->alpha, tx, mx, my);
}
}
if (ALPHACHANNEL_FLAG(image))
backup_dc_strip(image->alpha, tx, ty, my);
backup_dc_strip(image, tx, ty, my);
}
_jxr_rbitstream_syncbyte(str);
DEBUG("END TILE_DC\n");
return 0;
}
void _jxr_w_TILE_HP_FLEX(jxr_image_t image, struct wbitstream*str,
unsigned tx, unsigned ty)
{
DEBUG("START TILE_HP_FLEX at tile=[%u %u] bitpos=%zu\n", tx, ty, _jxr_wbitstream_bitpos(str));
uint8_t bands_present = image->bands_present_of_primary;
struct wbitstream strFP;
FILE*fdFP = fopen("fp.tmp", "wb");
_jxr_wbitstream_initialize(&strFP, fdFP);
if (bands_present < 2 /* HIGHPASS */) {
/* TILE_STARTCODE == 1 */
DEBUG(" HP_TILE_STARTCODE at bitpos=%zu\n", _jxr_wbitstream_bitpos(str));
_jxr_wbitstream_uint8(str, 0x00);
_jxr_wbitstream_uint8(str, 0x00);
_jxr_wbitstream_uint8(str, 0x01);
_jxr_wbitstream_uint8(str, 0x00); /* ARBITRARY_BYTE */
_jxr_w_TILE_HEADER_HIGHPASS(image, str, 0, tx, ty);
if (ALPHACHANNEL_FLAG(image)) {
_jxr_w_TILE_HEADER_HIGHPASS(image->alpha, str, 1, tx, ty);
}
}
if (bands_present == 0 /* ALL */) {
/* TILE_STARTCODE == 1 */
DEBUG(" FLEX_TILE_STARTCODE at bitpos=%zu\n", _jxr_wbitstream_bitpos(&strFP));
_jxr_wbitstream_uint8(&strFP, 0x00);
_jxr_wbitstream_uint8(&strFP, 0x00);
_jxr_wbitstream_uint8(&strFP, 0x01);
_jxr_wbitstream_uint8(&strFP, 0x00); /* ARBITRARY_BYTE */
if (TRIM_FLEXBITS_FLAG(image)) {
_jxr_wbitstream_uint4(&strFP, image->trim_flexbits);
}
}
/* Now form and write out all the compressed data for the
tile. This involves scanning the macroblocks, and the
blocks within the macroblocks, generating bits as we go. */
unsigned mb_height = EXTENDED_HEIGHT_BLOCKS(image);
unsigned mb_width = EXTENDED_WIDTH_BLOCKS(image);
if (TILING_FLAG(image)) {
mb_height = image->tile_row_height[ty];
mb_width = image->tile_column_width[tx];
}
DEBUG(" TILE_HP_FLEX at [%d %d] is %u x %u MBs\n", tx, ty, mb_width, mb_height);
unsigned mx, my;
for (my = 0 ; my < mb_height ; my += 1) {
_jxr_wflush_mb_strip(image, tx, ty, my, 0);
for (mx = 0 ; mx < mb_width ; mx += 1) {
if (bands_present<2 /* HIGHPASS */) {
if (image->num_hp_qps>1 && !image->hp_use_lp_qp) {
unsigned qp_index = _jxr_select_hp_index(image, tx,ty,mx,my);
DEBUG(" DECODE_QP_INDEX(%d) --> %u\n", image->num_hp_qps, qp_index);
_jxr_w_ENCODE_QP_INDEX(image, str, tx, ty, mx, my, image->num_hp_qps, qp_index);
}
_jxr_w_MB_CBP(image, str, 0 /* IsCurrPlaneAlphaFlag = FALSE */, tx, ty, mx, my);
if (bands_present == 0 /* ALL */) {
_jxr_w_MB_HP(image, str, 0 /* IsCurrPlaneAlphaFlag = FALSE */, tx, ty, mx, my, &strFP);
}
else {
_jxr_w_MB_HP(image, str, 0 /* IsCurrPlaneAlphaFlag = FALSE */, tx, ty, mx, my, 0);
}
if (ALPHACHANNEL_FLAG(image)) {
_jxr_w_MB_CBP(image->alpha, str, 1 /* IsCurrPlaneAlphaFlag = TRUE */, tx, ty, mx, my);
if (bands_present == 0 /* ALL */) {
_jxr_w_MB_HP(image->alpha, str, 1 /* IsCurrPlaneAlphaFlag = TRUE */, tx, ty, mx, my, &strFP);
}
else {
_jxr_w_MB_HP(image->alpha, str, 1 /* IsCurrPlaneAlphaFlag = TRUE */, tx, ty, mx, my, 0);
}
}
}
}
}
unsigned tile_idx = ty * image->tile_columns + tx;
_jxr_wbitstream_syncbyte(str);
_jxr_wbitstream_flush(str);
image->tile_index_table[tile_idx * (4 - bands_present) + 2] = str->write_count;
_jxr_wbitstream_syncbyte(&strFP);
_jxr_wbitstream_flush(&strFP);
fclose(fdFP);
if (bands_present == 0 /* ALL */) {
struct rbitstream strFPRead;
FILE*fdFPRead = fopen("fp.tmp", "rb");
_jxr_rbitstream_initialize(&strFPRead, fdFPRead);
size_t idx;
for (idx = 0; idx < strFP.write_count; idx++) {
_jxr_wbitstream_uint8(str, _jxr_rbitstream_uint8(&strFPRead));
}
fclose(fdFPRead);
_jxr_wbitstream_flush(str);
image->tile_index_table[tile_idx * (4 - bands_present) + 3] = str->write_count;
}
/* delete file associated with CodedTiles */
remove("fp.tmp");
_jxr_wbitstream_flush(str);
DEBUG("END TILE_HP_FLEX\n");
}
int _jxr_r_TILE_FLEXBITS(jxr_image_t image, struct rbitstream*str,
unsigned tx, unsigned ty)
{
DEBUG("START TILE_FLEXBITS at tile=[%u %u] bitpos=%zu\n", tx, ty, _jxr_rbitstream_bitpos(str));
/* TILE_STARTCODE == 1 */
unsigned char s0, s1, s2, s3;
s0 = _jxr_rbitstream_uint8(str); /* 0x00 */
s1 = _jxr_rbitstream_uint8(str); /* 0x00 */
s2 = _jxr_rbitstream_uint8(str); /* 0x01 */
s3 = _jxr_rbitstream_uint8(str); /* reserved */
DEBUG(" TILE_STARTCODE == %02x %02x %02x (reserved: %02x)\n", s0, s1, s2, s3);
if (s0 != 0x00 || s1 != 0x00 || s2 != 0x01) {
DEBUG(" TILE_FLEXBITS ERROR: Invalid marker.\n");
return JXR_EC_ERROR;
}
image->trim_flexbits = 0;
if (TRIM_FLEXBITS_FLAG(image)) {
image->trim_flexbits =_jxr_rbitstream_uint4(str);
DEBUG(" TRIM_FLEXBITS = %u\n", image->trim_flexbits);
}
int use_num_channels = image->num_channels;
if (image->use_clr_fmt == 1/*YUV420*/ || image->use_clr_fmt == 2/*YUV422*/)
use_num_channels = 1;
/* Now form and write out all the compressed data for the
tile. This involves scanning the macroblocks, and the
blocks within the macroblocks, generating bits as we go. */
unsigned mb_height = EXTENDED_HEIGHT_BLOCKS(image);
unsigned mb_width = EXTENDED_WIDTH_BLOCKS(image);
if (TILING_FLAG(image)) {
mb_height = image->tile_row_height[ty];
mb_width = image->tile_column_width[tx];
}
int mx, my;
int plane_idx, num_planes = ((ALPHACHANNEL_FLAG(image)) ? 2 : 1);
for (my = 0 ; my < (int) mb_height ; my += 1) {
_jxr_r_rotate_mb_strip(image);
if (ALPHACHANNEL_FLAG(image)) {
image->alpha->cur_my = my;
recover_dclphp_strip(image->alpha, tx, ty, my);
}
image->cur_my = my;
recover_dclphp_strip(image, tx, ty, my);
for (mx = 0 ; mx < (int) mb_width ; mx += 1)
for (plane_idx = 0; plane_idx < num_planes; plane_idx ++) {
jxr_image_t plane = (plane_idx == 0 ? image : image->alpha);
int channels = (plane_idx == 0 ? use_num_channels : 1);
int rc = _jxr_r_MB_FLEXBITS(plane, str, 0, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_FLEXBITS returned ERROR rc=%d\n", rc);
return rc;
}
/* Now the HP values are complete, so run the propagation
process. This involves recovering some bits of data saved
by the HP tile. */
int mbhp_pred_mode = MACROBLK_CUR(plane,0,tx,mx).mbhp_pred_mode;
int idx;
for (idx = 0 ; idx < channels ; idx += 1) {
DEBUG(" MB_FLEXBITS: propagate HP predictions in MB_FLEXBITS\n");
_jxr_propagate_hp_predictions(plane, idx, tx, mx, mbhp_pred_mode);
}
}
if (ALPHACHANNEL_FLAG(image))
backup_hp_strip(image->alpha, tx, ty, my);
backup_hp_strip(image, tx, ty, my);
}
_jxr_rbitstream_syncbyte(str);
DEBUG("END TILE_FLEXBITS bitpos=%zu\n", _jxr_rbitstream_bitpos(str));
return 0;
}
int _jxr_r_TILE_HP(jxr_image_t image, struct rbitstream*str,
unsigned tx, unsigned ty)
{
DEBUG("START TILE_HIGHPASS at tile=[%u %u] bitpos=%zu\n", tx, ty, _jxr_rbitstream_bitpos(str));
/* TILE_STARTCODE == 1 */
unsigned char s0, s1, s2, s3;
s0 = _jxr_rbitstream_uint8(str); /* 0x00 */
s1 = _jxr_rbitstream_uint8(str); /* 0x00 */
s2 = _jxr_rbitstream_uint8(str); /* 0x01 */
s3 = _jxr_rbitstream_uint8(str); /* reserved */
DEBUG(" TILE_STARTCODE == %02x %02x %02x (reserved: %02x)\n", s0, s1, s2, s3);
if (s0 != 0x00 || s1 != 0x00 || s2 != 0x01) {
DEBUG(" TILE_HIGHPASS ERROR: Invalid marker.\n");
return JXR_EC_ERROR;
}
_jxr_r_TILE_HEADER_HIGHPASS(image, str, 0 /* alpha */, tx, ty);
if (ALPHACHANNEL_FLAG(image))
_jxr_r_TILE_HEADER_HIGHPASS(image->alpha, str, 1, tx, ty);
/* Now form and write out all the compressed data for the
tile. This involves scanning the macroblocks, and the
blocks within the macroblocks, generating bits as we go. */
unsigned mb_height = EXTENDED_HEIGHT_BLOCKS(image);
unsigned mb_width = EXTENDED_WIDTH_BLOCKS(image);
if (TILING_FLAG(image)) {
mb_height = image->tile_row_height[ty];
mb_width = image->tile_column_width[tx];
}
unsigned mx, my;
unsigned plane_idx, num_planes = ((ALPHACHANNEL_FLAG(image)) ? 2 : 1);
for (my = 0 ; my < mb_height ; my += 1) {
_jxr_r_rotate_mb_strip(image);
if (ALPHACHANNEL_FLAG(image)) {
image->alpha->cur_my = my;
recover_dclp_strip(image->alpha, tx, ty, my);
}
image->cur_my = my;
recover_dclp_strip(image, tx, ty, my);
for (mx = 0 ; mx < mb_width ; mx += 1)
for (plane_idx = 0; plane_idx < num_planes; plane_idx ++) {
/* The qp_index_hp table goes only into channel 0 */
int qp_index_hp = 0;
jxr_image_t plane = (plane_idx == 0 ? image : image->alpha);
if (plane->num_hp_qps>1) {
if (!plane->hp_use_lp_qp)
qp_index_hp = _jxr_DECODE_QP_INDEX(str, plane->num_hp_qps);
else
qp_index_hp = MACROBLK_CUR_LP_QUANT(plane,0,tx,mx);
}
DEBUG(" HP_QP_INDEX for MBx=%d is %d\n", mx, qp_index_hp);
int ch;
for (ch = 0 ; ch < plane->num_channels ; ch += 1) {
MACROBLK_CUR_HP_QUANT(plane,ch,tx,mx) = plane->hp_quant_ch[ch][qp_index_hp];
DEBUG(" HP_QUANT for MBx=%d ch=%d is %d\n", mx, ch, MACROBLK_CUR_HP_QUANT(plane,ch,tx,mx));
}
int rc = _jxr_r_MB_CBP(plane, str, 0, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_CBP returned ERROR rc=%d\n", rc);
return rc;
}
rc = _jxr_r_MB_HP(plane, str, 0, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_HP returned ERROR rc=%d\n", rc);
return rc;
}
}
if (ALPHACHANNEL_FLAG(image))
backup_hp_strip(image->alpha, tx, ty, my);
backup_hp_strip(image, tx, ty, my);
}
_jxr_rbitstream_syncbyte(str);
DEBUG("END TILE_HIGHPASS\n");
return 0;
}
/*
* Process a single spatial time. The tx/ty is the coordintes of the
* tile in units of tiles. tx=0 for the first time, tx=1 for the
* second, and so forth.
*/
int _jxr_r_TILE_SPATIAL(jxr_image_t image, struct rbitstream*str,
unsigned tx, unsigned ty)
{
int rc = 0;
DEBUG("START TILE_SPATIAL at tile=[%u %u] bitpos=%zu\n", tx, ty, _jxr_rbitstream_bitpos(str));
/* TILE_STARTCODE == 1 */
unsigned char s0, s1, s2, s3;
s0 = _jxr_rbitstream_uint8(str); /* 0x00 */
s1 = _jxr_rbitstream_uint8(str); /* 0x00 */
s2 = _jxr_rbitstream_uint8(str); /* 0x01 */
s3 = _jxr_rbitstream_uint8(str); /* reserved */
DEBUG(" TILE_STARTCODE == %02x %02x %02x (reserved: %02x)\n", s0, s1, s2, s3);
image->trim_flexbits = 0;
if (TRIM_FLEXBITS_FLAG(image)) {
image->trim_flexbits =_jxr_rbitstream_uint4(str);
DEBUG(" TRIM_FLEXBITS = %u\n", image->trim_flexbits);
}
/* Read the tile header (which includes sub-headers for
all the major passes). */
_jxr_r_TILE_HEADER_DC(image, str, 0, tx, ty);
if (image->bands_present != 3 /* DCONLY */) {
_jxr_r_TILE_HEADER_LOWPASS(image, str, 0, tx, ty);
if (image->bands_present != 2 /* NO_HIGHPASS */) {
_jxr_r_TILE_HEADER_HIGHPASS(image, str, 0, tx, ty);
}
}
/* If the alpha channel is present, then run another set of
headers for the alpha channel. */
if (ALPHACHANNEL_FLAG(image)) {
_jxr_r_TILE_HEADER_DC(image->alpha, str, 1, tx, ty);
if (image->bands_present != 3 /* DCONLY */) {
_jxr_r_TILE_HEADER_LOWPASS(image->alpha, str, 1, tx, ty);
if (image->bands_present != 2 /* NO_HIGHPASS */) {
_jxr_r_TILE_HEADER_HIGHPASS(image->alpha, str, 1, tx, ty);
}
}
}
/* Now form and write out all the compressed data for the
tile. This involves scanning the macroblocks, and the
blocks within the macroblocks, generating bits as we go. */
unsigned mb_height = EXTENDED_HEIGHT_BLOCKS(image);
unsigned mb_width = EXTENDED_WIDTH_BLOCKS(image);
if (TILING_FLAG(image)) {
mb_height = image->tile_row_height[ty];
mb_width = image->tile_column_width[tx];
}
unsigned mx, my, plane_idx;
for (my = 0 ; my < mb_height ; my += 1) {
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, my);
_jxr_rflush_mb_strip(image, tx, ty, my);
for (mx = 0 ; mx < mb_width ; mx += 1) {
for(plane_idx = 0U; plane_idx < (ALPHACHANNEL_FLAG(image) ? 2U : 1U); plane_idx ++){
int ch;
/* There is one LP_QP_INDEX per macroblock (if any)
and that value applies to all the channels.
Same for HP_QP_INDEX. There is no DC_QP_INDEX
because DC QP values are per-tile, not per MB. */
int qp_index_lp = 0;
int qp_index_hp = 0;
jxr_image_t plane = (plane_idx == 0 ? image : image->alpha);
if (plane->bands_present!=3) {
if (plane->num_lp_qps>1 && !plane->lp_use_dc_qp) {
qp_index_lp = _jxr_DECODE_QP_INDEX(str, plane->num_lp_qps);
DEBUG(" DECODE_QP_INDEX(%d) --> %u (LP)\n", plane->num_lp_qps, qp_index_lp);
}
qp_index_hp = 0;
if (plane->bands_present!=2 && plane->num_hp_qps>1) {
if (!plane->hp_use_lp_qp) {
qp_index_hp = _jxr_DECODE_QP_INDEX(str, plane->num_hp_qps);
DEBUG(" DECODE_QP_INDEX(%d) --> %u (HP)\n", plane->num_hp_qps, qp_index_hp);
}
else {
qp_index_hp = qp_index_lp;
}
}
}
for (ch = 0 ; ch < plane->num_channels ; ch += 1) {
/* Save the LP Quant *INDEX* here. Prediction needs it. */
MACROBLK_CUR_LP_QUANT(plane,ch,tx,mx) = qp_index_lp;
DEBUG(" LP_QUANT INDEX for tx=%u ty=%u ch=%u MBx=%d is %d\n", tx, ty, ch, mx,
MACROBLK_CUR_LP_QUANT(plane,ch,tx,mx));
MACROBLK_CUR_HP_QUANT(plane,ch,tx,mx) = plane->hp_quant_ch[ch][qp_index_hp];
DEBUG(" HP_QUANT VALUE for tx=%u ty=%u ch=%u MBx=%d is %d\n", tx, ty, ch, mx,
MACROBLK_CUR_HP_QUANT(plane,ch,tx,mx));
}
_jxr_r_MB_DC(plane, str, plane_idx, tx, ty, mx, my);
if (plane->bands_present != 3 /* DCONLY */) {
_jxr_r_MB_LP(plane, str, plane_idx, tx, ty, mx, my);
_jxr_complete_cur_dclp(plane, tx, mx, my);
if (plane->bands_present != 2 /* NOHIGHPASS */) {
rc = _jxr_r_MB_CBP(plane, str, plane_idx, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_CBP returned ERROR rc=%d\n", rc);
return rc;
}
rc = _jxr_r_MB_HP(plane, str, plane_idx, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_HP returned ERROR rc=%d\n", rc);
return rc;
}
}
} else {
_jxr_complete_cur_dclp(plane, tx, mx, my);
}
}
}
}
/* Flush the remaining strips to output. */
if (tx+1 == image->tile_columns && ty+1 == image->tile_rows) {
DEBUG(" Cleanup flush after last tile (tx=%d, ty=%d)\n", tx, ty);
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, mb_height);
_jxr_rflush_mb_strip(image, tx, ty, mb_height);
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, mb_height+1);
_jxr_rflush_mb_strip(image, tx, ty, mb_height+1);
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, mb_height+2);
_jxr_rflush_mb_strip(image, tx, ty, mb_height+2);
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, mb_height+3);
_jxr_rflush_mb_strip(image, tx, ty, mb_height+3);
}
_jxr_rbitstream_syncbyte(str);
DEBUG("END TILE_SPATIAL\n");
return 0;
}
/*
** Added by thor April 2nd 2010: Process one stripe at a time.
*/
int _jxr_r_TILE_SPATIAL_stripe(jxr_image_t image, struct rbitstream*str,
unsigned tx, unsigned ty)
{
int rc = 0;
if (image->spatial_buffered_flag == 0) {
/* Header is not yet parsed off. Do now.
*/
DEBUG("START TILE_SPATIAL at tile=[%u %u] bitpos=%zu\n", tx, ty, _jxr_rbitstream_bitpos(str));
if(INDEXTABLE_PRESENT_FLAG(image)) {
_jxr_rbitstream_seek(str, image->tile_index_table[image->tile_columns * ty + tx]);
}
/* TILE_STARTCODE == 1 */
unsigned char s0, s1, s2, s3;
s0 = _jxr_rbitstream_uint8(str); /* 0x00 */
s1 = _jxr_rbitstream_uint8(str); /* 0x00 */
s2 = _jxr_rbitstream_uint8(str); /* 0x01 */
s3 = _jxr_rbitstream_uint8(str); /* reserved */
DEBUG(" TILE_STARTCODE == %02x %02x %02x (reserved: %02x)\n", s0, s1, s2, s3);
if (s0 != 0x00 || s1 != 0x00 || s2 != 0x01) {
DEBUG(" TILE_LOWPASS ERROR: Invalid marker.\n");
return JXR_EC_ERROR;
/* FIX THOR: Invalid TILE_STARTCODE detected */
}
image->trim_flexbits = 0;
if (TRIM_FLEXBITS_FLAG(image)) {
image->trim_flexbits =_jxr_rbitstream_uint4(str);
DEBUG(" TRIM_FLEXBITS = %u\n", image->trim_flexbits);
}
/* Read the tile header (which includes sub-headers for
all the major passes). */
_jxr_r_TILE_HEADER_DC(image, str, 0, tx, ty);
if (image->bands_present != 3 /* DCONLY */) {
_jxr_r_TILE_HEADER_LOWPASS(image, str, 0, tx, ty);
if (image->bands_present != 2 /* NO_HIGHPASS */) {
_jxr_r_TILE_HEADER_HIGHPASS(image, str, 0, tx, ty);
}
}
/* If the alpha channel is present, then run another set of
headers for the alpha channel. */
if (ALPHACHANNEL_FLAG(image)) {
_jxr_r_TILE_HEADER_DC(image->alpha, str, 1, tx, ty);
if (image->bands_present != 3 /* DCONLY */) {
_jxr_r_TILE_HEADER_LOWPASS(image->alpha, str, 1, tx, ty);
if (image->bands_present != 2 /* NO_HIGHPASS */) {
_jxr_r_TILE_HEADER_HIGHPASS(image->alpha, str, 1, tx, ty);
}
}
}
/* Now form and write out all the compressed data for the
tile. This involves scanning the macroblocks, and the
blocks within the macroblocks, generating bits as we go. */
{
unsigned mb_height = EXTENDED_HEIGHT_BLOCKS(image);
unsigned mb_width = EXTENDED_WIDTH_BLOCKS(image);
if (TILING_FLAG(image)) {
mb_height = image->tile_row_height[ty];
mb_width = image->tile_column_width[tx];
}
image->spatial_mb_height = mb_height;
image->spatial_mb_width = mb_width;
}
/*
** Done with the header. Initialize for the loop below.
*/
image->spatial_buffered_flag = 1;
image->stripe_my = 0;
image->cleanup_state = 0;
image->output_sent = 0;
// runs into the following.
}
switch(image->cleanup_state) {
case 0:
do {
unsigned mx, plane_idx, my = image->stripe_my;
unsigned mb_width = image->spatial_mb_width;
/*
for (my = 0 ; my < mb_height ; my += 1) {
*/
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, my);
_jxr_rflush_mb_strip(image, tx, ty, my);
for (mx = 0 ; mx < mb_width ; mx += 1) {
for(plane_idx = 0U; plane_idx < (ALPHACHANNEL_FLAG(image) ? 2U : 1U); plane_idx ++){
int ch;
/* There is one LP_QP_INDEX per macroblock (if any)
and that value applies to all the channels.
Same for HP_QP_INDEX. There is no DC_QP_INDEX
because DC QP values are per-tile, not per MB. */
int qp_index_lp = 0;
int qp_index_hp = 0;
jxr_image_t plane = (plane_idx == 0 ? image : image->alpha);
if (plane->bands_present!=3) {
if (plane->num_lp_qps>1 && !plane->lp_use_dc_qp) {
qp_index_lp = _jxr_DECODE_QP_INDEX(str, plane->num_lp_qps);
DEBUG(" DECODE_QP_INDEX(%d) --> %u (LP)\n", plane->num_lp_qps, qp_index_lp);
}
qp_index_hp = 0;
if (plane->bands_present!=2 && plane->num_hp_qps>1) {
if (!plane->hp_use_lp_qp) {
qp_index_hp = _jxr_DECODE_QP_INDEX(str, plane->num_hp_qps);
DEBUG(" DECODE_QP_INDEX(%d) --> %u (HP)\n", plane->num_hp_qps, qp_index_hp);
}
else {
qp_index_hp = qp_index_lp;
}
}
}
for (ch = 0 ; ch < plane->num_channels ; ch += 1) {
/* Save the LP Quant *INDEX* here. Prediction needs it. */
MACROBLK_CUR_LP_QUANT(plane,ch,tx,mx) = qp_index_lp;
DEBUG(" LP_QUANT INDEX for tx=%u ty=%u ch=%u MBx=%d is %d\n", tx, ty, ch, mx,
MACROBLK_CUR_LP_QUANT(plane,ch,tx,mx));
MACROBLK_CUR_HP_QUANT(plane,ch,tx,mx) = plane->hp_quant_ch[ch][qp_index_hp];
DEBUG(" HP_QUANT VALUE for tx=%u ty=%u ch=%u MBx=%d is %d\n", tx, ty, ch, mx,
MACROBLK_CUR_HP_QUANT(plane,ch,tx,mx));
}
_jxr_r_MB_DC(plane, str, plane_idx, tx, ty, mx, my);
if (plane->bands_present != 3 /* DCONLY */) {
_jxr_r_MB_LP(plane, str, plane_idx, tx, ty, mx, my);
_jxr_complete_cur_dclp(plane, tx, mx, my);
if (plane->bands_present != 2 /* NOHIGHPASS */) {
rc = _jxr_r_MB_CBP(plane, str, plane_idx, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_CBP returned ERROR rc=%d\n", rc);
return rc;
}
rc = _jxr_r_MB_HP(plane, str, plane_idx, tx, ty, mx, my);
if (rc < 0) {
DEBUG("r_MB_HP returned ERROR rc=%d\n", rc);
return rc;
}
}
} else {
_jxr_complete_cur_dclp(plane, tx, mx, my);
}
}
}
/*
** Advance to the next MB row.
*/
image->stripe_my++;
/*
** The flush happens only as part of the last tile, so continue iterating
** until that tile is hit.
*/
} while (image->stripe_my < image->spatial_mb_height && image->output_sent == 0);
/*
** End of tile reached? If so, get the sycn marker
*/
if (image->stripe_my == image->spatial_mb_height)
_jxr_rbitstream_syncbyte(str);
/*
** If this is an intermediate tile and not the right edge, continue with the next tile.
*/
if (tx+1 != image->tile_columns) {
image->spatial_buffered_flag = 0;
image->stripe_my = 0;
return 1;
}
/*
** Otherwise, a stripe is complete, go to the user.
*/
if (image->stripe_my < image->spatial_mb_height && image->output_sent) {
image->output_sent = 0;
return 0; /* not yet done with this strip, but return to the user. */
}
assert(image->stripe_my == image->spatial_mb_height);
/*
** Done with this tile, go to the next. We're done in case this is not the last tile,
** otherwise iterate on until we get to the last one.
*/
if (tx+1 == image->tile_columns && ty+1 == image->tile_rows) {
// Last tile row. Continue with cleanup.
image->cleanup_state = 1;
} else {
image->spatial_buffered_flag = 0;
image->stripe_my = 0;
return JXR_EC_DONE;
}
if (image->output_sent)
return 0;
// runs into the following
case 1:
/* Flush the remaining strips to output. */
if (tx+1 == image->tile_columns && ty+1 == image->tile_rows) {
DEBUG(" Cleanup flush after last tile (tx=%d, ty=%d)\n", tx, ty);
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, image->spatial_mb_height);
_jxr_rflush_mb_strip(image, tx, ty, image->spatial_mb_height);
image->cleanup_state++;
if (image->output_sent) {
image->output_sent = 0;
return 0;
}
} else {
return 1;
}
// runs into the following
case 2:
if (tx+1 == image->tile_columns && ty+1 == image->tile_rows) {
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, image->spatial_mb_height+1);
_jxr_rflush_mb_strip(image, tx, ty, image->spatial_mb_height+1);
image->cleanup_state++;
if (image->output_sent) {
image->output_sent = 0;
return 0;
}
} else {
return 1;
}
// runs into the following
case 3:
if (tx+1 == image->tile_columns && ty+1 == image->tile_rows) {
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, image->spatial_mb_height+2);
_jxr_rflush_mb_strip(image, tx, ty, image->spatial_mb_height+2);
image->cleanup_state++;
if (image->output_sent) {
image->output_sent = 0;
return 0;
}
} else {
return 1;
}
// runs into the following
case 4:
if (tx+1 == image->tile_columns && ty+1 == image->tile_rows) {
if (ALPHACHANNEL_FLAG(image))
_jxr_rflush_mb_strip(image->alpha, tx, ty, image->spatial_mb_height+3);
_jxr_rflush_mb_strip(image, tx, ty, image->spatial_mb_height+3);
image->cleanup_state++;
if (image->output_sent) {
image->output_sent = 0;
return 0;
}
} else {
return 1;
}
// runs into the following
default:
image->spatial_buffered_flag = 0;
image->stripe_my = 0;
return JXR_EC_DONE;
}
}