/* ping 帧永远插到最前面*/
void Http2Base::PushFrame(Http2_header *header){
uint32_t id = HTTP2_ID(header->id);
LOGD(DHTTP2, "push a frame [%d]:%d, size:%d, flags: %d\n", id, header->type, get24(header->length), header->flags);
std::list<write_block>::insert_iterator i;
if((http2_flag & HTTP2_FLAG_INITED) == 0){
i = queue_end();
goto ret;
}
switch(header->type){
case PING_TYPE:
for(i = queue_head(); i!= queue_end() ; i++){
if(i->offset){
continue;
}
const Http2_header* check = (const Http2_header*)i->buff;
if(check->type != PING_TYPE){
break;
}
}
break;
case HEADERS_TYPE:{
auto j = queue_end();
do{
i = j--;
if(j == queue_head() || j->offset){
break;
}
const Http2_header* check = (const Http2_header*)j->buff;
if(check->type != DATA_TYPE)
break;
uint32_t jid = HTTP2_ID(check->id);
if(jid == 0 || jid == id)
break;
}while(true);
break;
}
default:
i = queue_end();
break;
}
ret:
size_t length = sizeof(Http2_header) + get24(header->length);
assert(i == queue_end() || i == queue_head() || i->offset == 0);
queue_insert(i, write_block{header, length, 0});
}
void Http2Base::SettingsProc(const Http2_header* header) {
const Setting_Frame *sf = (const Setting_Frame *)(header + 1);
if((header->flags & ACK_F) == 0) {
while((char *)sf-(char *)(header+1) < get24(header->length)){
uint32_t value = get32(sf->value);
switch(get16(sf->identifier)){
case SETTINGS_HEADER_TABLE_SIZE:
LOGD(DHTTP2, "set head table size:%d\n", value);
request_table.set_dynamic_table_size_limit_max(value);
break;
case SETTINGS_INITIAL_WINDOW_SIZE:
if(value >= (uint32_t)1<<31u){
LOGE("ERROR window overflow\n");
ErrProc(ERR_FLOW_CONTROL_ERROR);
return;
}
AdjustInitalFrameWindowSize((ssize_t)value - (ssize_t)remoteframewindowsize);
remoteframewindowsize = value;
LOGD(DHTTP2, "set inital frame window size:%d\n", remoteframewindowsize);
break;
case SETTINGS_MAX_FRAME_SIZE:
if(value > 0xffffff || value < FRAMEBODYLIMIT){
LOGE("ERROR frame size overflow\n");
ErrProc(ERR_FRAME_SIZE_ERROR);
return;
}
remoteframebodylimit = value;
LOGD(DHTTP2, "set frame body size limit: %d\n", remoteframebodylimit);
break;
default:
LOG("Get a unkown setting(%d): %d\n", get16(sf->identifier), value);
break;
}
sf++;
}
Http2_header *header_back = (Http2_header *)p_memdup(header, sizeof(Http2_header));
set24(header_back->length, 0);
header_back->flags |= ACK_F;
PushFrame(header_back);
}else if(get24(header->length) != 0){
LOGE("ERROR setting ack with content\n");
ErrProc(ERR_FRAME_SIZE_ERROR);
}
}
int Http2Base::SendFrame(){
while(!framequeue.empty()){
Http2_frame& frame = framequeue.front();
size_t len = sizeof(Http2_header) + get24(frame.header->length);
assert(get24(frame.header->length) <= FRAMEBODYLIMIT);
ssize_t ret = Write((char *)frame.header + frame.wlen, len - frame.wlen);
if (ret <= 0) {
return ret;
}
framelen -= ret;
if ((size_t)ret + frame.wlen == len) {
p_free(frame.header);
framequeue.pop_front();
} else {
frame.wlen += ret;
break;
}
}
return 1;
}
SANE_Status
get_buffer_status (struct scanner * s, unsigned *data_avalible)
{
SANE_Status status;
struct cmd c = {
{0}, 10,
NULL, 12,
CMD_IN
};
c.cmd[0] = GET_BUFFER_STATUS;
c.cmd[7] = 12;
status = send_command (s, &c);
if (status)
return status;
*data_avalible = get24 ((unsigned char *)c.data + 9);
return SANE_STATUS_GOOD;
}
int
mem_gray8_rgb24_strip_copy_rop(gx_device * dev,
const byte * sdata, int sourcex, uint sraster, gx_bitmap_id id,
const gx_color_index * scolors,
const gx_strip_bitmap * textures, const gx_color_index * tcolors,
int x, int y, int width, int height,
int phase_x, int phase_y, gs_logical_operation_t lop)
{
gx_device_memory *mdev = (gx_device_memory *) dev;
gs_rop3_t rop = lop_rop(lop);
gx_color_index const_source = gx_no_color_index;
gx_color_index const_texture = gx_no_color_index;
uint draster = mdev->raster;
int line_count;
byte *drow, *base;
int depth = dev->color_info.depth;
int bpp = depth >> 3; /* bytes per pixel, 1 or 3 */
gx_color_index all_ones = ((gx_color_index) 1 << depth) - 1;
gx_color_index strans =
(lop & lop_S_transparent ? all_ones : gx_no_color_index);
gx_color_index ttrans =
(lop & lop_T_transparent ? all_ones : gx_no_color_index);
#ifdef USE_RUN_ROP
rop_run_op ropper;
#ifdef COMPARE_AND_CONTRAST
static byte testbuffer[4096];
static byte *start;
static int bytelen;
#endif
#endif
/* Check for constant source. */
if (!rop3_uses_S(rop))
const_source = 0; /* arbitrary */
else if (scolors != 0 && scolors[0] == scolors[1]) {
/* Constant source */
const_source = scolors[0];
if (const_source == gx_device_black(dev))
rop = rop3_know_S_0(rop);
else if (const_source == gx_device_white(dev))
rop = rop3_know_S_1(rop);
}
/* Check for constant texture. */
if (!rop3_uses_T(rop))
const_texture = 0; /* arbitrary */
else if (tcolors != 0 && tcolors[0] == tcolors[1]) {
/* Constant texture */
const_texture = tcolors[0];
if (const_texture == gx_device_black(dev))
rop = rop3_know_T_0(rop);
else if (const_texture == gx_device_white(dev))
rop = rop3_know_T_1(rop);
}
if (bpp == 1 &&
(gx_device_has_color(dev) ||
(gx_device_black(dev) != 0 || gx_device_white(dev) != all_ones))
) {
/*
* This is an 8-bit device but not gray-scale. Except in a few
* simple cases, we have to use the slow algorithm that converts
* values to and from RGB.
*/
gx_color_index bw_pixel;
switch (rop) {
case rop3_0:
bw_pixel = gx_device_black(dev);
goto bw;
case rop3_1:
bw_pixel = gx_device_white(dev);
bw: if (bw_pixel == 0x00)
rop = rop3_0;
else if (bw_pixel == 0xff)
rop = rop3_1;
else
goto df;
break;
case rop3_D:
break;
case rop3_S:
if (lop & lop_S_transparent)
goto df;
break;
case rop3_T:
if (lop & lop_T_transparent)
goto df;
break;
default:
df: return mem_default_strip_copy_rop(dev,
sdata, sourcex, sraster, id,
scolors, textures, tcolors,
x, y, width, height,
phase_x, phase_y, lop);
}
}
/* Adjust coordinates to be in bounds. */
if (const_source == gx_no_color_index) {
fit_copy(dev, sdata, sourcex, sraster, id,
x, y, width, height);
} else {
fit_fill(dev, x, y, width, height);
}
/* Set up transfer parameters. */
line_count = height;
base = scan_line_base(mdev, y);
drow = base + x * bpp;
/*
* There are 18 cases depending on whether each of the source and
* texture is constant, 1-bit, or multi-bit, and on whether the
* depth is 8 or 24 bits. We divide first according to constant
* vs. non-constant, and then according to 1- vs. multi-bit, and
* finally according to pixel depth. This minimizes source code,
* but not necessarily time, since we do some of the divisions
* within 1 or 2 levels of loop.
*/
#ifdef USE_RUN_ROP
#define dbit(base, i) ((base)[(i) >> 3] & (0x80 >> ((i) & 7)))
/* 8-bit */
#define cbit8(base, i, colors)\
(dbit(base, i) ? (byte)colors[1] : (byte)colors[0])
#define rop_body_8(s_pixel, t_pixel)\
if ( (s_pixel) == strans || /* So = 0, s_tr = 1 */\
(t_pixel) == ttrans /* Po = 0, p_tr = 1 */\
)\
continue;\
*dptr = (*rop_proc_table[rop])(*dptr, s_pixel, t_pixel)
/* 24-bit */
#define get24(ptr)\
(((gx_color_index)(ptr)[0] << 16) | ((gx_color_index)(ptr)[1] << 8) | (ptr)[2])
#define put24(ptr, pixel)\
(ptr)[0] = (byte)((pixel) >> 16),\
(ptr)[1] = (byte)((uint)(pixel) >> 8),\
(ptr)[2] = (byte)(pixel)
#define cbit24(base, i, colors)\
(dbit(base, i) ? colors[1] : colors[0])
#define rop_body_24(s_pixel, t_pixel)\
if ( (s_pixel) == strans || /* So = 0, s_tr = 1 */\
(t_pixel) == ttrans /* Po = 0, p_tr = 1 */\
)\
continue;\
{ gx_color_index d_pixel = get24(dptr);\
d_pixel = (*rop_proc_table[rop])(d_pixel, s_pixel, t_pixel);\
put24(dptr, d_pixel);\
}
if (const_texture != gx_no_color_index) {
/**** Constant texture ****/
if (const_source != gx_no_color_index) {
/**** Constant source & texture ****/
rop_get_run_op(&ropper, lop, depth, rop_s_constant | rop_t_constant);
rop_set_s_constant(&ropper, const_source);
rop_set_t_constant(&ropper, const_texture);
for (; line_count-- > 0; drow += draster) {
#ifdef COMPARE_AND_CONTRAST
byte *dptr = drow;
int left = width;
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
rop_run(&ropper, testbuffer, left);
if (bpp == 1)
/**** 8-bit destination ****/
for (; left > 0; ++dptr, --left) {
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_8((byte)const_source, (byte)const_texture);
}
else
/**** 24-bit destination ****/
for (; left > 0; dptr += 3, --left) {
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_24(const_source, const_texture);
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
rop_run(&ropper, drow, width);
#endif
}
rop_release_run_op(&ropper);
} else {
/**** Data source, const texture ****/
if (scolors) {
const byte *srow = sdata;
rop_get_run_op(&ropper, lop, depth, rop_t_constant | rop_s_1bit);
rop_set_t_constant(&ropper, const_texture);
rop_set_s_colors(&ropper, scolors);
for (; line_count-- > 0; drow += draster, srow += sraster) {
#ifdef COMPARE_AND_CONTRAST
byte *dptr = drow;
int left = width;
/**** 1-bit source ****/
int sx = sourcex;
rop_set_s_bitmap_subbyte(&ropper, srow, sourcex);
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
rop_run(&ropper, testbuffer, width);
if (bpp == 1)
/**** 8-bit destination ****/
for (; left > 0; ++dptr, ++sx, --left) {
byte s_pixel = cbit8(srow, sx, scolors);
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_8(s_pixel, (byte)const_texture);
}
else
/**** 24-bit destination ****/
for (; left > 0; dptr += 3, ++sx, --left) {
bits32 s_pixel = cbit24(srow, sx, scolors);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_24(s_pixel, const_texture);
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
/**** 1-bit source ****/
/**** 8-bit destination ****/
/**** 24-bit destination ****/
rop_set_s_bitmap_subbyte(&ropper, srow, sourcex);
rop_run(&ropper, drow, width);
#endif
}
rop_release_run_op(&ropper);
} else {
const byte *srow = sdata;
rop_get_run_op(&ropper, lop, depth, rop_t_constant);
rop_set_t_constant(&ropper, const_texture);
for (; line_count-- > 0; drow += draster, srow += sraster) {
#ifdef COMPARE_AND_CONTRAST
byte *dptr = drow;
int left = width;
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
rop_set_s_bitmap(&ropper, srow + sourcex * bpp);
rop_run(&ropper, testbuffer, left);
/**** 8-bit source & dest ****/
if (bpp == 1) {
const byte *sptr = srow + sourcex;
for (; left > 0; ++dptr, ++sptr, --left) {
byte s_pixel = *sptr;
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_8(s_pixel, (byte)const_texture);
}
} else {
/**** 24-bit source & dest ****/
const byte *sptr = srow + sourcex * 3;
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
for (; left > 0; dptr += 3, sptr += 3, --left) {
bits32 s_pixel = get24(sptr);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_24(s_pixel, const_texture);
}
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
/**** 8-bit source & dest ****/
/**** 24-bit source & dest ****/
rop_set_s_bitmap(&ropper, srow + sourcex * bpp);
rop_run(&ropper, drow, width);
#endif
}
rop_release_run_op(&ropper);
}
}
} else if (const_source != gx_no_color_index) {
/**** Const source, data texture ****/
if (tcolors) {
uint traster = textures->raster;
int ty = y + phase_y;
rop_get_run_op(&ropper, lop, depth, rop_s_constant | rop_t_1bit);
rop_set_s_constant(&ropper, const_source);
for (; line_count-- > 0; drow += draster, ++ty) { /* Loop over copies of the tile. */
int dx = x, w = width, nw;
byte *dptr = drow;
const byte *trow =
textures->data + (ty % textures->size.y) * traster;
int xoff = x_offset(phase_x, ty, textures);
for (; w > 0; dx += nw, w -= nw) {
int tx = (dx + xoff) % textures->rep_width;
int left = nw = min(w, textures->size.x - tx);
const byte *tptr = trow;
rop_set_t_bitmap_subbyte(&ropper, trow, tx);
#ifdef COMPARE_AND_CONTRAST
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
rop_run(&ropper, testbuffer, left);
/**** 1-bit texture ****/
if (bpp == 1)
/**** 8-bit dest ****/
for (; left > 0; ++dptr, ++tx, --left) {
byte t_pixel = cbit8(tptr, tx, tcolors);
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_8((byte)const_source, t_pixel);
}
else
/**** 24-bit dest ****/
for (; left > 0; dptr += 3, ++tx, --left) {
bits32 t_pixel = cbit24(tptr, tx, tcolors);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_24(const_source, t_pixel);
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
rop_run(&ropper, dptr, left);
dptr += left;
#endif
}
}
} else {
uint traster = textures->raster;
int ty = y + phase_y;
rop_get_run_op(&ropper, lop, depth, rop_s_constant);
rop_set_s_constant(&ropper, const_source);
for (; line_count-- > 0; drow += draster, ++ty) { /* Loop over copies of the tile. */
int dx = x, w = width, nw;
byte *dptr = drow;
const byte *trow =
textures->data + (ty % textures->size.y) * traster;
int xoff = x_offset(phase_x, ty, textures);
for (; w > 0; dx += nw, w -= nw) {
int tx = (dx + xoff) % textures->rep_width;
int left = nw = min(w, textures->size.x - tx);
const byte *tptr = trow + tx*bpp;
rop_set_t_bitmap(&ropper, tptr);
#ifdef COMPARE_AND_CONTRAST
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
rop_run(&ropper, testbuffer, left);
/**** 8-bit T & D ****/
if (bpp == 1) {
for (; left > 0; ++dptr, ++tptr, --left) {
byte t_pixel = *tptr;
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_8((byte)const_source, t_pixel);
}
} else {
/**** 24-bit T & D ****/
for (; left > 0; dptr += 3, tptr += 3, --left) {
bits32 t_pixel = get24(tptr);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_24(const_source, t_pixel);
}
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
/**** 8-bit T & D ****/
/**** 24-bit T & D ****/
rop_run(&ropper, dptr, left);
dptr += left * bpp;
#endif
}
}
rop_release_run_op(&ropper);
}
} else {
/**** Data source & texture ****/
if (scolors != NULL | tcolors != NULL) {
uint traster = textures->raster;
int ty = y + phase_y;
const byte *srow = sdata;
rop_get_run_op(&ropper, lop, depth,
((scolors == NULL ? 0 : rop_s_1bit) |
(tcolors == NULL ? 0 : rop_t_1bit)));
/* Loop over scan lines. */
for (; line_count-- > 0; drow += draster, srow += sraster, ++ty) { /* Loop over copies of the tile. */
int sx = sourcex;
int dx = x;
int w = width;
int nw;
byte *dptr = drow;
const byte *trow =
textures->data + (ty % textures->size.y) * traster;
int xoff = x_offset(phase_x, ty, textures);
for (; w > 0; dx += nw, w -= nw) { /* Loop over individual pixels. */
int tx = (dx + xoff) % textures->rep_width;
int left = nw = min(w, textures->size.x - tx);
const byte *sptr = srow + sx*bpp;
const byte *tptr = trow + tx*bpp;
/*
* For maximum speed, we should split this loop
* into 7 cases depending on source & texture
* depth: (1,1), (1,8), (1,24), (8,1), (8,8),
* (24,1), (24,24). But since we expect these
* cases to be relatively uncommon, we just
* divide on the destination depth.
*/
if (scolors)
rop_set_s_bitmap_subbyte(&ropper, srow, sx);
else
rop_set_s_bitmap(&ropper, sptr);
if (tcolors)
rop_set_t_bitmap_subbyte(&ropper, trow, tx);
else
rop_set_t_bitmap(&ropper, tptr);
#ifdef COMPARE_AND_CONTRAST
bytelen = left*bpp; start = dptr;
memcpy(testbuffer, dptr, bytelen);
rop_run(&ropper, testbuffer, left);
if (bpp == 1) {
/**** 8-bit destination ****/
for (; left > 0; ++dptr, ++sptr, ++tptr, ++sx, ++tx, --left) {
byte s_pixel =
(scolors ? cbit8(srow, sx, scolors) : *sptr);
byte t_pixel =
(tcolors ? cbit8(trow, tx, tcolors) : *tptr);
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_8(s_pixel, t_pixel);
}
} else {
/**** 24-bit destination ****/
for (; left > 0; dptr += 3, sptr += 3, tptr += 3, ++sx, ++tx, --left) {
bits32 s_pixel =
(scolors ? cbit24(srow, sx, scolors) :
get24(sptr));
bits32 t_pixel =
(tcolors ? cbit24(tptr, tx, tcolors) :
get24(tptr));
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_24(s_pixel, t_pixel);
}
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
rop_run(&ropper, dptr, left);
#endif
}
}
} else {
uint traster = textures->raster;
int ty = y + phase_y;
const byte *srow = sdata;
/* Loop over scan lines. */
rop_get_run_op(&ropper, rop, depth, 0);
for (; line_count-- > 0; drow += draster, srow += sraster, ++ty) { /* Loop over copies of the tile. */
int sx = sourcex;
int dx = x;
int w = width;
int nw;
byte *dptr = drow;
const byte *trow =
textures->data + (ty % textures->size.y) * traster;
int xoff = x_offset(phase_x, ty, textures);
for (; w > 0; dx += nw, w -= nw) { /* Loop over individual pixels. */
int tx = (dx + xoff) % textures->rep_width;
int left = nw = min(w, textures->size.x - tx);
const byte *tptr = trow + tx * bpp;
const byte *sptr = srow + sx * bpp;
rop_set_s_bitmap(&ropper, sptr);
rop_set_t_bitmap(&ropper, tptr);
#ifdef COMPARE_AND_CONTRAST
if (bpp == 1) {
rop_run(&ropper, testbuffer, left);
/**** 8-bit destination ****/
for (; left > 0; ++dptr, ++sptr, ++tptr, ++sx, ++tx, --left) {
rop_body_8(*sptr, *tptr);
}
} else {
/**** 24-bit destination ****/
for (; left > 0; dptr += 3, sptr += 3, tptr += 3, ++sx, ++tx, --left) {
bits32 s_pixel = get24(sptr);
bits32 t_pixel = get24(tptr);
rop_body_24(s_pixel, t_pixel);
}
}
if (memcmp(testbuffer, start, bytelen) != 0) {
eprintf("Failed!\n");
}
#else
/**** 8-bit destination ****/
/**** 24-bit destination ****/
rop_run(&ropper, dptr, left);
#endif
}
}
rop_release_run_op(&ropper);
}
}
#undef rop_body_8
#undef rop_body_24
#undef dbit
#undef cbit8
#undef cbit24
#else
#define dbit(base, i) ((base)[(i) >> 3] & (0x80 >> ((i) & 7)))
/* 8-bit */
#define cbit8(base, i, colors)\
(dbit(base, i) ? (byte)colors[1] : (byte)colors[0])
#define rop_body_8(s_pixel, t_pixel)\
if ( (s_pixel) == strans || /* So = 0, s_tr = 1 */\
(t_pixel) == ttrans /* Po = 0, p_tr = 1 */\
)\
continue;\
*dptr = (*rop_proc_table[rop])(*dptr, s_pixel, t_pixel)
/* 24-bit */
#define get24(ptr)\
(((gx_color_index)(ptr)[0] << 16) | ((gx_color_index)(ptr)[1] << 8) | (ptr)[2])
#define put24(ptr, pixel)\
(ptr)[0] = (byte)((pixel) >> 16),\
(ptr)[1] = (byte)((uint)(pixel) >> 8),\
(ptr)[2] = (byte)(pixel)
#define cbit24(base, i, colors)\
(dbit(base, i) ? colors[1] : colors[0])
#define rop_body_24(s_pixel, t_pixel)\
if ( (s_pixel) == strans || /* So = 0, s_tr = 1 */\
(t_pixel) == ttrans /* Po = 0, p_tr = 1 */\
)\
continue;\
{ gx_color_index d_pixel = get24(dptr);\
d_pixel = (*rop_proc_table[rop])(d_pixel, s_pixel, t_pixel);\
put24(dptr, d_pixel);\
}
if (const_texture != gx_no_color_index) {
/**** Constant texture ****/
if (const_source != gx_no_color_index) {
/**** Constant source & texture ****/
for (; line_count-- > 0; drow += draster) {
byte *dptr = drow;
int left = width;
if (bpp == 1)
/**** 8-bit destination ****/
for (; left > 0; ++dptr, --left) {
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_8((byte)const_source, (byte)const_texture);
}
else
/**** 24-bit destination ****/
for (; left > 0; dptr += 3, --left) {
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_24(const_source, const_texture);
}
}
} else {
/**** Data source, const texture ****/
const byte *srow = sdata;
for (; line_count-- > 0; drow += draster, srow += sraster) {
byte *dptr = drow;
int left = width;
if (scolors) {
/**** 1-bit source ****/
int sx = sourcex;
if (bpp == 1)
/**** 8-bit destination ****/
for (; left > 0; ++dptr, ++sx, --left) {
byte s_pixel = cbit8(srow, sx, scolors);
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_8(s_pixel, (byte)const_texture);
}
else
/**** 24-bit destination ****/
for (; left > 0; dptr += 3, ++sx, --left) {
bits32 s_pixel = cbit24(srow, sx, scolors);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_24(s_pixel, const_texture);
}
} else if (bpp == 1) {
/**** 8-bit source & dest ****/
const byte *sptr = srow + sourcex;
for (; left > 0; ++dptr, ++sptr, --left) {
byte s_pixel = *sptr;
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_8(s_pixel, (byte)const_texture);
}
} else {
/**** 24-bit source & dest ****/
const byte *sptr = srow + sourcex * 3;
for (; left > 0; dptr += 3, sptr += 3, --left) {
bits32 s_pixel = get24(sptr);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), const_texture);
rop_body_24(s_pixel, const_texture);
}
}
}
}
} else if (const_source != gx_no_color_index) {
/**** Const source, data texture ****/
uint traster = textures->raster;
int ty = y + phase_y;
for (; line_count-- > 0; drow += draster, ++ty) { /* Loop over copies of the tile. */
int dx = x, w = width, nw;
byte *dptr = drow;
const byte *trow =
textures->data + (ty % textures->size.y) * traster;
int xoff = x_offset(phase_x, ty, textures);
for (; w > 0; dx += nw, w -= nw) {
int tx = (dx + xoff) % textures->rep_width;
int left = nw = min(w, textures->size.x - tx);
const byte *tptr = trow;
if (tcolors) {
/**** 1-bit texture ****/
if (bpp == 1)
/**** 8-bit dest ****/
for (; left > 0; ++dptr, ++tx, --left) {
byte t_pixel = cbit8(tptr, tx, tcolors);
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_8((byte)const_source, t_pixel);
}
else
/**** 24-bit dest ****/
for (; left > 0; dptr += 3, ++tx, --left) {
bits32 t_pixel = cbit24(tptr, tx, tcolors);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_24(const_source, t_pixel);
}
} else if (bpp == 1) {
/**** 8-bit T & D ****/
tptr += tx;
for (; left > 0; ++dptr, ++tptr, --left) {
byte t_pixel = *tptr;
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_8((byte)const_source, t_pixel);
}
} else {
/**** 24-bit T & D ****/
tptr += tx * 3;
for (; left > 0; dptr += 3, tptr += 3, --left) {
bits32 t_pixel = get24(tptr);
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_24(const_source, t_pixel);
}
}
}
}
} else {
/**** Data source & texture ****/
uint traster = textures->raster;
int ty = y + phase_y;
const byte *srow = sdata;
/* Loop over scan lines. */
for (; line_count-- > 0; drow += draster, srow += sraster, ++ty) { /* Loop over copies of the tile. */
int sx = sourcex;
int dx = x;
int w = width;
int nw;
byte *dptr = drow;
const byte *trow =
textures->data + (ty % textures->size.y) * traster;
int xoff = x_offset(phase_x, ty, textures);
for (; w > 0; dx += nw, w -= nw) { /* Loop over individual pixels. */
int tx = (dx + xoff) % textures->rep_width;
int left = nw = min(w, textures->size.x - tx);
const byte *tptr = trow;
/*
* For maximum speed, we should split this loop
* into 7 cases depending on source & texture
* depth: (1,1), (1,8), (1,24), (8,1), (8,8),
* (24,1), (24,24). But since we expect these
* cases to be relatively uncommon, we just
* divide on the destination depth.
*/
if (bpp == 1) {
/**** 8-bit destination ****/
const byte *sptr = srow + sx;
tptr += tx;
for (; left > 0; ++dptr, ++sptr, ++tptr, ++sx, ++tx, --left) {
byte s_pixel =
(scolors ? cbit8(srow, sx, scolors) : *sptr);
byte t_pixel =
(tcolors ? cbit8(tptr, tx, tcolors) : *tptr);
vd_pixel(int2fixed((dptr - base) % draster),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_8(s_pixel, t_pixel);
}
} else {
/**** 24-bit destination ****/
const byte *sptr = srow + sx * 3;
tptr += tx * 3;
for (; left > 0; dptr += 3, sptr += 3, tptr += 3, ++sx, ++tx, --left) {
bits32 s_pixel =
(scolors ? cbit24(srow, sx, scolors) :
get24(sptr));
bits32 t_pixel =
(tcolors ? cbit24(tptr, tx, tcolors) :
get24(tptr));
vd_pixel(int2fixed((dptr - base) % draster / 3),
int2fixed((dptr - base) / draster + y), t_pixel);
rop_body_24(s_pixel, t_pixel);
}
}
}
}
}
#undef rop_body_8
#undef rop_body_24
#undef dbit
#undef cbit8
#undef cbit24
#endif
return 0;
}
static ngx_int_t ngx_http_mp4frag_handler(ngx_http_request_t *r)
{
ngx_int_t rc;
ngx_chain_t out;
u_char *resp_body;
ngx_buf_t *resp;
char *lastslash;
char *mediafilename;
u_char *last;
size_t root;
ngx_str_t path;
ngx_str_t index_map = ngx_null_string;
const u_char *indexptr;
ngx_str_t mediafile_map = ngx_null_string;
unsigned medianum, fragnum;
uint16_t nmedia;
ngx_str_t videocodecdata, audiocodecdata;
uint32_t mediaoffset, fragments_offset;
uint16_t mediafilenamelen;
uint16_t nsamples, nfragments;
uint32_t totalsize;
unsigned int iii;
if (!(r->method & (NGX_HTTP_GET|NGX_HTTP_HEAD))) {
return NGX_HTTP_NOT_ALLOWED;
}
/* discard request body, since we don't need it here */
rc = ngx_http_discard_request_body(r);
if (rc != NGX_OK) {
return rc;
}
#if 0
/* set the 'Content-type' header */
r->headers_out.content_type.len = sizeof("text/html") - 1;
r->headers_out.content_type.data = (u_char *) "text/html";
#endif
last = ngx_http_map_uri_to_path(r, &path, &root, 0);
lastslash = strrchr((char*)path.data, '/');
if ( lastslash ) {
path.len = lastslash - (char*)path.data;
}
/* определить путь к файлу индекса и номер фрагмента: */
*lastslash++ = 0;
// uri - dirname, lastslash - basename
if ( memcmp(lastslash, "Seg1-Frag", 9) != 0 ) {
return NGX_HTTP_NOT_FOUND;
}
fragnum = atoi(lastslash + 9);
lastslash = strrchr((char*)path.data, '/');
if ( !lastslash ) {
return NGX_HTTP_NOT_FOUND;
}
medianum = atoi(lastslash + 1);
memcpy(lastslash + 1, "index", 6);
if ( (rc = make_mapping((const char *)path.data, &index_map, r)) != NGX_OK ) {
return rc;
}
indexptr = index_map.data;
#define CHECKMAP(nbytes) do { if (indexptr + nbytes >= index_map.data + index_map.len) { ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "index underrun, offset 0x%0x", nbytes); goto GENERAL_ERROR;} } while(0)
CHECKMAP(10); /* 8 for signature and 2 for media count */
if ( memcmp(index_map.data, "mp4frag", 7) != 0 || index_map.data[7] /* version */ > 2 ) {
free_mapping(&index_map);
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "Bad index format in %s", path.data);
goto GENERAL_ERROR;
}
indexptr += 8;
nmedia = get16(indexptr);
if ( medianum >= nmedia ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "No media #%d in %s, total %d media", medianum, path.data, nmedia);
goto GENERAL_ERROR;
}
indexptr += 2;
CHECKMAP(nmedia * 4);
mediaoffset = get32(indexptr + medianum * 4);
if ( mediaoffset >= index_map.len ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "short index in %s", path.data);
goto GENERAL_ERROR;
}
indexptr = index_map.data;
CHECKMAP(mediaoffset);
indexptr = index_map.data + mediaoffset;
CHECKMAP(2);
mediafilenamelen = get16(indexptr);
indexptr += 2;
CHECKMAP(mediafilenamelen);
if ( index_map.data[7] == 1 ) {
if ( (mediafilename = ngx_pcalloc(r->pool, mediafilenamelen + 1)) == NULL ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "Insufficient memory");
goto GENERAL_ERROR;
}
memcpy(mediafilename, (const char *)indexptr, mediafilenamelen);
mediafilename[mediafilenamelen] = 0;
}
else /* index_map.data[7] == 2 */ {
mediafilename = (char *)indexptr;
}
indexptr += mediafilenamelen;
CHECKMAP(2);
videocodecdata.len = get16(indexptr);
indexptr += 2;
CHECKMAP(videocodecdata.len);
videocodecdata.data = (u_char*)indexptr;
indexptr += videocodecdata.len;
CHECKMAP(2);
audiocodecdata.len = get16(indexptr);
indexptr += 2;
CHECKMAP(audiocodecdata.len);
audiocodecdata.data = (u_char*)indexptr;
indexptr += audiocodecdata.len;
/* number of fragments in the media */
CHECKMAP(2);
nfragments = get16(indexptr);
if ( fragnum > nfragments || fragnum < 1 ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "No fragment #%d in media #%d in file %s", fragnum, medianum, path.data);
goto NOT_FOUND;
}
indexptr += 2;
CHECKMAP(nfragments * 4);
fragments_offset = get32(indexptr + (fragnum - 1) * 4);
indexptr = index_map.data;
CHECKMAP(fragments_offset);
indexptr += fragments_offset;
CHECKMAP(6); /* first entry should present anyway */
nsamples = get16(indexptr);
if ( nsamples < 1 ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "Number of samples is 0 for media #%d, fragment #%d, index %s",
medianum, fragnum, path.data);
goto GENERAL_ERROR;
}
/* total fragment size in bytes: */
totalsize = get32(indexptr + 2);
ngx_log_error(NGX_LOG_DEBUG, r->connection->log, 0, "nsamples=%d, totalsize=%d", nsamples, totalsize);
indexptr += 6;
/* allocate memory for response */
if ( (resp_body = ngx_pcalloc(r->pool, totalsize)) == NULL ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "Insufficient memory");
goto GENERAL_ERROR;
}
if ( (resp = ngx_pcalloc(r->pool, sizeof(ngx_buf_t))) == NULL ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "Insufficient memory");
goto GENERAL_ERROR;
}
out.buf = resp;
out.next = NULL;
resp->pos = resp_body;
resp->last = resp_body + totalsize;
resp->memory = 1;
resp->last_buf = 1;
if ( make_mapping(mediafilename, &mediafile_map, r) != NGX_OK ) goto GENERAL_ERROR;
/* generate the fragment */
write32(resp_body, totalsize);
memcpy(resp_body + 4, "mdat", 4);
CHECKMAP(16 * nsamples - 1); /* check if the last byte still inside the index */
/* fragment timestamp is equal to first sample timestamp */
resp_body = write_fragment_prefix(resp_body + 8, &videocodecdata, &audiocodecdata, get32(indexptr + 8));
for ( iii = 0; iii < nsamples; ++iii ) {
uint32_t offset = get32(indexptr);
uint32_t size = get32(indexptr + 4);
uint32_t timestamp = get32(indexptr + 8);
uint32_t composition_offset = get24(indexptr + 12);
uint8_t flags = indexptr[15];
indexptr += 16;
if ( flags ) {
resp_body = write_video_packet(resp_body, flags & 2, 0, composition_offset, timestamp,
mediafile_map.data + offset, size);
}
else {
resp_body = write_audio_packet(resp_body, 0, timestamp, mediafile_map.data + offset, size);
}
}
free_mapping(&index_map);
free_mapping(&mediafile_map);
if ( resp_body != resp->last ) {
ngx_log_error(NGX_LOG_ERR, r->connection->log, 0, "response buffer overrun");
return NGX_HTTP_INTERNAL_SERVER_ERROR;
}
r->headers_out.status = NGX_HTTP_OK;
r->headers_out.content_length_n = totalsize;
rc = ngx_http_send_header(r);
if (rc == NGX_ERROR || rc > NGX_OK || r->header_only || r->method == NGX_HTTP_HEAD) {
return rc;
}
/* send the buffer chain of your response */
return ngx_http_output_filter(r, &out);
GENERAL_ERROR:
free_mapping(&index_map);
free_mapping(&mediafile_map);
return NGX_HTTP_INTERNAL_SERVER_ERROR;
NOT_FOUND:
free_mapping(&index_map);
free_mapping(&mediafile_map);
return NGX_HTTP_NOT_FOUND;
}
size_t Http2Base::DefaultProc(const uchar* http2_buff, size_t len) {
const Http2_header *header = (const Http2_header *)http2_buff;
if(len < sizeof(Http2_header)){
if(len)
LOGD(DHTTP2, "get a incompleted head, size:%zu\n", len);
return 0;
}else{
uint32_t length = get24(header->length);
if(length > FRAMEBODYLIMIT){
LOGE("ERROR frame size: %d\n", length);
ErrProc(ERR_FRAME_SIZE_ERROR);
return 0;
}
if(len < length + sizeof(Http2_header)){
LOGD(DHTTP2, "get a incompleted packet, size:%zu/%zu\n", len, length + sizeof(Http2_header));
return 0;
}else{
uint32_t id = HTTP2_ID(header->id);
if(http2_flag & HTTP2_FLAG_GOAWAYED){
LOG("get a frame [%d]:%d, size:%d after goaway, ignore it.\n", id, header->type, length);
return length + sizeof(Http2_header);
}
LOGD(DHTTP2, "get a frame [%d]:%d, size:%d, flags:%d\n", id, header->type, length, header->flags);
try {
uint32_t value;
switch(header->type) {
case DATA_TYPE:
if(id == 0 || (id > recvid && id >= sendid-1)){
LOGE("ERROR wrong data id: %d/%d/%d\n", id, recvid, sendid);
ErrProc(ERR_PROTOCOL_ERROR);
return 0;
}
DataProc(id, header+1, length);
if(header->flags & END_STREAM_F){
EndProc(id);
}
break;
case HEADERS_TYPE:
HeadersProc(header);
if(header->flags & END_STREAM_F){
EndProc(id);
}
break;
case PRIORITY_TYPE:
break;
case SETTINGS_TYPE:
if(id != 0 || length%6 != 0){
LOGE("ERROR wrong setting frame : %d/%d\n", id, length);
ErrProc(ERR_PROTOCOL_ERROR);
return 0;
}
SettingsProc(header);
break;
case PING_TYPE:
if(id != 0 || length != 8){
LOGE("ERROR wrong ping frame: %d/%d\n", id, length);
ErrProc(ERR_FRAME_SIZE_ERROR);
return 0;
}
PingProc(header);
break;
case GOAWAY_TYPE:
GoawayProc(header);
break;
case RST_STREAM_TYPE:
value = get32(header+1);
if(length != 4){
LOGE("ERROR rst frame: %d/%d\n", id, length);
ErrProc(ERR_FRAME_SIZE_ERROR);
return 0;
}
if(id == 0 || (id > recvid && id >= sendid-1)){
LOGE("ERROR rst frame: %d/%d/%d\n", id, sendid, recvid);
ErrProc(ERR_PROTOCOL_ERROR);
return 0;
}
RstProc(id, value);
break;
case WINDOW_UPDATE_TYPE:
value = get32(header+1);
if(length != 4){
LOGE("ERROR window update frame: %d/%d\n", id, length);
ErrProc(ERR_FRAME_SIZE_ERROR);
return 0;
}
if(value == 0 || (id > recvid && id >= sendid-1)){
LOGE("ERROR window update frame: value=%d id=%d/%d/%d\n", value, id, sendid, recvid);
ErrProc(ERR_PROTOCOL_ERROR);
return 0;
}
WindowUpdateProc(id, value);
break;
default:
LOGE("unkown http2 frame:%d\n", header->type);
}
}catch(...){
Reset(id, ERR_INTERNAL_ERROR);
return 0;
}
return length + sizeof(Http2_header);
}
}
}
void Http2Base::PingProc(const Http2_header* header) {
if((header->flags & ACK_F) == 0) {
Http2_header *header_back = (Http2_header *)p_memdup(header, sizeof(Http2_header) + get24(header->length));
header_back->flags |= ACK_F;
PushFrame(header_back);
}
}