void update_state_info()
{
TCHAR wstate[1024];
Double FPS;
u32 time, m, s;
if (!show_status) return;
if (last_state_time) {
if (GetTickCount() > last_state_time + 200) {
last_state_time = 0;
reset_status = 1;
}
else return;
}
if (!term) return;
if (!is_connected && reset_status) {
SendMessage(g_hwnd_status, WM_SETTEXT, 0, (LPARAM) TEXT("Ready") );
reset_status = 0;
return;
}
FPS = gf_term_get_framerate(term, 0);
time = gf_term_get_time_in_ms(term) / 1000;
m = time/60;
s = time - m*60;
if (view_cpu) {
GF_SystemRTInfo rti;
if (!gf_sys_get_rti(STATE_TIMER_DUR, &rti, 0)) return;
wsprintf(wstate, TEXT("T %02d:%02d : FPS %02.2f : CPU %02d"), m, s, FPS, rti.total_cpu_usage);
} else {
wsprintf(wstate, TEXT("T %02d:%02d : FPS %02.2f"), m, s, FPS);
}
SendMessage(g_hwnd_status, WM_SETTEXT, 0, (LPARAM) wstate);
}
static GF_Err HEVC_AttachStream(GF_BaseDecoder *ifcg, GF_ESD *esd)
{
GF_SystemRTInfo rti;
const char *sOpt;
u32 nb_threads = 1;
HEVCDec *ctx = (HEVCDec*) ifcg->privateStack;
if (gf_sys_get_rti(0, &rti, 0) ) {
nb_threads = (rti.nb_cores>1) ? rti.nb_cores-1 : 1;
}
sOpt = gf_modules_get_option((GF_BaseInterface *)ifcg, "OpenHEVC", "NumThreads");
if (!sOpt) {
char szO[100];
sprintf(szO, "%d", nb_threads);
gf_modules_set_option((GF_BaseInterface *)ifcg, "OpenHEVC", "NumThreads", szO);
ctx->nb_threads = nb_threads;
GF_LOG(GF_LOG_INFO, GF_LOG_CODEC, ("[OpenHEVC] Initializing with %d threads\n", ctx->nb_threads));
} else {
ctx->nb_threads = atoi(sOpt);
if (ctx->nb_threads > nb_threads) {
GF_LOG(GF_LOG_WARNING, GF_LOG_CODEC, ("[OpenHEVC] Initializing with %d threads but only %d available cores detected on the system\n", ctx->nb_threads, rti.nb_cores));
}
}
sOpt = gf_modules_get_option((GF_BaseInterface *)ifcg, "OpenHEVC", "ThreadingType");
if (sOpt && !strcmp(sOpt, "wpp")) ctx->threading_type = 2;
else if (sOpt && !strcmp(sOpt, "frame+wpp")) ctx->threading_type = 4;
else {
ctx->threading_type = 1;
if (!sOpt) gf_modules_set_option((GF_BaseInterface *)ifcg, "OpenHEVC", "ThreadingType", "frame");
}
sOpt = gf_modules_get_option((GF_BaseInterface *)ifcg, "Systems", "Output8bit");
if (!sOpt) gf_modules_set_option((GF_BaseInterface *)ifcg, "Systems", "Output8bit", (ctx->display_bpp>8) ? "no" : "yes");
if (sOpt && !strcmp(sOpt, "yes")) ctx->output_as_8bit = GF_TRUE;
sOpt = gf_modules_get_option((GF_BaseInterface *)ifcg, "OpenHEVC", "CBUnits");
if (!sOpt) gf_modules_set_option((GF_BaseInterface *)ifcg, "OpenHEVC", "CBUnits", "4");
if (sOpt) ctx->output_cb_size = atoi(sOpt);
if (!ctx->output_cb_size) ctx->output_cb_size = 4;
sOpt = gf_modules_get_option((GF_BaseInterface *)ifcg, "OpenHEVC", "PackHFR");
if (sOpt && !strcmp(sOpt, "yes") ) ctx->pack_mode = GF_TRUE;
else if (!sOpt) gf_modules_set_option((GF_BaseInterface *)ifcg, "OpenHEVC", "PackHFR", "no");
if (!ctx->raw_out) {
sOpt = gf_modules_get_option((GF_BaseInterface *)ifcg, "OpenHEVC", "InputRipFile");
if (sOpt) ctx->raw_out = fopen(sOpt, "wb");
}
/*RTP case: configure enhancement now*/
if (esd->dependsOnESID) {
HEVC_ConfigurationScalableStream(ctx, esd);
return GF_OK;
}
ctx->esd = esd;
return HEVC_ConfigureStream(ctx, esd);
}
TInt COsmo4AppView::OnTick()
{
#ifndef GPAC_GUI_ONLY
if (m_term) gf_term_process_step(m_term);
/*check RTI display*/
if (show_rti && gf_sys_get_rti(500, &m_rti, 0)) DisplayRTI();
#endif
/*never stop...*/
return 1;
}
static Bool osd_process(GF_TermExt *termext, u32 action, void *param)
{
const char *opt;
GF_OSD *osd = termext->udta;
switch (action) {
case GF_TERM_EXT_START:
osd->term = (GF_Terminal *) param;
opt = gf_modules_get_option((GF_BaseInterface*)termext, "OSD", "Enabled");
if (opt && strcmp(opt, "yes")) return 0;
/*load scene*/
if (! osd_load_scene(osd)) return 0;
/*attach scene to compositor*/
gf_sc_register_extra_graph(osd->term->compositor, osd->odm->subscene->graph, 0);
/*we are not threaded*/
termext->caps |= GF_TERM_EXTENSION_NOT_THREADED;
osd->refresh_time_ms = 500;
osd->evt_filter.on_event = osd_on_event_play;
osd->evt_filter.udta = osd;
gf_term_add_event_filter(osd->term, &osd->evt_filter);
return 1;
case GF_TERM_EXT_STOP:
osd->text->string.vals[0] = NULL;
/*remove scene to compositor*/
gf_sc_register_extra_graph(osd->term->compositor, osd->odm->subscene->graph, 1);
gf_odm_disconnect(osd->odm, 1);
osd->odm = NULL;
gf_term_remove_event_filter(osd->term, &osd->evt_filter);
osd->term = NULL;
break;
case GF_TERM_EXT_PROCESS:
/*flush all events until current time if reached*/
if ((osd->visible->whichChoice==0) && gf_sys_get_rti(osd->refresh_time_ms, &osd->rti, 0)) {
sprintf(osd->statBuffer, "CPU %02d - FPS %02.2f - MEM "LLU" KB", osd->rti.process_cpu_usage, gf_sc_get_fps(osd->term->compositor, 0), osd->rti.process_memory/1000);
gf_node_dirty_set((GF_Node *) osd->text, GF_SG_NODE_DIRTY, 1);
}
break;
}
return 0;
}
static void on_gpac_rti_log(void *cbk, u32 ll, u32 lm, const char *fmt, va_list list)
{
if (!log_file) return;
if (lm & GF_LOG_RTI) {
GF_SystemRTInfo rti;
if (fmt) vfprintf(log_file, fmt, list);
gf_sys_get_rti(rti_update_time_ms, &rti, 0);
fprintf(log_file, "% 8d\t% 8d\t% 8d\t% 4d\t% 8d\t\t",
gf_sys_clock(),
gf_term_get_time_in_ms(term),
rti.total_cpu_usage,
(u32) gf_term_get_framerate(term, 0),
(u32) ( rti.gpac_memory / 1024)
);
} else if (fmt && (ll>=GF_LOG_INFO)) {
vfprintf(log_file, fmt, list);
}
}
void evaluate_term_cap(GF_Node *node, GF_Route *route)
{
GF_SystemRTInfo rti;
Double fps;
u32 height;
Bool b_on;
u32 b_charge, b_level;
M_TermCap *tc = (M_TermCap *)node;
GF_Scene *scene = gf_node_get_private(node);
tc->value = 0;
switch (tc->capability) {
case 0: /*framerate*/
fps = gf_sc_get_fps(scene->root_od->term->compositor, 1);
if (fps<=5.0) tc->value = 1;
else if (fps<=10.0) tc->value = 2;
else if (fps<=20.0) tc->value = 3;
else if (fps<=40.0) tc->value = 4;
else tc->value = 5;
break;
case 1: /*colordepth*/
return;
case 2: /*screensize*/
height = scene->root_od->term->compositor->display_height;
if (height<200) tc->value = 1;
else if (height<400) tc->value = 2;
else if (height<800) tc->value = 3;
else if (height<1600) tc->value = 4;
else tc->value = 4;
break;
case 3: /*graphics hardware*/
return;
case 32:/*audio out format*/
return;
case 33:/*audio out format*/
return;
case 34:/*spatial audio cap*/
return;
case 64:/*CPU load*/
if (!gf_sys_get_rti(200, &rti, 0) ) return;
if (rti.total_cpu_usage<20) tc->value = 1;
else if (rti.total_cpu_usage<40) tc->value = 2;
else if (rti.total_cpu_usage<60) tc->value = 3;
else if (rti.total_cpu_usage<80) tc->value = 4;
else tc->value = 5;
break;
case 65:/*mem load*/
if (!gf_sys_get_rti(200, &rti, GF_RTI_SYSTEM_MEMORY_ONLY) ) return;
rti.physical_memory_avail /= 1024;
if (rti.physical_memory_avail < 100) tc->value = 1;
else if (rti.physical_memory_avail < 512) tc->value = 2;
else if (rti.physical_memory_avail < 2048) tc->value = 3;
else if (rti.physical_memory_avail < 8192) tc->value = 4;
else if (rti.physical_memory_avail < 32768) tc->value = 5;
else if (rti.physical_memory_avail < 204800) tc->value = 6;
else tc->value = 7;
break;
/*GPAC extensions*/
case 100: /*display width*/
tc->value = scene->root_od->term->compositor->display_width;
break;
case 101: /*display height*/
tc->value = scene->root_od->term->compositor->display_height;
break;
case 102: /*frame rate*/
tc->value = (u32) gf_sc_get_fps(scene->root_od->term->compositor, 1);
break;
case 103: /*total CPU*/
if (!gf_sys_get_rti(200, &rti, 0) ) return;
tc->value = rti.total_cpu_usage;
break;
case 104: /*process CPU*/
if (!gf_sys_get_rti(200, &rti, 0) ) return;
tc->value = rti.process_cpu_usage;
break;
case 106: /*total memory in kB*/
if (!gf_sys_get_rti(200, &rti, GF_RTI_SYSTEM_MEMORY_ONLY) ) return;
tc->value = (u32) (rti.physical_memory/1024);
break;
case 107: /*total memory available in kB*/
if (!gf_sys_get_rti(200, &rti, GF_RTI_SYSTEM_MEMORY_ONLY) ) return;
tc->value = (u32) (rti.physical_memory_avail/1024);
break;
case 108: /*process memory in kB*/
if (!gf_sys_get_rti(200, &rti, 0) ) return;
tc->value = (u32) (rti.process_memory/1024);
break;
case 109: /*battery on/off*/
gf_sys_get_battery_state(&b_on, &b_charge, &b_level, NULL, NULL);
tc->value = b_on;
break;
case 110: /*battery charging*/
gf_sys_get_battery_state(&b_on, &b_charge, &b_level, NULL, NULL);
tc->value = b_charge;
break;
case 111: /*battery level*/
gf_sys_get_battery_state(&b_on, &b_charge, &b_level, NULL, NULL);
tc->value = b_level;
break;
case 112: /*audio vol*/
tc->value = gf_sc_get_option(scene->root_od->term->compositor, GF_OPT_AUDIO_VOLUME);
break;
case 113: /*audio pan*/
tc->value = gf_sc_get_option(scene->root_od->term->compositor, GF_OPT_AUDIO_PAN);
break;
default:
return;
}
gf_node_event_out(node, 2);
}
void gf_sr_simulation_tick(GF_Renderer *sr)
{
u32 in_time, end_time, i, count;
/*lock renderer for the whole render cycle*/
gf_sr_lock(sr, 1);
/*first thing to do, let the video output handle user event if it is not threaded*/
sr->video_out->ProcessEvent(sr->video_out, NULL);
if (sr->freeze_display) {
gf_sr_lock(sr, 0);
gf_sleep(sr->frame_duration);
return;
}
gf_sr_reconfig_task(sr);
/* if there is no scene, we draw a black screen to flush the screen */
if (!sr->scene) {
sr->visual_renderer->DrawScene(sr->visual_renderer);
gf_sr_lock(sr, 0);
gf_sleep(sr->frame_duration);
return;
}
// GF_LOG(GF_LOG_DEBUG, GF_LOG_COMPOSE, ("[General] Time %f - Composing new frame #%d\n", gf_node_get_scene_time(gf_sg_get_root_node(sr->scene)), sr->frame_number));
in_time = gf_sys_clock();
if (sr->reset_graphics) sr->draw_next_frame = 1;
#ifdef GF_SR_EVENT_QUEUE
/*process pending user events*/
gf_mx_p(sr->ev_mx);
while (gf_list_count(sr->events)) {
GF_Event *ev = (GF_Event*)gf_list_get(sr->events, 0);
gf_list_rem(sr->events, 0);
if (!sr->visual_renderer->ExecuteEvent(sr->visual_renderer, ev)) {
SR_ForwardUserEvent(sr, ev);
}
free(ev);
}
gf_mx_v(sr->ev_mx);
#endif
#if 0
if (sr->frame_number == 0 && sr->user->EventProc) {
GF_Event evt;
evt.type = GF_EVENT_UPDATE_RTI;
evt.caption.caption = "UPDATE - Before first call to draw scene";
sr->user->EventProc(sr->user->opaque, &evt);
}
#endif
/*execute all routes before updating textures, otherwise nodes inside composite texture may never see their
dirty flag set*/
gf_sg_activate_routes(sr->scene);
#ifndef GPAC_DISABLE_SVG
#if SVG_FIXME
{ /* Experimental (Not SVG compliant system events (i.e. battery, cpu ...) triggered to the root node)*/
GF_Node *root = gf_sg_get_root_node(sr->scene);
GF_DOM_Event evt;
if (gf_dom_listener_count(root)) {
u32 i, count;
count = gf_dom_listener_count(root);
for (i=0;i<count; i++) {
SVG_SA_listenerElement *l = gf_dom_listener_get(root, i);
if (l->event.type == GF_EVENT_CPU) {
GF_SystemRTInfo sys_rti;
if (gf_sys_get_rti(500, &sys_rti, GF_RTI_ALL_PROCESSES_TIMES)) {
evt.type = GF_EVENT_CPU;
evt.cpu_percentage = sys_rti.total_cpu_usage;
//printf("%d\n",sys_rti.total_cpu_usage);
gf_dom_event_fire(root, NULL, &evt);
}
} else if (l->event.type == GF_EVENT_BATTERY) { //&& l->observer.target == (SVG_SA_Element *)node) {
evt.type = GF_EVENT_BATTERY;
gf_sys_get_battery_state(&evt.onBattery, &evt.batteryState, &evt.batteryLevel);
gf_dom_event_fire(root, NULL, &evt);
}
}
}
}
#endif
if (gf_smil_notify_timed_elements(sr->scene)) {
sr->draw_next_frame = 1;
}
#if 0
for (i=0; i<gf_list_count(sr->secondary_scenes); i++) {
if (gf_smil_notify_timed_elements(gf_list_get(sr->secondary_scenes, i))) {
sr->draw_next_frame = 1;
}
}
#endif
#endif
/*update all textures*/
count = gf_list_count(sr->textures);
for (i=0; i<count; i++) {
GF_TextureHandler *st = (GF_TextureHandler *)gf_list_get(sr->textures, i);
/*signal graphics reset before updating*/
if (sr->reset_graphics && st->hwtx) sr->visual_renderer->TextureHWReset(st);
st->update_texture_fcnt(st);
}
/*if invalidated, draw*/
if (sr->draw_next_frame) {
/*video flush only*/
if (sr->draw_next_frame==2) {
GF_Window rc;
rc.x = rc.y = 0;
rc.w = sr->width;
rc.h = sr->height;
sr->draw_next_frame = 0;
sr->video_out->Flush(sr->video_out, &rc);
} else {
sr->draw_next_frame = 0;
GF_LOG(GF_LOG_DEBUG, GF_LOG_RENDER, ("[Render] Redrawing scene\n"));
sr->visual_renderer->DrawScene(sr->visual_renderer);
#if 0
if (sr->frame_number == 0 && sr->user->EventProc) {
GF_Event evt;
evt.type = GF_EVENT_UPDATE_RTI;
evt.caption.caption = "Before first call to draw scene";
sr->user->EventProc(sr->user->opaque, &evt);
}
#endif
}
sr->reset_graphics = 0;
GF_LOG(GF_LOG_INFO, GF_LOG_RENDER, ("[Render] Scene drawn in %d ms\n", gf_sys_clock() - in_time));
if (sr->stress_mode) {
sr->draw_next_frame = 1;
sr->reset_graphics = 1;
}
}
/*release all textures - we must release them to handle a same OD being used by several textures*/
count = gf_list_count(sr->textures);
for (i=0; i<count; i++) {
GF_TextureHandler *st = (GF_TextureHandler *)gf_list_get(sr->textures, i);
gf_sr_texture_release_stream(st);
}
/*update all timed nodes */
for (i=0; i<gf_list_count(sr->time_nodes); i++) {
GF_TimeNode *tn = (GF_TimeNode *)gf_list_get(sr->time_nodes, i);
if (!tn->needs_unregister) tn->UpdateTimeNode(tn);
if (tn->needs_unregister) {
tn->is_registered = 0;
tn->needs_unregister = 0;
gf_list_rem(sr->time_nodes, i);
i--;
continue;
}
}
end_time = gf_sys_clock() - in_time;
gf_sr_lock(sr, 0);
sr->current_frame = (sr->current_frame+1) % GF_SR_FPS_COMPUTE_SIZE;
sr->frame_time[sr->current_frame] = end_time;
sr->frame_number++;
#if 0
if (sr->user->EventProc) {
char legend[100];
GF_Event evt;
evt.type = GF_EVENT_UPDATE_RTI;
sprintf(legend, "After rendering of frame %d", sr->frame_number);
evt.caption.caption = legend;
sr->user->EventProc(sr->user->opaque, &evt);
}
#endif
/*step mode on, pause and return*/
if (sr->step_mode) {
sr->step_mode = 0;
if (sr->term) gf_term_set_option(sr->term, GF_OPT_PLAY_STATE, GF_STATE_PAUSED);
return;
}
/*not threaded, let the owner decide*/
if ((sr->user->init_flags & GF_TERM_NO_VISUAL_THREAD) || !sr->frame_duration) return;
/*compute sleep time till next frame, otherwise we'll kill the CPU*/
i=1;
while (i * sr->frame_duration < end_time) i++;
in_time = i * sr->frame_duration - end_time;
gf_sleep(in_time);
}