static GdkPixbuf *
impl_load_pixbuf_file (const char *uri,
int available_width,
int available_height,
GError **error)
{
GdkPixbuf *pixbuf = NULL;
GFile *file;
char *contents = NULL;
gsize size;
if (g_str_has_prefix (uri, "data:"))
return decode_image (uri);
file = g_file_new_for_uri (uri);
if (g_file_load_contents (file, NULL, &contents, &size, NULL, error))
{
pixbuf = impl_load_pixbuf_data ((const guchar *) contents, size,
available_width, available_height,
error);
}
g_object_unref (file);
g_free (contents);
return pixbuf;
}
// Make sure at least 1 filtered image is available.
// returns VD_* code
// A return value of VD_PROGRESS doesn't necessarily output a frame, but makes
// the promise that calling this function again will eventually do something.
static int video_decode_and_filter(struct MPContext *mpctx)
{
struct dec_video *d_video = mpctx->d_video;
struct vf_chain *vf = d_video->vfilter;
if (vf->initialized < 0)
return VD_ERROR;
// There is already a filtered frame available.
if (vf_output_frame(vf, false) > 0)
return VD_PROGRESS;
// Decoder output is different from filter input?
bool need_vf_reconfig = !vf->input_params.imgfmt || vf->initialized < 1 ||
!mp_image_params_equal(&d_video->decoder_output, &vf->input_params);
// (If imgfmt==0, nothing was decoded yet, and the format is unknown.)
if (need_vf_reconfig && d_video->decoder_output.imgfmt) {
// Drain the filter chain.
if (vf_output_frame(vf, true) > 0)
return VD_PROGRESS;
// The filter chain is drained; execute the filter format change.
filter_reconfig(mpctx, false);
if (vf->initialized == 0)
return VD_PROGRESS; // hw decoding fallback; try again
if (vf->initialized < 1)
return VD_ERROR;
init_filter_params(mpctx);
return VD_PROGRESS;
}
// If something was decoded, and the filter chain is ready, filter it.
if (!need_vf_reconfig && d_video->waiting_decoded_mpi) {
vf_filter_frame(vf, d_video->waiting_decoded_mpi);
d_video->waiting_decoded_mpi = NULL;
return VD_PROGRESS;
}
if (!d_video->waiting_decoded_mpi) {
// Decode a new image, or at least feed the decoder a packet.
int r = decode_image(mpctx);
if (r == VD_WAIT)
return r;
if (d_video->waiting_decoded_mpi)
d_video->decoder_output = d_video->waiting_decoded_mpi->params;
if (!d_video->waiting_decoded_mpi && (r == VD_EOF || r < 0)) {
if (vf_output_frame(vf, true) > 0)
return VD_PROGRESS;
return VD_EOF; // true EOF
}
}
// Image will be filtered on the next iteration.
return VD_PROGRESS;
}
TargaLoader::TargaLoader(const IODevicePtr &iodevice, bool srgb)
: file(iodevice), srgb(srgb)
{
read_header();
read_image_id();
read_color_map();
read_image_data();
decode_palette();
decode_image();
}
PNGLoader::PNGLoader(IODevice iodevice, bool force_srgb)
: file(iodevice), force_srgb(force_srgb), scanline(nullptr), prev_scanline(nullptr), scanline_4ub(nullptr), scanline_4us(nullptr), palette(nullptr)
{
read_magic();
read_chunks();
decode_header();
decode_palette();
decode_colorkey();
decode_image();
}
bool Images::load_texture( ClutterTexture * texture, const char * filename )
{
TPImage * image = decode_image( filename );
if ( ! image )
{
return false;
}
load_texture( texture, image, 0, 0, image->width, image->height );
destroy_image( image );
return true;
}
bool Images::load_texture( ClutterTexture * texture, gpointer data, gsize size, const char * content_type )
{
TPImage * image = decode_image( data, size, content_type );
if ( ! image )
{
return false;
}
load_texture( texture, image, 0, 0, image->width, image->height );
destroy_image( image );
return true;
}
// Make sure at least 1 filtered image is available, decode new video if needed.
// returns VD_* code
// A return value of VD_PROGRESS doesn't necessarily output a frame, but makes
// the promise that calling this function again will eventually do something.
static int video_decode_and_filter(struct MPContext *mpctx)
{
struct dec_video *d_video = mpctx->d_video;
int r = video_filter(mpctx, false);
if (r < 0)
return r;
if (!d_video->waiting_decoded_mpi) {
// Decode a new image, or at least feed the decoder a packet.
r = decode_image(mpctx);
if (r == VD_WAIT)
return r;
if (d_video->waiting_decoded_mpi)
d_video->decoder_output = d_video->waiting_decoded_mpi->params;
}
bool eof = !d_video->waiting_decoded_mpi && (r == VD_EOF || r < 0);
return video_filter(mpctx, eof);
}
int reinit_video_chain(struct MPContext *mpctx)
{
struct MPOpts *opts = mpctx->opts;
assert(!mpctx->d_video);
struct track *track = mpctx->current_track[0][STREAM_VIDEO];
struct sh_stream *sh = track ? track->stream : NULL;
if (!sh)
goto no_video;
MP_VERBOSE(mpctx, "[V] fourcc:0x%X size:%dx%d fps:%5.3f\n",
sh->format,
sh->video->disp_w, sh->video->disp_h,
sh->video->fps);
//================== Init VIDEO (codec & libvo) ==========================
if (!opts->fixed_vo || !mpctx->video_out) {
struct vo_extra ex = {
.input_ctx = mpctx->input,
.osd = mpctx->osd,
.encode_lavc_ctx = mpctx->encode_lavc_ctx,
.opengl_cb_context = mpctx->gl_cb_ctx,
};
mpctx->video_out = init_best_video_out(mpctx->global, &ex);
if (!mpctx->video_out) {
MP_FATAL(mpctx, "Error opening/initializing "
"the selected video_out (-vo) device.\n");
mpctx->error_playing = MPV_ERROR_VO_INIT_FAILED;
goto err_out;
}
mpctx->mouse_cursor_visible = true;
}
update_window_title(mpctx, true);
struct dec_video *d_video = talloc_zero(NULL, struct dec_video);
mpctx->d_video = d_video;
d_video->global = mpctx->global;
d_video->log = mp_log_new(d_video, mpctx->log, "!vd");
d_video->opts = mpctx->opts;
d_video->header = sh;
d_video->fps = sh->video->fps;
d_video->vo = mpctx->video_out;
if (opts->force_fps) {
d_video->fps = opts->force_fps;
MP_INFO(mpctx, "FPS forced to %5.3f.\n", d_video->fps);
MP_INFO(mpctx, "Use --no-correct-pts to force FPS based timing.\n");
}
update_fps(mpctx);
vo_control(mpctx->video_out, VOCTRL_GET_HWDEC_INFO, &d_video->hwdec_info);
recreate_video_filters(mpctx);
if (!video_init_best_codec(d_video, opts->video_decoders))
goto err_out;
bool saver_state = opts->pause || !opts->stop_screensaver;
vo_control(mpctx->video_out, saver_state ? VOCTRL_RESTORE_SCREENSAVER
: VOCTRL_KILL_SCREENSAVER, NULL);
vo_set_paused(mpctx->video_out, mpctx->paused);
mpctx->sync_audio_to_video = !sh->attached_picture;
mpctx->vo_pts_history_seek_ts++;
// If we switch on video again, ensure audio position matches up.
if (mpctx->d_audio)
mpctx->audio_status = STATUS_SYNCING;
reset_video_state(mpctx);
reset_subtitle_state(mpctx);
return 1;
err_out:
no_video:
uninit_video_chain(mpctx);
if (track)
error_on_track(mpctx, track);
handle_force_window(mpctx, true);
return 0;
}
// Try to refresh the video by doing a precise seek to the currently displayed
// frame. This can go wrong in all sorts of ways, so use sparingly.
void mp_force_video_refresh(struct MPContext *mpctx)
{
struct MPOpts *opts = mpctx->opts;
struct dec_video *d_video = mpctx->d_video;
if (!d_video || !d_video->decoder_output.imgfmt)
return;
// If not paused, the next frame should come soon enough.
if (opts->pause && mpctx->last_vo_pts != MP_NOPTS_VALUE)
queue_seek(mpctx, MPSEEK_ABSOLUTE, mpctx->last_vo_pts, 2, true);
}
static int check_framedrop(struct MPContext *mpctx)
{
struct MPOpts *opts = mpctx->opts;
// check for frame-drop:
if (mpctx->video_status == STATUS_PLAYING && !mpctx->paused &&
mpctx->audio_status == STATUS_PLAYING && !ao_untimed(mpctx->ao))
{
float fps = mpctx->d_video->fps;
double frame_time = fps > 0 ? 1.0 / fps : 0;
// we should avoid dropping too many frames in sequence unless we
// are too late. and we allow 100ms A-V delay here:
if (mpctx->last_av_difference - 0.100 > mpctx->dropped_frames * frame_time)
return !!(opts->frame_dropping & 2);
}
return 0;
}
// Read a packet, store decoded image into d_video->waiting_decoded_mpi
// returns VD_* code
static int decode_image(struct MPContext *mpctx)
{
struct dec_video *d_video = mpctx->d_video;
if (d_video->header->attached_picture) {
d_video->waiting_decoded_mpi =
video_decode(d_video, d_video->header->attached_picture, 0);
return VD_EOF;
}
struct demux_packet *pkt;
if (demux_read_packet_async(d_video->header, &pkt) == 0)
return VD_WAIT;
if (pkt && pkt->pts != MP_NOPTS_VALUE)
pkt->pts += mpctx->video_offset;
if ((pkt && pkt->pts >= mpctx->hrseek_pts - .005) ||
d_video->has_broken_packet_pts ||
!mpctx->opts->hr_seek_framedrop)
{
mpctx->hrseek_framedrop = false;
}
bool hrseek = mpctx->hrseek_active && mpctx->video_status == STATUS_SYNCING;
int framedrop_type = hrseek && mpctx->hrseek_framedrop ?
2 : check_framedrop(mpctx);
d_video->waiting_decoded_mpi =
video_decode(d_video, pkt, framedrop_type);
bool had_packet = !!pkt;
talloc_free(pkt);
if (had_packet && !d_video->waiting_decoded_mpi &&
mpctx->video_status == STATUS_PLAYING)
{
mpctx->dropped_frames_total++;
mpctx->dropped_frames++;
}
return had_packet ? VD_PROGRESS : VD_EOF;
}
// Called after video reinit. This can be generally used to try to insert more
// filters using the filter chain edit functionality in command.c.
static void init_filter_params(struct MPContext *mpctx)
{
struct MPOpts *opts = mpctx->opts;
// Note that the filter chain is already initialized. This code might
// recreate the chain a second time, which is not very elegant, but allows
// us to test whether enabling deinterlacing works with the current video
// format and other filters.
if (opts->deinterlace >= 0)
mp_property_do("deinterlace", M_PROPERTY_SET, &opts->deinterlace, mpctx);
}
// Feed newly decoded frames to the filter, take care of format changes.
// If eof=true, drain the filter chain, and return VD_EOF if empty.
static int video_filter(struct MPContext *mpctx, bool eof)
{
struct dec_video *d_video = mpctx->d_video;
struct vf_chain *vf = d_video->vfilter;
if (vf->initialized < 0)
return VD_ERROR;
// There is already a filtered frame available.
// If vf_needs_input() returns > 0, the filter wants input anyway.
if (vf_output_frame(vf, eof) > 0 && vf_needs_input(vf) < 1)
return VD_PROGRESS;
// Decoder output is different from filter input?
bool need_vf_reconfig = !vf->input_params.imgfmt || vf->initialized < 1 ||
!mp_image_params_equal(&d_video->decoder_output, &vf->input_params);
// (If imgfmt==0, nothing was decoded yet, and the format is unknown.)
if (need_vf_reconfig && d_video->decoder_output.imgfmt) {
// Drain the filter chain.
if (vf_output_frame(vf, true) > 0)
return VD_PROGRESS;
// The filter chain is drained; execute the filter format change.
filter_reconfig(mpctx, false);
if (vf->initialized == 0)
return VD_PROGRESS; // hw decoding fallback; try again
if (vf->initialized < 1)
return VD_ERROR;
init_filter_params(mpctx);
return VD_RECONFIG;
}
// If something was decoded, and the filter chain is ready, filter it.
if (!need_vf_reconfig && d_video->waiting_decoded_mpi) {
vf_filter_frame(vf, d_video->waiting_decoded_mpi);
d_video->waiting_decoded_mpi = NULL;
return VD_PROGRESS;
}
return eof ? VD_EOF : VD_PROGRESS;
}
// Make sure at least 1 filtered image is available, decode new video if needed.
// returns VD_* code
// A return value of VD_PROGRESS doesn't necessarily output a frame, but makes
// the promise that calling this function again will eventually do something.
static int video_decode_and_filter(struct MPContext *mpctx)
{
struct dec_video *d_video = mpctx->d_video;
int r = video_filter(mpctx, false);
if (r < 0)
return r;
if (!d_video->waiting_decoded_mpi) {
// Decode a new image, or at least feed the decoder a packet.
r = decode_image(mpctx);
if (r == VD_WAIT)
return r;
if (d_video->waiting_decoded_mpi)
d_video->decoder_output = d_video->waiting_decoded_mpi->params;
}
bool eof = !d_video->waiting_decoded_mpi && (r == VD_EOF || r < 0);
r = video_filter(mpctx, eof);
if (r == VD_RECONFIG) // retry feeding decoded image
r = video_filter(mpctx, eof);
return r;
}
static int video_feed_async_filter(struct MPContext *mpctx)
{
struct dec_video *d_video = mpctx->d_video;
struct vf_chain *vf = d_video->vfilter;
if (vf->initialized < 0)
return VD_ERROR;
if (vf_needs_input(vf) < 1)
return 0;
mpctx->sleeptime = 0; // retry until done
return video_decode_and_filter(mpctx);
}
/* Modify video timing to match the audio timeline. There are two main
* reasons this is needed. First, video and audio can start from different
* positions at beginning of file or after a seek (MPlayer starts both
* immediately even if they have different pts). Second, the file can have
* audio timestamps that are inconsistent with the duration of the audio
* packets, for example two consecutive timestamp values differing by
* one second but only a packet with enough samples for half a second
* of playback between them.
*/
static void adjust_sync(struct MPContext *mpctx, double v_pts, double frame_time)
{
struct MPOpts *opts = mpctx->opts;
if (mpctx->audio_status != STATUS_PLAYING)
return;
double a_pts = written_audio_pts(mpctx) + mpctx->audio_delay - mpctx->delay;
double av_delay = a_pts - v_pts;
double change = av_delay * 0.1;
double max_change = opts->default_max_pts_correction >= 0 ?
opts->default_max_pts_correction : frame_time * 0.1;
if (change < -max_change)
change = -max_change;
else if (change > max_change)
change = max_change;
mpctx->delay += change;
mpctx->total_avsync_change += change;
}
// Enough video filtered already to push one frame to the VO?
static bool have_new_frame(struct MPContext *mpctx)
{
bool need_2nd = !!(mpctx->opts->frame_dropping & 1) // we need the duration
&& mpctx->video_pts != MP_NOPTS_VALUE; // ...except for the 1st frame
return mpctx->next_frame[0] && (!need_2nd || mpctx->next_frame[1]);
}
image_t *
get_next_frame (bool_t store_wfa, int enlarge_factor,
int smoothing, const char *reference_frame,
format_e format, video_t *video, dectimer_t *timer,
wfa_t *orig_wfa, bitfile_t *input)
/*
* Get next frame of the WFA 'video' from stream 'input'.
* 'orig_wfa' is the constant part of the WFA used by all frames.
* Depending on values of 'enlarge_factor' and 'smoothing' enlarge and
* smooth image, respectively.
* If 'store_wfa' is TRUE, then store WFA structure of reference frames
* (used by analysis tool xwfa).
* If 'reference_frame' is not NULL, then load image 'reference_frame'
* from disk.
* 'format' gives the color format to be used (either 4:2:0 or 4:4:4).
* If 'timer' is not NULL, then accumulate running time statistics.
*
* Return value:
* pointer to decoded frame
*
* Side effects:
* 'video' and 'timer' struct are modified.
*/
{
image_t *frame = NULL; /* current frame */
image_t *sframe = NULL; /* current smoothed frame */
bool_t current_frame_is_future_frame = NO;
if (video->future_display == video->display)
{
/*
* Future frame is already computed since it has been used
* as reference frame. So just return the stored frame.
*/
if (video->frame) /* discard current frame */
free_image (video->frame);
video->frame = video->future;
video->future = NULL;
if (video->sframe) /* discard current (smoothed) frame */
free_image (video->sframe);
video->sframe = video->sfuture;
video->sfuture = NULL;
if (store_wfa)
copy_wfa (video->wfa, video->wfa_future);
video->display++;
if (!store_wfa)
video->wfa = NULL;
}
else
{
do /* compute next frame(s) */
{
unsigned frame_number; /* current frame number */
clock_t ptimer;
unsigned int stop_timer [3];
wfa_t *tmp_wfa = NULL;
if (!store_wfa)
video->wfa = orig_wfa;
else
{
tmp_wfa = alloc_wfa (NO);
copy_wfa (tmp_wfa, video->wfa);
copy_wfa (video->wfa, orig_wfa);
}
/*
* First step: read WFA from disk
*/
prg_timer (&ptimer, START);
frame_number = read_next_wfa (video->wfa, input);
stop_timer [0] = prg_timer (&ptimer, STOP);
if (timer)
{
timer->input [video->wfa->frame_type] += stop_timer [0];
timer->frames [video->wfa->frame_type]++;
}
/*
* Read reference frame from disk if required
* (i.e., 1st frame is of type B or P)
*/
if (video->display == 0 && video->wfa->frame_type != I_FRAME)
{
if (!reference_frame)
error ("First frame is %c-frame but no "
"reference frame is given.",
video->wfa->frame_type == B_FRAME ? 'B' : 'P');
video->frame = read_image_file (reference_frame);
video->sframe = NULL;
}
/*
* Depending on current frame type update past and future frames
*/
if (video->wfa->frame_type == I_FRAME)
{
if (video->past) /* discard past frame */
free_image (video->past);
video->past = NULL;
if (video->future) /* discard future frame */
free_image (video->future);
video->future = NULL;
if (video->sfuture) /* discard (smoothed) future frame */
free_image (video->sfuture);
video->sfuture = NULL;
if (video->frame) /* discard current frame */
free_image (video->frame);
video->frame = NULL;
if (video->sframe) /* discard current (smoothed) frame */
free_image (video->sframe);
video->sframe = NULL;
}
else if (video->wfa->frame_type == P_FRAME)
{
if (video->past) /* discard past frame */
free_image (video->past);
video->past = video->frame; /* past <- current frame */
video->frame = NULL;
if (video->sframe) /* discard current (smoothed) frame */
free_image (video->sframe);
video->sframe = NULL;
if (store_wfa)
copy_wfa (video->wfa_past, tmp_wfa);
if (video->future) /* discard future frame */
free_image (video->future);
video->future = NULL;
if (video->sfuture) /* discard (smoothed) future frame */
free_image (video->sfuture);
video->sfuture = NULL;
}
else /* B_FRAME */
{
if (current_frame_is_future_frame)
{
if (video->future) /* discard future frame */
free_image (video->future);
video->future = frame; /* future <- current frame */
if (video->sfuture) /* discard (smoothed) future frame */
free_image (video->sfuture);
video->sfuture = sframe; /* future <- current (smoothed) */
if (store_wfa)
copy_wfa (video->wfa_future, tmp_wfa);
if (video->frame) /* discard current frame */
free_image (video->frame);
video->frame = NULL;
if (video->sframe) /* discard current (smoothed) frame */
free_image (video->sframe);
video->sframe = NULL;
frame = NULL;
sframe = NULL;
}
else
{
if (video->wfa->wfainfo->B_as_past_ref == YES)
{
if (video->past) /* discard past frame */
free_image (video->past);
video->past = video->frame; /* past <- current frame */
video->frame = NULL;
if (video->sframe) /* discard current (smoothed) frame */
free_image (video->sframe);
video->sframe = NULL;
if (store_wfa)
copy_wfa (video->wfa_past, tmp_wfa);
}
else
{
if (video->frame) /* discard current */
free_image (video->frame);
video->frame = NULL;
if (video->sframe) /* discard current (smoothed) frame */
free_image (video->sframe);
video->sframe = NULL;
}
}
}
if (tmp_wfa)
free_wfa (tmp_wfa);
current_frame_is_future_frame = NO;
/*
* Second step: decode image
* Optionally enlarge image if specified by option 'enlarge_factor'.
*/
{
unsigned orig_width, orig_height;
stop_timer [0] = stop_timer [1] = stop_timer [2] = 0;
enlarge_image (enlarge_factor, format,
(video->wfa->wfainfo->color
&& format == FORMAT_4_2_0)
? video->wfa->tree [video->wfa->tree [video->wfa->root_state][0]][0] : -1, video->wfa);
if (enlarge_factor > 0)
{
orig_width = video->wfa->wfainfo->width << enlarge_factor;
orig_height = video->wfa->wfainfo->height << enlarge_factor;
}
else
{
orig_width = video->wfa->wfainfo->width >> - enlarge_factor;
orig_height = video->wfa->wfainfo->height >> - enlarge_factor;
if (orig_width & 1)
orig_width++;
if (orig_height & 1)
orig_height++;
}
frame = decode_image (orig_width, orig_height, format,
timer != NULL ? stop_timer : NULL,
video->wfa);
if (timer)
{
timer->preprocessing [video->wfa->frame_type] += stop_timer [0];
timer->decoder [video->wfa->frame_type] += stop_timer [1];
timer->cleanup [video->wfa->frame_type] += stop_timer [2];
}
}
/*
* Third step: restore motion compensation
*/
if (video->wfa->frame_type != I_FRAME)
{
prg_timer (&ptimer, START);
restore_mc (enlarge_factor, frame, video->past, video->future,
video->wfa);
stop_timer [0] = prg_timer (&ptimer, STOP);
if (timer)
timer->motion [video->wfa->frame_type] += stop_timer [0];
}
/*
* Fourth step: smooth image along partitioning borders
*/
prg_timer (&ptimer, START);
if (smoothing < 0) /* smoothing not changed by user */
smoothing = video->wfa->wfainfo->smoothing;
if (smoothing > 0 && smoothing <= 100)
{
sframe = clone_image (frame);
smooth_image (smoothing, video->wfa, sframe);
}
else
sframe = NULL;
stop_timer [0] = prg_timer (&ptimer, STOP);
if (timer)
timer->smooth [video->wfa->frame_type] += stop_timer [0];
if (frame_number == video->display)
{
video->display++;
video->frame = frame;
video->sframe = sframe;
frame = NULL;
sframe = NULL;
}
else if (frame_number > video->display)
{
video->future_display = frame_number;
current_frame_is_future_frame = YES;
}
if (!store_wfa)
remove_states (video->wfa->basis_states, video->wfa);
} while (!video->frame);
if (!store_wfa)
video->wfa = NULL;
}
return video->sframe ? video->sframe : video->frame;
}
static void Curl_EndDownload(downloadinfo *di, CurlStatus status, CURLcode error, const char *content_type_)
{
char content_type[64];
qboolean ok = false;
if(!curl_dll)
return;
switch(status)
{
case CURL_DOWNLOAD_SUCCESS:
ok = true;
di->callback(CURLCBSTATUS_OK, di->bytes_received, di->buffer, di->callback_data);
break;
case CURL_DOWNLOAD_FAILED:
di->callback(CURLCBSTATUS_FAILED, di->bytes_received, di->buffer, di->callback_data);
break;
case CURL_DOWNLOAD_ABORTED:
di->callback(CURLCBSTATUS_ABORTED, di->bytes_received, di->buffer, di->callback_data);
break;
case CURL_DOWNLOAD_SERVERERROR:
// reopen to enforce it to have zero bytes again
if(di->stream)
{
FS_Close(di->stream);
di->stream = FS_OpenRealFile(di->filename, "wb", false);
}
if(di->callback)
di->callback(error ? (int) error : CURLCBSTATUS_SERVERERROR, di->bytes_received, di->buffer, di->callback_data);
break;
default:
if(di->callback)
di->callback(CURLCBSTATUS_UNKNOWN, di->bytes_received, di->buffer, di->callback_data);
break;
}
if(content_type_)
strlcpy(content_type, content_type_, sizeof(content_type));
else
*content_type = 0;
if(di->curle)
{
qcurl_multi_remove_handle(curlm, di->curle);
qcurl_easy_cleanup(di->curle);
if(di->slist)
qcurl_slist_free_all(di->slist);
}
if(!di->callback && ok && !di->bytes_received)
{
Con_Printf("ERROR: empty file\n");
ok = false;
}
if(di->stream)
FS_Close(di->stream);
#define CLEAR_AND_RETRY() \
do \
{ \
di->stream = FS_OpenRealFile(di->filename, "wb", false); \
FS_Close(di->stream); \
if(di->startpos && !di->callback) \
{ \
Curl_Begin(di->url, di->extraheaders, di->maxspeed, di->filename, di->loadtype, di->forthismap, di->post_content_type, di->postbuf, di->postbufsize, NULL, 0, NULL, NULL); \
di->forthismap = false; \
} \
} \
while(0)
if(ok && di->loadtype == LOADTYPE_PAK)
{
ok = FS_AddPack(di->filename, NULL, true);
if(!ok)
CLEAR_AND_RETRY();
}
else if(ok && di->loadtype == LOADTYPE_CACHEPIC)
{
const char *p;
unsigned char *pixels = NULL;
p = di->filename;
#ifdef WE_ARE_EVIL
if(!strncmp(p, "dlcache/", 8))
p += 8;
#endif
pixels = decode_image(di, content_type);
if(pixels)
Draw_NewPic(p, image_width, image_height, true, pixels);
else
CLEAR_AND_RETRY();
}
else if(ok && di->loadtype == LOADTYPE_SKINFRAME)
{
const char *p;
unsigned char *pixels = NULL;
p = di->filename;
#ifdef WE_ARE_EVIL
if(!strncmp(p, "dlcache/", 8))
p += 8;
#endif
pixels = decode_image(di, content_type);
if(pixels)
R_SkinFrame_LoadInternalBGRA(p, TEXF_FORCE_RELOAD | TEXF_MIPMAP | TEXF_ALPHA, pixels, image_width, image_height, false); // TODO what sRGB argument to put here?
else
CLEAR_AND_RETRY();
}
if(di->prev)
di->prev->next = di->next;
else
downloads = di->next;
if(di->next)
di->next->prev = di->prev;
--numdownloads;
if(di->forthismap)
{
if(ok)
++numdownloads_success;
else
++numdownloads_fail;
}
Z_Free(di);
}
esp_err_t pretty_effect_init()
{
return decode_image(&pixels);
}
