// Move the frame in next_frame[1] to next_frame[0]. This makes the frame
// "known" to the playback logic. A frame in next_frame[0] is either "known" or
// NULL, so the moving must always be done by this function.
static void shift_new_frame(struct MPContext *mpctx)
{
if (mpctx->next_frame[0] || !mpctx->next_frame[1])
return;
mpctx->next_frame[0] = mpctx->next_frame[1];
mpctx->next_frame[1] = NULL;
double frame_time = 0;
double pts = mpctx->next_frame[0]->pts;
if (mpctx->video_pts != MP_NOPTS_VALUE) {
frame_time = pts - mpctx->video_pts;
double tolerance = 15;
if (mpctx->demuxer->ts_resets_possible) {
// Fortunately no real framerate is likely to go below this. It
// still could be that the file is VFR, but the demuxer reports a
// higher rate, so account for the case of e.g. 60hz demuxer fps
// but 23hz actual fps.
double fps = 23.976;
if (mpctx->d_video->fps > 0 && mpctx->d_video->fps < fps)
fps = mpctx->d_video->fps;
tolerance = 3 * 1.0 / fps;
}
if (frame_time <= 0 || frame_time >= tolerance) {
// Assume a discontinuity.
MP_WARN(mpctx, "Invalid video timestamp: %f -> %f\n",
mpctx->video_pts, pts);
frame_time = 0;
mpctx->audio_status = STATUS_SYNCING;
}
}
mpctx->video_next_pts = pts;
mpctx->delay -= frame_time;
if (mpctx->video_status >= STATUS_PLAYING) {
mpctx->time_frame += frame_time / mpctx->opts->playback_speed;
adjust_sync(mpctx, pts, frame_time);
}
mpctx->dropped_frames = 0;
MP_TRACE(mpctx, "frametime=%5.3f\n", frame_time);
}
// Fill mpctx->next_frame[] with a newly filtered or decoded image.
// returns VD_* code
static int video_output_image(struct MPContext *mpctx, double endpts)
{
bool hrseek = mpctx->hrseek_active && mpctx->video_status == STATUS_SYNCING;
if (mpctx->d_video->header->attached_picture) {
if (vo_has_frame(mpctx->video_out))
return VD_EOF;
if (mpctx->next_frame[0])
return VD_NEW_FRAME;
int r = video_decode_and_filter(mpctx);
video_filter(mpctx, true); // force EOF filtering (avoid decoding more)
mpctx->next_frame[0] = vf_read_output_frame(mpctx->d_video->vfilter);
if (mpctx->next_frame[0])
mpctx->next_frame[0]->pts = MP_NOPTS_VALUE;
return r <= 0 ? VD_EOF : VD_PROGRESS;
}
if (have_new_frame(mpctx))
return VD_NEW_FRAME;
if (!mpctx->next_frame[0] && mpctx->next_frame[1]) {
mpctx->next_frame[0] = mpctx->next_frame[1];
mpctx->next_frame[1] = NULL;
double pts = mpctx->next_frame[0]->pts;
double last_pts = mpctx->video_pts;
if (last_pts == MP_NOPTS_VALUE)
last_pts = pts;
double frame_time = pts - last_pts;
if (frame_time < 0 || frame_time >= 60) {
// Assume a PTS difference >= 60 seconds is a discontinuity.
MP_WARN(mpctx, "Jump in video pts: %f -> %f\n", last_pts, pts);
frame_time = 0;
}
mpctx->video_next_pts = pts;
if (mpctx->d_audio)
mpctx->delay -= frame_time;
if (mpctx->video_status >= STATUS_READY) {
mpctx->time_frame += frame_time / mpctx->opts->playback_speed;
adjust_sync(mpctx, pts, frame_time);
}
mpctx->dropped_frames = 0;
MP_TRACE(mpctx, "frametime=%5.3f\n", frame_time);
}
if (have_new_frame(mpctx))
return VD_NEW_FRAME;
// Get a new frame if we need one.
int r = VD_PROGRESS;
if (!mpctx->next_frame[1]) {
// Filter a new frame.
r = video_decode_and_filter(mpctx);
if (r < 0)
return r; // error
struct mp_image *img = vf_read_output_frame(mpctx->d_video->vfilter);
if (img) {
// Always add these; they make backstepping after seeking faster.
add_frame_pts(mpctx, img->pts);
bool drop = false;
if ((endpts != MP_NOPTS_VALUE && img->pts >= endpts) ||
mpctx->max_frames == 0)
{
drop = true;
r = VD_EOF;
}
if (!drop && hrseek && mpctx->hrseek_lastframe) {
mp_image_setrefp(&mpctx->saved_frame, img);
drop = true;
}
if (hrseek && img->pts < mpctx->hrseek_pts - .005)
drop = true;
if (drop) {
talloc_free(img);
} else {
mpctx->next_frame[1] = img;
}
}
}
// On EOF, always allow the playloop to use the remaining frame.
if (have_new_frame(mpctx) || (r <= 0 && mpctx->next_frame[0]))
return VD_NEW_FRAME;
// Last-frame seek
if (r <= 0 && hrseek && mpctx->hrseek_lastframe && mpctx->saved_frame) {
mpctx->next_frame[1] = mpctx->saved_frame;
mpctx->saved_frame = NULL;
return VD_PROGRESS;
}
return r;
}
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 (!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;
MP_VERBOSE(d_video, "Container reported FPS: %f\n", sh->video->fps);
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");
}
#if HAVE_ENCODING
if (mpctx->encode_lavc_ctx && d_video)
encode_lavc_set_video_fps(mpctx->encode_lavc_ctx, d_video->fps);
#endif
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,
MPSEEK_VERY_EXACT, 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 d_video->waiting_decoded_mpi ? VD_EOF : VD_PROGRESS;
}
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->dts != MP_NOPTS_VALUE)
pkt->dts += 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->opts->frame_dropping & 2))
{
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) + opts->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;
}
// Move the frame in next_frame[1] to next_frame[0]. This makes the frame
// "known" to the playback logic. A frame in next_frame[0] is either "known" or
// NULL, so the moving must always be done by this function.
static void shift_new_frame(struct MPContext *mpctx)
{
if (mpctx->next_frame[0] || !mpctx->next_frame[1])
return;
mpctx->next_frame[0] = mpctx->next_frame[1];
mpctx->next_frame[1] = NULL;
double frame_time = 0;
double pts = mpctx->next_frame[0]->pts;
if (mpctx->video_pts != MP_NOPTS_VALUE) {
frame_time = pts - mpctx->video_pts;
double tolerance = 15;
if (mpctx->demuxer->ts_resets_possible) {
// Fortunately no real framerate is likely to go below this. It
// still could be that the file is VFR, but the demuxer reports a
// higher rate, so account for the case of e.g. 60hz demuxer fps
// but 23hz actual fps.
double fps = 23.976;
if (mpctx->d_video->fps > 0 && mpctx->d_video->fps < fps)
fps = mpctx->d_video->fps;
tolerance = 3 * 1.0 / fps;
}
if (frame_time <= 0 || frame_time >= tolerance) {
// Assume a discontinuity.
MP_WARN(mpctx, "Invalid video timestamp: %f -> %f\n",
mpctx->video_pts, pts);
frame_time = 0;
mpctx->audio_status = STATUS_SYNCING;
}
}
mpctx->video_next_pts = pts;
mpctx->delay -= frame_time;
if (mpctx->video_status >= STATUS_PLAYING) {
mpctx->time_frame += frame_time / mpctx->opts->playback_speed;
adjust_sync(mpctx, pts, frame_time);
}
mpctx->dropped_frames = 0;
MP_TRACE(mpctx, "frametime=%5.3f\n", frame_time);
}
// Whether it's fine to call add_new_frame() now.
static bool needs_new_frame(struct MPContext *mpctx)
{
return !mpctx->next_frame[1];
}
// Queue a frame to mpctx->next_frame[]. Call only if needs_new_frame() signals ok.
static void add_new_frame(struct MPContext *mpctx, struct mp_image *frame)
{
assert(needs_new_frame(mpctx));
assert(frame);
mpctx->next_frame[1] = frame;
shift_new_frame(mpctx);
}
void write_video(struct MPContext *mpctx, double endpts)
{
struct MPOpts *opts = mpctx->opts;
struct vo *vo = mpctx->video_out;
if (!mpctx->d_video)
return;
update_fps(mpctx);
// Whether there's still at least 1 video frame that can be shown.
// If false, it means we can reconfig the VO if needed (normally, this
// would disrupt playback, so only do it on !still_playing).
bool still_playing = vo_has_next_frame(vo, true);
// For the last frame case (frame is being displayed).
still_playing |= mpctx->playing_last_frame;
still_playing |= mpctx->last_frame_duration > 0;
double frame_time = 0;
int r = update_video(mpctx, endpts, !still_playing, &frame_time);
MP_TRACE(mpctx, "update_video: %d (still_playing=%d)\n", r, still_playing);
if (r == VD_WAIT) // Demuxer will wake us up for more packets to decode.
return;
if (r < 0) {
MP_FATAL(mpctx, "Could not initialize video chain.\n");
int uninit = INITIALIZED_VCODEC;
if (!opts->force_vo)
uninit |= INITIALIZED_VO;
uninit_player(mpctx, uninit);
if (!mpctx->current_track[STREAM_AUDIO])
mpctx->stop_play = PT_NEXT_ENTRY;
mpctx->error_playing = true;
handle_force_window(mpctx, true);
return; // restart loop
}
if (r == VD_EOF) {
if (!mpctx->playing_last_frame && mpctx->last_frame_duration > 0) {
mpctx->time_frame += mpctx->last_frame_duration;
mpctx->last_frame_duration = 0;
mpctx->playing_last_frame = true;
MP_VERBOSE(mpctx, "showing last frame\n");
}
}
if (r == VD_NEW_FRAME) {
MP_TRACE(mpctx, "frametime=%5.3f\n", frame_time);
if (mpctx->video_status > STATUS_PLAYING)
mpctx->video_status = STATUS_PLAYING;
if (mpctx->video_status >= STATUS_READY) {
mpctx->time_frame += frame_time / opts->playback_speed;
adjust_sync(mpctx, frame_time);
}
} else if (r == VD_EOF && mpctx->playing_last_frame) {
// Let video timing code continue displaying.
mpctx->video_status = STATUS_DRAINING;
MP_VERBOSE(mpctx, "still showing last frame\n");
} else if (r <= 0) {
// EOF or error
mpctx->delay = 0;
mpctx->last_av_difference = 0;
mpctx->video_status = STATUS_EOF;
MP_VERBOSE(mpctx, "video EOF\n");
return;
} else {
if (mpctx->video_status > STATUS_PLAYING)
mpctx->video_status = STATUS_PLAYING;
// Decode more in next iteration.
mpctx->sleeptime = 0;
MP_TRACE(mpctx, "filtering more video\n");
}
// Actual playback starts when both audio and video are ready.
if (mpctx->video_status == STATUS_READY)
return;
if (mpctx->paused && mpctx->video_status >= STATUS_READY)
return;
mpctx->time_frame -= get_relative_time(mpctx);
double audio_pts = playing_audio_pts(mpctx);
if (!mpctx->sync_audio_to_video || mpctx->video_status < STATUS_READY) {
mpctx->time_frame = 0;
} else if (mpctx->audio_status == STATUS_PLAYING &&
mpctx->video_status == STATUS_PLAYING)
{
double buffered_audio = ao_get_delay(mpctx->ao);
MP_TRACE(mpctx, "audio delay=%f\n", buffered_audio);
if (opts->autosync) {
/* Smooth reported playback position from AO by averaging
* it with the value expected based on previus value and
* time elapsed since then. May help smooth video timing
* with audio output that have inaccurate position reporting.
* This is badly implemented; the behavior of the smoothing
* now undesirably depends on how often this code runs
* (mainly depends on video frame rate). */
float predicted = (mpctx->delay / opts->playback_speed +
mpctx->time_frame);
float difference = buffered_audio - predicted;
buffered_audio = predicted + difference / opts->autosync;
}
mpctx->time_frame = (buffered_audio -
mpctx->delay / opts->playback_speed);
} else {
/* If we're more than 200 ms behind the right playback
* position, don't try to speed up display of following
* frames to catch up; continue with default speed from
* the current frame instead.
* If untimed is set always output frames immediately
* without sleeping.
*/
if (mpctx->time_frame < -0.2 || opts->untimed || vo->untimed)
mpctx->time_frame = 0;
}
double vsleep = mpctx->time_frame - vo->flip_queue_offset;
if (vsleep > 0.050) {
mpctx->sleeptime = MPMIN(mpctx->sleeptime, vsleep - 0.040);
return;
}
mpctx->sleeptime = 0;
mpctx->playing_last_frame = false;
// last frame case
if (r != VD_NEW_FRAME)
return;
//=================== FLIP PAGE (VIDEO BLT): ======================
mpctx->video_pts = mpctx->video_next_pts;
mpctx->last_vo_pts = mpctx->video_pts;
mpctx->playback_pts = mpctx->video_pts;
update_subtitles(mpctx);
update_osd_msg(mpctx);
MP_STATS(mpctx, "vo draw frame");
vo_new_frame_imminent(vo);
MP_STATS(mpctx, "vo sleep");
mpctx->time_frame -= get_relative_time(mpctx);
mpctx->time_frame -= vo->flip_queue_offset;
if (mpctx->time_frame > 0.001)
mpctx->time_frame = timing_sleep(mpctx, mpctx->time_frame);
mpctx->time_frame += vo->flip_queue_offset;
int64_t t2 = mp_time_us();
/* Playing with playback speed it's possible to get pathological
* cases with mpctx->time_frame negative enough to cause an
* overflow in pts_us calculation, thus the MPMAX. */
double time_frame = MPMAX(mpctx->time_frame, -1);
int64_t pts_us = mpctx->last_time + time_frame * 1e6;
int duration = -1;
double pts2 = vo_get_next_pts(vo, 0); // this is the next frame PTS
if (mpctx->video_pts != MP_NOPTS_VALUE && pts2 == MP_NOPTS_VALUE) {
// Make up a frame duration. Using the frame rate is not a good
// choice, since the frame rate could be unset/broken/random.
float fps = mpctx->d_video->fps;
double frame_duration = fps > 0 ? 1.0 / fps : 0;
pts2 = mpctx->video_pts + MPCLAMP(frame_duration, 0.0, 5.0);
}
if (pts2 != MP_NOPTS_VALUE) {
// expected A/V sync correction is ignored
double diff = (pts2 - mpctx->video_pts);
diff /= opts->playback_speed;
if (mpctx->time_frame < 0)
diff += mpctx->time_frame;
if (diff < 0)
diff = 0;
if (diff > 10)
diff = 10;
duration = diff * 1e6;
mpctx->last_frame_duration = diff;
}
if (mpctx->video_status != STATUS_PLAYING)
duration = -1;
MP_STATS(mpctx, "start flip");
vo_flip_page(vo, pts_us | 1, duration);
MP_STATS(mpctx, "end flip");
if (audio_pts != MP_NOPTS_VALUE)
MP_STATS(mpctx, "value %f ptsdiff", mpctx->video_pts - audio_pts);
mpctx->last_vo_flip_duration = (mp_time_us() - t2) * 0.000001;
if (vo->driver->flip_page_timed) {
// No need to adjust sync based on flip speed
mpctx->last_vo_flip_duration = 0;
// For print_status - VO call finishing early is OK for sync
mpctx->time_frame -= get_relative_time(mpctx);
}
mpctx->shown_vframes++;
if (mpctx->video_status < STATUS_PLAYING)
mpctx->video_status = STATUS_READY;
update_avsync(mpctx);
screenshot_flip(mpctx);
mp_notify(mpctx, MPV_EVENT_TICK, NULL);
if (!mpctx->sync_audio_to_video)
mpctx->video_status = STATUS_EOF;
}