2 * Copyright (C) 2006 Edward Hervey <edward@fluendo.com>
3 * Copyright (C) 2007 Jan Schmidt <jan@fluendo.com>
4 * Copyright (C) 2007 Wim Taymans <wim@fluendo.com>
5 * Copyright (C) 2011 Sebastian Dröge <sebastian.droege@collabora.co.uk>
9 * This library is free software; you can redistribute it and/or
10 * modify it under the terms of the GNU Library General Public
11 * License as published by the Free Software Foundation; either
12 * version 2 of the License, or (at your option) any later version.
14 * This library is distributed in the hope that it will be useful,
15 * but WITHOUT ANY WARRANTY; without even the implied warranty of
16 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
17 * Library General Public License for more details.
19 * You should have received a copy of the GNU Library General Public
20 * License along with this library; if not, write to the
21 * Free Software Foundation, Inc., 51 Franklin St, Fifth Floor,
22 * Boston, MA 02110-1301, USA.
26 * SECTION:element-multiqueue
28 * @see_also: #GstQueue
30 * Multiqueue is similar to a normal #GstQueue with the following additional
33 * 1) Multiple streamhandling
35 * * The element handles queueing data on more than one stream at once. To
36 * achieve such a feature it has request sink pads (sink%u) and
37 * 'sometimes' src pads (src%u). When requesting a given sinkpad with gst_element_request_pad(),
38 * the associated srcpad for that stream will be created.
39 * Example: requesting sink1 will generate src1.
41 * 2) Non-starvation on multiple stream
43 * * If more than one stream is used with the element, the streams' queues
44 * will be dynamically grown (up to a limit), in order to ensure that no
45 * stream is risking data starvation. This guarantees that at any given
46 * time there are at least N bytes queued and available for each individual
47 * stream. If an EOS event comes through a srcpad, the associated queue will be
48 * considered as 'not-empty' in the queue-size-growing algorithm.
50 * 3) Non-linked srcpads graceful handling
52 * * In order to better support dynamic switching between streams, the multiqueue
53 * (unlike the current GStreamer queue) continues to push buffers on non-linked
54 * pads rather than shutting down. In addition, to prevent a non-linked stream from very quickly consuming all
55 * available buffers and thus 'racing ahead' of the other streams, the element
56 * must ensure that buffers and inlined events for a non-linked stream are pushed
57 * in the same order as they were received, relative to the other streams
58 * controlled by the element. This means that a buffer cannot be pushed to a
59 * non-linked pad any sooner than buffers in any other stream which were received
62 * Data is queued until one of the limits specified by the
63 * #GstMultiQueue:max-size-buffers, #GstMultiQueue:max-size-bytes and/or
64 * #GstMultiQueue:max-size-time properties has been reached. Any attempt to push
65 * more buffers into the queue will block the pushing thread until more space
66 * becomes available. #GstMultiQueue:extra-size-buffers,
69 * #GstMultiQueue:extra-size-bytes and #GstMultiQueue:extra-size-time are
72 * The default queue size limits are 5 buffers, 10MB of data, or
73 * two second worth of data, whichever is reached first. Note that the number
74 * of buffers will dynamically grow depending on the fill level of
77 * The #GstMultiQueue::underrun signal is emitted when all of the queues
78 * are empty. The #GstMultiQueue::overrun signal is emitted when one of the
80 * Both signals are emitted from the context of the streaming thread.
82 * When using #GstMultiQueue:sync-by-running-time the unlinked streams will
83 * be throttled by the highest running-time of linked streams. This allows
84 * further relinking of those unlinked streams without them being in the
85 * future (i.e. to achieve gapless playback).
86 * When dealing with streams which have got different consumption requirements
87 * downstream (ex: video decoders which will consume more buffer (in time) than
88 * audio decoders), it is recommended to group streams of the same type
89 * by using the pad "group-id" property. This will further throttle streams
90 * in time within that group.
99 #include "gstmultiqueue.h"
100 #include <gst/glib-compat-private.h>
104 * @sinkpad: associated sink #GstPad
105 * @srcpad: associated source #GstPad
107 * Structure containing all information and properties about
110 typedef struct _GstSingleQueue GstSingleQueue;
112 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
122 struct _GstSingleQueue
124 /* unique identifier of the queue */
126 /* group of streams to which this queue belongs to */
128 GstClockTimeDiff group_high_time;
130 GstMultiQueue *mqueue;
135 /* flowreturn of previous srcpad push */
136 GstFlowReturn srcresult;
137 /* If something was actually pushed on
138 * this pad after flushing/pad activation
139 * and the srcresult corresponds to something
145 GstSegment sink_segment;
146 GstSegment src_segment;
147 gboolean has_src_segment; /* preferred over initializing the src_segment to
148 * UNDEFINED as this doesn't requires adding ifs
149 * in every segment usage */
151 /* position of src/sink */
152 GstClockTimeDiff sinktime, srctime;
153 /* cached input value, used for interleave */
154 GstClockTimeDiff cached_sinktime;
155 /* TRUE if either position needs to be recalculated */
156 gboolean sink_tainted, src_tainted;
160 GstDataQueueSize max_size, extra_size;
161 GstClockTime cur_time;
167 /* Protected by global lock */
168 guint32 nextid; /* ID of the next object waiting to be pushed */
169 guint32 oldid; /* ID of the last object pushed (last in a series) */
170 guint32 last_oldid; /* Previously observed old_id, reset to MAXUINT32 on flush */
171 GstClockTimeDiff next_time; /* End running time of next buffer to be pushed */
172 GstClockTimeDiff last_time; /* Start running time of last pushed buffer */
173 GCond turn; /* SingleQueue turn waiting conditional */
175 /* for serialized queries */
178 GstQuery *last_handled_query;
180 /* For interleave calculation */
183 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
184 /*RVU patch : update buffering percent*/
186 GstClockTime cur_time_of_begin_buffering;
191 /* Extension of GstDataQueueItem structure for our usage */
192 typedef struct _GstMultiQueueItem GstMultiQueueItem;
194 struct _GstMultiQueueItem
196 GstMiniObject *object;
201 GDestroyNotify destroy;
205 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
206 /*RVU patch : for update single queue buffering percent*/
211 static GstSingleQueue *gst_single_queue_new (GstMultiQueue * mqueue, guint id);
212 static void gst_single_queue_free (GstSingleQueue * squeue);
214 static void wake_up_next_non_linked (GstMultiQueue * mq);
215 static void compute_high_id (GstMultiQueue * mq);
216 static void compute_high_time (GstMultiQueue * mq, guint groupid);
217 static void single_queue_overrun_cb (GstDataQueue * dq, GstSingleQueue * sq);
218 static void single_queue_underrun_cb (GstDataQueue * dq, GstSingleQueue * sq);
220 static void update_buffering (GstMultiQueue * mq, GstSingleQueue * sq);
221 static void gst_multi_queue_post_buffering (GstMultiQueue * mq);
222 static void recheck_buffering_status (GstMultiQueue * mq);
224 static void gst_single_queue_flush_queue (GstSingleQueue * sq, gboolean full);
226 static void calculate_interleave (GstMultiQueue * mq);
228 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
229 /*RVU patch : work for get stream type to set single queue buffering params*/
230 static void single_queue_set_stream_type (GstSingleQueue * squeue,
232 static void early_exit_buffering (GstMultiQueue * mq);
235 static GstStaticPadTemplate sinktemplate = GST_STATIC_PAD_TEMPLATE ("sink_%u",
238 GST_STATIC_CAPS_ANY);
240 static GstStaticPadTemplate srctemplate = GST_STATIC_PAD_TEMPLATE ("src_%u",
243 GST_STATIC_CAPS_ANY);
245 GST_DEBUG_CATEGORY_STATIC (multi_queue_debug);
246 #define GST_CAT_DEFAULT (multi_queue_debug)
248 /* Signals and args */
256 /* default limits, we try to keep up to 2 seconds of data and if there is not
257 * time, up to 10 MB. The number of buffers is dynamically scaled to make sure
258 * there is data in the queues. Normally, the byte and time limits are not hit
259 * in theses conditions. */
260 #define DEFAULT_MAX_SIZE_BYTES 10 * 1024 * 1024 /* 10 MB */
261 #define DEFAULT_MAX_SIZE_BUFFERS 5
262 #define DEFAULT_MAX_SIZE_TIME 2 * GST_SECOND
264 /* second limits. When we hit one of the above limits we are probably dealing
265 * with a badly muxed file and we scale the limits to these emergency values.
266 * This is currently not yet implemented.
267 * Since we dynamically scale the queue buffer size up to the limits but avoid
268 * going above the max-size-buffers when we can, we don't really need this
269 * aditional extra size. */
270 #define DEFAULT_EXTRA_SIZE_BYTES 10 * 1024 * 1024 /* 10 MB */
271 #define DEFAULT_EXTRA_SIZE_BUFFERS 5
272 #ifdef TIZEN_FEATURE_MQ_MODIFICATION_EXTRA_SIZE_TIME
273 #define DEFAULT_EXTRA_SIZE_TIME 10 * GST_SECOND
275 #define DEFAULT_EXTRA_SIZE_TIME 3 * GST_SECOND
278 #define DEFAULT_USE_BUFFERING FALSE
279 #define DEFAULT_LOW_WATERMARK 0.01
280 #define DEFAULT_HIGH_WATERMARK 0.99
281 #define DEFAULT_SYNC_BY_RUNNING_TIME FALSE
282 #define DEFAULT_USE_INTERLEAVE FALSE
283 #define DEFAULT_UNLINKED_CACHE_TIME 250 * GST_MSECOND
285 #define DEFAULT_MINIMUM_INTERLEAVE (250 * GST_MSECOND)
290 PROP_EXTRA_SIZE_BYTES,
291 PROP_EXTRA_SIZE_BUFFERS,
292 PROP_EXTRA_SIZE_TIME,
294 PROP_MAX_SIZE_BUFFERS,
296 #ifdef TIZEN_FEATURE_MQ_MODIFICATION
297 PROP_CURR_SIZE_BYTES,
304 PROP_SYNC_BY_RUNNING_TIME,
306 PROP_UNLINKED_CACHE_TIME,
307 PROP_MINIMUM_INTERLEAVE,
308 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
309 /*RVU patch : buffering params*/
310 PROP_MAX_AUDIO_SIZE_BYTES,
311 PROP_MAX_AUDIO_SIZE_BUFFERS,
312 PROP_MAX_AUDIO_SIZE_TIME,
313 PROP_MAX_VIDEO_SIZE_BYTES,
314 PROP_MAX_VIDEO_SIZE_BUFFERS,
315 PROP_MAX_VIDEO_SIZE_TIME,
316 PROP_ENABLE_BUFFERING_OPT,
317 /*RVU patch : rvu reset, disable audio buffering and adaptive buffering property*/
319 PROP_DISABLE_AUDIO_BUFFERING,
320 PROP_BUFFERING_ENHANCEMENT,
325 /* Explanation for buffer levels and percentages:
327 * The buffering_level functions here return a value in a normalized range
328 * that specifies the current fill level of a queue. The range goes from 0 to
329 * MAX_BUFFERING_LEVEL. The low/high watermarks also use this same range.
331 * This is not to be confused with the buffering_percent value, which is
332 * a *relative* quantity - relative to the low/high watermarks.
333 * buffering_percent = 0% means overall buffering_level is at the low watermark.
334 * buffering_percent = 100% means overall buffering_level is at the high watermark.
335 * buffering_percent is used for determining if the fill level has reached
336 * the high watermark, and for producing BUFFERING messages. This value
337 * always uses a 0..100 range (since it is a percentage).
339 * To avoid future confusions, whenever "buffering level" is mentioned, it
340 * refers to the absolute level which is in the 0..MAX_BUFFERING_LEVEL
341 * range. Whenever "buffering_percent" is mentioned, it refers to the
342 * percentage value that is relative to the low/high watermark. */
344 /* Using a buffering level range of 0..1000000 to allow for a
345 * resolution in ppm (1 ppm = 0.0001%) */
346 #define MAX_BUFFERING_LEVEL 1000000
348 /* How much 1% makes up in the buffer level range */
349 #define BUF_LEVEL_PERCENT_FACTOR ((MAX_BUFFERING_LEVEL) / 100)
351 /* GstMultiQueuePad */
353 #define DEFAULT_PAD_GROUP_ID 0
361 #define GST_TYPE_MULTIQUEUE_PAD (gst_multiqueue_pad_get_type())
362 #define GST_MULTIQUEUE_PAD(obj) (G_TYPE_CHECK_INSTANCE_CAST((obj),GST_TYPE_MULTIQUEUE_PAD,GstMultiQueuePad))
363 #define GST_IS_MULTIQUEUE_PAD(obj) (G_TYPE_CHECK_INSTANCE_TYPE((obj),GST_TYPE_MULTIQUEUE_PAD))
364 #define GST_MULTIQUEUE_PAD_CLASS(klass) (G_TYPE_CHECK_CLASS_CAST((klass) ,GST_TYPE_MULTIQUEUE_PAD,GstMultiQueuePadClass))
365 #define GST_IS_MULTIQUEUE_PAD_CLASS(klass) (G_TYPE_CHECK_CLASS_TYPE((klass) ,GST_TYPE_MULTIQUEUE_PAD))
366 #define GST_MULTIQUEUE_PAD_GET_CLASS(obj) (G_TYPE_INSTANCE_GET_CLASS((obj) ,GST_TYPE_MULTIQUEUE_PAD,GstMultiQueuePadClass))
368 struct _GstMultiQueuePad
375 struct _GstMultiQueuePadClass
377 GstPadClass parent_class;
380 GType gst_multiqueue_pad_get_type (void);
382 G_DEFINE_TYPE (GstMultiQueuePad, gst_multiqueue_pad, GST_TYPE_PAD);
384 gst_multiqueue_pad_get_property (GObject * object, guint prop_id,
385 GValue * value, GParamSpec * pspec)
387 GstMultiQueuePad *pad = GST_MULTIQUEUE_PAD (object);
390 case PROP_PAD_GROUP_ID:
392 g_value_set_uint (value, pad->sq->groupid);
395 G_OBJECT_WARN_INVALID_PROPERTY_ID (object, prop_id, pspec);
401 gst_multiqueue_pad_set_property (GObject * object, guint prop_id,
402 const GValue * value, GParamSpec * pspec)
404 GstMultiQueuePad *pad = GST_MULTIQUEUE_PAD (object);
407 case PROP_PAD_GROUP_ID:
408 GST_OBJECT_LOCK (pad);
410 pad->sq->groupid = g_value_get_uint (value);
411 GST_OBJECT_UNLOCK (pad);
414 G_OBJECT_WARN_INVALID_PROPERTY_ID (object, prop_id, pspec);
420 gst_multiqueue_pad_class_init (GstMultiQueuePadClass * klass)
422 GObjectClass *gobject_class = (GObjectClass *) klass;
424 gobject_class->set_property = gst_multiqueue_pad_set_property;
425 gobject_class->get_property = gst_multiqueue_pad_get_property;
428 * GstMultiQueuePad:group-id:
430 * Group to which this pad belongs.
434 g_object_class_install_property (gobject_class, PROP_PAD_GROUP_ID,
435 g_param_spec_uint ("group-id", "Group ID",
436 "Group to which this pad belongs", 0, G_MAXUINT32,
437 DEFAULT_PAD_GROUP_ID, G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
441 gst_multiqueue_pad_init (GstMultiQueuePad * pad)
447 #define GST_MULTI_QUEUE_MUTEX_LOCK(q) G_STMT_START { \
448 g_mutex_lock (&q->qlock); \
451 #define GST_MULTI_QUEUE_MUTEX_UNLOCK(q) G_STMT_START { \
452 g_mutex_unlock (&q->qlock); \
455 #define SET_PERCENT(mq, perc) G_STMT_START { \
456 if (perc != mq->buffering_percent) { \
457 mq->buffering_percent = perc; \
458 mq->buffering_percent_changed = TRUE; \
459 GST_DEBUG_OBJECT (mq, "buffering %d percent", perc); \
463 /* Convenience function */
464 static inline GstClockTimeDiff
465 my_segment_to_running_time (GstSegment * segment, GstClockTime val)
467 GstClockTimeDiff res = GST_CLOCK_STIME_NONE;
469 if (GST_CLOCK_TIME_IS_VALID (val)) {
471 gst_segment_to_running_time_full (segment, GST_FORMAT_TIME, val, &val);
480 static void gst_multi_queue_finalize (GObject * object);
481 static void gst_multi_queue_set_property (GObject * object,
482 guint prop_id, const GValue * value, GParamSpec * pspec);
483 static void gst_multi_queue_get_property (GObject * object,
484 guint prop_id, GValue * value, GParamSpec * pspec);
486 static GstPad *gst_multi_queue_request_new_pad (GstElement * element,
487 GstPadTemplate * temp, const gchar * name, const GstCaps * caps);
488 static void gst_multi_queue_release_pad (GstElement * element, GstPad * pad);
489 static GstStateChangeReturn gst_multi_queue_change_state (GstElement *
490 element, GstStateChange transition);
492 static void gst_multi_queue_loop (GstPad * pad);
495 GST_DEBUG_CATEGORY_INIT (multi_queue_debug, "multiqueue", 0, "multiqueue element");
496 #define gst_multi_queue_parent_class parent_class
497 G_DEFINE_TYPE_WITH_CODE (GstMultiQueue, gst_multi_queue, GST_TYPE_ELEMENT,
500 static guint gst_multi_queue_signals[LAST_SIGNAL] = { 0 };
503 gst_multi_queue_class_init (GstMultiQueueClass * klass)
505 GObjectClass *gobject_class = G_OBJECT_CLASS (klass);
506 GstElementClass *gstelement_class = GST_ELEMENT_CLASS (klass);
508 gobject_class->set_property = gst_multi_queue_set_property;
509 gobject_class->get_property = gst_multi_queue_get_property;
514 * GstMultiQueue::underrun:
515 * @multiqueue: the multiqueue instance
517 * This signal is emitted from the streaming thread when there is
518 * no data in any of the queues inside the multiqueue instance (underrun).
520 * This indicates either starvation or EOS from the upstream data sources.
522 gst_multi_queue_signals[SIGNAL_UNDERRUN] =
523 g_signal_new ("underrun", G_TYPE_FROM_CLASS (klass), G_SIGNAL_RUN_FIRST,
524 G_STRUCT_OFFSET (GstMultiQueueClass, underrun), NULL, NULL,
525 g_cclosure_marshal_VOID__VOID, G_TYPE_NONE, 0);
528 * GstMultiQueue::overrun:
529 * @multiqueue: the multiqueue instance
531 * Reports that one of the queues in the multiqueue is full (overrun).
532 * A queue is full if the total amount of data inside it (num-buffers, time,
533 * size) is higher than the boundary values which can be set through the
534 * GObject properties.
536 * This can be used as an indicator of pre-roll.
538 gst_multi_queue_signals[SIGNAL_OVERRUN] =
539 g_signal_new ("overrun", G_TYPE_FROM_CLASS (klass), G_SIGNAL_RUN_FIRST,
540 G_STRUCT_OFFSET (GstMultiQueueClass, overrun), NULL, NULL,
541 g_cclosure_marshal_VOID__VOID, G_TYPE_NONE, 0);
544 g_object_class_install_property (gobject_class, PROP_MAX_SIZE_BYTES,
545 g_param_spec_uint ("max-size-bytes", "Max. size (kB)",
546 "Max. amount of data in the queue (bytes, 0=disable)",
547 0, G_MAXUINT, DEFAULT_MAX_SIZE_BYTES,
548 G_PARAM_READWRITE | GST_PARAM_MUTABLE_PLAYING |
549 G_PARAM_STATIC_STRINGS));
550 g_object_class_install_property (gobject_class, PROP_MAX_SIZE_BUFFERS,
551 g_param_spec_uint ("max-size-buffers", "Max. size (buffers)",
552 "Max. number of buffers in the queue (0=disable)", 0, G_MAXUINT,
553 DEFAULT_MAX_SIZE_BUFFERS,
554 G_PARAM_READWRITE | GST_PARAM_MUTABLE_PLAYING |
555 G_PARAM_STATIC_STRINGS));
556 g_object_class_install_property (gobject_class, PROP_MAX_SIZE_TIME,
557 g_param_spec_uint64 ("max-size-time", "Max. size (ns)",
558 "Max. amount of data in the queue (in ns, 0=disable)", 0, G_MAXUINT64,
559 DEFAULT_MAX_SIZE_TIME, G_PARAM_READWRITE | GST_PARAM_MUTABLE_PLAYING |
560 G_PARAM_STATIC_STRINGS));
561 #ifdef TIZEN_FEATURE_MQ_MODIFICATION
562 g_object_class_install_property (gobject_class, PROP_CURR_SIZE_BYTES,
563 g_param_spec_uint ("curr-size-bytes", "Current buffered size (kB)",
564 "buffered amount of data in the queue (bytes)", 0, G_MAXUINT,
565 0, G_PARAM_READABLE | GST_PARAM_MUTABLE_PLAYING |
566 G_PARAM_STATIC_STRINGS));
568 g_object_class_install_property (gobject_class, PROP_EXTRA_SIZE_BYTES,
569 g_param_spec_uint ("extra-size-bytes", "Extra Size (kB)",
570 "Amount of data the queues can grow if one of them is empty (bytes, 0=disable)"
571 " (NOT IMPLEMENTED)",
572 0, G_MAXUINT, DEFAULT_EXTRA_SIZE_BYTES,
573 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
574 g_object_class_install_property (gobject_class, PROP_EXTRA_SIZE_BUFFERS,
575 g_param_spec_uint ("extra-size-buffers", "Extra Size (buffers)",
576 "Amount of buffers the queues can grow if one of them is empty (0=disable)"
577 " (NOT IMPLEMENTED)",
578 0, G_MAXUINT, DEFAULT_EXTRA_SIZE_BUFFERS,
579 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
580 g_object_class_install_property (gobject_class, PROP_EXTRA_SIZE_TIME,
581 g_param_spec_uint64 ("extra-size-time", "Extra Size (ns)",
582 "Amount of time the queues can grow if one of them is empty (in ns, 0=disable)"
583 " (NOT IMPLEMENTED)",
584 0, G_MAXUINT64, DEFAULT_EXTRA_SIZE_TIME,
585 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
588 * GstMultiQueue:use-buffering:
590 * Enable the buffering option in multiqueue so that BUFFERING messages are
591 * emitted based on low-/high-percent thresholds.
593 g_object_class_install_property (gobject_class, PROP_USE_BUFFERING,
594 g_param_spec_boolean ("use-buffering", "Use buffering",
595 "Emit GST_MESSAGE_BUFFERING based on low-/high-percent thresholds",
596 DEFAULT_USE_BUFFERING, G_PARAM_READWRITE | GST_PARAM_MUTABLE_PLAYING |
597 G_PARAM_STATIC_STRINGS));
599 * GstMultiQueue:low-percent:
601 * Low threshold percent for buffering to start.
603 g_object_class_install_property (gobject_class, PROP_LOW_PERCENT,
604 g_param_spec_int ("low-percent", "Low percent",
605 "Low threshold for buffering to start. Only used if use-buffering is True "
606 "(Deprecated: use low-watermark instead)",
607 0, 100, DEFAULT_LOW_WATERMARK * 100,
608 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
610 * GstMultiQueue:high-percent:
612 * High threshold percent for buffering to finish.
614 g_object_class_install_property (gobject_class, PROP_HIGH_PERCENT,
615 g_param_spec_int ("high-percent", "High percent",
616 "High threshold for buffering to finish. Only used if use-buffering is True "
617 "(Deprecated: use high-watermark instead)",
618 0, 100, DEFAULT_HIGH_WATERMARK * 100,
619 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
621 * GstMultiQueue:low-watermark:
623 * Low threshold watermark for buffering to start.
627 g_object_class_install_property (gobject_class, PROP_LOW_WATERMARK,
628 g_param_spec_double ("low-watermark", "Low watermark",
629 "Low threshold for buffering to start. Only used if use-buffering is True",
630 0.0, 1.0, DEFAULT_LOW_WATERMARK,
631 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
633 * GstMultiQueue:high-watermark:
635 * High threshold watermark for buffering to finish.
639 g_object_class_install_property (gobject_class, PROP_HIGH_WATERMARK,
640 g_param_spec_double ("high-watermark", "High watermark",
641 "High threshold for buffering to finish. Only used if use-buffering is True",
642 0.0, 1.0, DEFAULT_HIGH_WATERMARK,
643 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
646 * GstMultiQueue:sync-by-running-time:
648 * If enabled multiqueue will synchronize deactivated or not-linked streams
649 * to the activated and linked streams by taking the running time.
650 * Otherwise multiqueue will synchronize the deactivated or not-linked
651 * streams by keeping the order in which buffers and events arrived compared
652 * to active and linked streams.
654 g_object_class_install_property (gobject_class, PROP_SYNC_BY_RUNNING_TIME,
655 g_param_spec_boolean ("sync-by-running-time", "Sync By Running Time",
656 "Synchronize deactivated or not-linked streams by running time",
657 DEFAULT_SYNC_BY_RUNNING_TIME,
658 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
659 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
660 /*RVU patch : buffering params property*/
661 g_object_class_install_property (gobject_class, PROP_MAX_AUDIO_SIZE_BYTES,
662 g_param_spec_uint ("max-size-audio-bytes", "Max. size (kB)",
663 "Max. amount of data in the audio queue (bytes, 0=disable)", 0,
664 G_MAXUINT, DEFAULT_MAX_SIZE_BYTES,
665 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
666 g_object_class_install_property (gobject_class, PROP_MAX_AUDIO_SIZE_BUFFERS,
667 g_param_spec_uint ("max-size-audio-buffers", "Max. size (buffers)",
668 "Max. number of buffers in the audio queue (0=disable)", 0, G_MAXUINT,
669 DEFAULT_MAX_SIZE_BUFFERS,
670 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
671 g_object_class_install_property (gobject_class, PROP_MAX_AUDIO_SIZE_TIME,
672 g_param_spec_uint64 ("max-size-audio-time", "Max. size (ns)",
673 "Max. amount of data in the audio queue (in ns, 0=disable)", 0,
674 G_MAXUINT64, DEFAULT_MAX_SIZE_TIME,
675 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
676 g_object_class_install_property (gobject_class, PROP_MAX_VIDEO_SIZE_BYTES,
677 g_param_spec_uint ("max-size-video-bytes", "Max. size (kB)",
678 "Max. amount of data in the video queue (bytes, 0=disable)",
679 0, G_MAXUINT, DEFAULT_MAX_SIZE_BYTES,
680 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
681 g_object_class_install_property (gobject_class, PROP_MAX_VIDEO_SIZE_BUFFERS,
682 g_param_spec_uint ("max-size-video-buffers", "Max. size (buffers)",
683 "Max. number of buffers in the video queue (0=disable)", 0, G_MAXUINT,
684 DEFAULT_MAX_SIZE_BUFFERS,
685 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
686 g_object_class_install_property (gobject_class, PROP_MAX_VIDEO_SIZE_TIME,
687 g_param_spec_uint64 ("max-size-video-time", "Max. size (ns)",
688 "Max. amount of data in the video queue (in ns, 0=disable)", 0,
689 G_MAXUINT64, DEFAULT_MAX_SIZE_TIME,
690 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
691 g_object_class_install_property (gobject_class, PROP_ENABLE_BUFFERING_OPT,
692 g_param_spec_boolean ("enable-buffering-opt",
693 "make buffering optimize enable",
694 "enable to control the buffering queue size and time.", FALSE,
695 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
697 /*RVU patch : rvu reset, disable audio buffering and adaptive buffering property*/
698 g_object_class_install_property (gobject_class, PROP_RESET_FLAG,
699 g_param_spec_int ("buffering-reset-flag", "reset flag",
700 "reset buffering flag", 0, 1, 0,
701 G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
703 g_object_class_install_property (gobject_class, PROP_DISABLE_AUDIO_BUFFERING,
704 g_param_spec_boolean ("disable-audio-buffering",
705 "disable audio stream buffering", "disable audio buffering solution",
706 FALSE, G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
707 g_object_class_install_property (gobject_class, PROP_BUFFERING_ENHANCEMENT,
708 g_param_spec_boolean ("enhancement-buffering", "enhancement buffering solution",
709 "enhancement buffering solution",
710 FALSE, G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
713 g_object_class_install_property (gobject_class, PROP_USE_INTERLEAVE,
714 g_param_spec_boolean ("use-interleave", "Use interleave",
715 "Adjust time limits based on input interleave",
716 DEFAULT_USE_INTERLEAVE, G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS));
718 g_object_class_install_property (gobject_class, PROP_UNLINKED_CACHE_TIME,
719 g_param_spec_uint64 ("unlinked-cache-time", "Unlinked cache time (ns)",
720 "Extra buffering in time for unlinked streams (if 'sync-by-running-time')",
721 0, G_MAXUINT64, DEFAULT_UNLINKED_CACHE_TIME,
722 G_PARAM_READWRITE | GST_PARAM_MUTABLE_PLAYING |
723 G_PARAM_STATIC_STRINGS));
725 g_object_class_install_property (gobject_class, PROP_MINIMUM_INTERLEAVE,
726 g_param_spec_uint64 ("min-interleave-time", "Minimum interleave time",
727 "Minimum extra buffering for deinterleaving (size of the queues) when use-interleave=true",
728 0, G_MAXUINT64, DEFAULT_MINIMUM_INTERLEAVE,
729 G_PARAM_READWRITE | GST_PARAM_MUTABLE_PLAYING |
730 G_PARAM_STATIC_STRINGS));
732 gobject_class->finalize = gst_multi_queue_finalize;
734 gst_element_class_set_static_metadata (gstelement_class,
736 "Generic", "Multiple data queue", "Edward Hervey <edward@fluendo.com>");
737 gst_element_class_add_static_pad_template (gstelement_class, &sinktemplate);
738 gst_element_class_add_static_pad_template (gstelement_class, &srctemplate);
740 gstelement_class->request_new_pad =
741 GST_DEBUG_FUNCPTR (gst_multi_queue_request_new_pad);
742 gstelement_class->release_pad =
743 GST_DEBUG_FUNCPTR (gst_multi_queue_release_pad);
744 gstelement_class->change_state =
745 GST_DEBUG_FUNCPTR (gst_multi_queue_change_state);
749 gst_multi_queue_init (GstMultiQueue * mqueue)
751 mqueue->nbqueues = 0;
752 mqueue->queues = NULL;
754 mqueue->max_size.bytes = DEFAULT_MAX_SIZE_BYTES;
755 mqueue->max_size.visible = DEFAULT_MAX_SIZE_BUFFERS;
756 mqueue->max_size.time = DEFAULT_MAX_SIZE_TIME;
758 mqueue->extra_size.bytes = DEFAULT_EXTRA_SIZE_BYTES;
759 mqueue->extra_size.visible = DEFAULT_EXTRA_SIZE_BUFFERS;
760 mqueue->extra_size.time = DEFAULT_EXTRA_SIZE_TIME;
762 mqueue->use_buffering = DEFAULT_USE_BUFFERING;
763 mqueue->low_watermark = DEFAULT_LOW_WATERMARK * MAX_BUFFERING_LEVEL;
764 mqueue->high_watermark = DEFAULT_HIGH_WATERMARK * MAX_BUFFERING_LEVEL;
766 mqueue->sync_by_running_time = DEFAULT_SYNC_BY_RUNNING_TIME;
767 mqueue->use_interleave = DEFAULT_USE_INTERLEAVE;
768 mqueue->min_interleave_time = DEFAULT_MINIMUM_INTERLEAVE;
769 mqueue->unlinked_cache_time = DEFAULT_UNLINKED_CACHE_TIME;
773 mqueue->high_time = GST_CLOCK_STIME_NONE;
774 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
775 /*RVU patch : buffering params init*/
776 mqueue->audio_max_size.bytes = DEFAULT_MAX_SIZE_BYTES;
777 mqueue->audio_max_size.visible = DEFAULT_MAX_SIZE_BUFFERS;
778 mqueue->audio_max_size.time = DEFAULT_MAX_SIZE_TIME;
779 mqueue->video_max_size.bytes = DEFAULT_MAX_SIZE_BYTES;
780 mqueue->video_max_size.visible = DEFAULT_MAX_SIZE_BUFFERS;
781 mqueue->video_max_size.time = DEFAULT_MAX_SIZE_TIME;
782 mqueue->buffering_start_time = 0;
783 mqueue->stream_duration = 0;
784 /*RVU patch : rvu reset flag, disable audio buffering flag and adaptive buffering flag*/
785 mqueue->buffering_reset = FALSE;
786 mqueue->disable_audio_buffering = FALSE;
787 mqueue->enhancement_buffering = FALSE;
790 g_mutex_init (&mqueue->qlock);
791 g_mutex_init (&mqueue->buffering_post_lock);
795 gst_multi_queue_finalize (GObject * object)
797 GstMultiQueue *mqueue = GST_MULTI_QUEUE (object);
799 g_list_foreach (mqueue->queues, (GFunc) gst_single_queue_free, NULL);
800 g_list_free (mqueue->queues);
801 mqueue->queues = NULL;
802 mqueue->queues_cookie++;
804 /* free/unref instance data */
805 g_mutex_clear (&mqueue->qlock);
806 g_mutex_clear (&mqueue->buffering_post_lock);
808 G_OBJECT_CLASS (parent_class)->finalize (object);
811 #define SET_CHILD_PROPERTY(mq,format) G_STMT_START { \
812 GList * tmp = mq->queues; \
814 GstSingleQueue *q = (GstSingleQueue*)tmp->data; \
815 q->max_size.format = mq->max_size.format; \
816 update_buffering (mq, q); \
817 gst_data_queue_limits_changed (q->queue); \
818 tmp = g_list_next(tmp); \
823 gst_multi_queue_set_property (GObject * object, guint prop_id,
824 const GValue * value, GParamSpec * pspec)
826 GstMultiQueue *mq = GST_MULTI_QUEUE (object);
829 case PROP_MAX_SIZE_BYTES:
830 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
831 mq->max_size.bytes = g_value_get_uint (value);
832 SET_CHILD_PROPERTY (mq, bytes);
833 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
834 gst_multi_queue_post_buffering (mq);
836 case PROP_MAX_SIZE_BUFFERS:
839 gint new_size = g_value_get_uint (value);
841 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
843 mq->max_size.visible = new_size;
847 GstDataQueueSize size;
848 GstSingleQueue *q = (GstSingleQueue *) tmp->data;
849 gst_data_queue_get_level (q->queue, &size);
851 GST_DEBUG_OBJECT (mq, "Queue %d: Requested buffers size: %d,"
852 " current: %d, current max %d", q->id, new_size, size.visible,
853 q->max_size.visible);
855 /* do not reduce max size below current level if the single queue
856 * has grown because of empty queue */
858 q->max_size.visible = new_size;
859 } else if (q->max_size.visible == 0) {
860 q->max_size.visible = MAX (new_size, size.visible);
861 } else if (new_size > size.visible) {
862 q->max_size.visible = new_size;
864 update_buffering (mq, q);
865 gst_data_queue_limits_changed (q->queue);
866 tmp = g_list_next (tmp);
869 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
870 gst_multi_queue_post_buffering (mq);
874 case PROP_MAX_SIZE_TIME:
875 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
876 mq->max_size.time = g_value_get_uint64 (value);
877 SET_CHILD_PROPERTY (mq, time);
878 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
879 gst_multi_queue_post_buffering (mq);
881 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
882 /*RVU patch : buffering params property*/
883 case PROP_MAX_AUDIO_SIZE_BYTES:
884 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
885 mq->audio_max_size.bytes = g_value_get_uint (value);
886 SET_CHILD_PROPERTY (mq, bytes);
887 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
889 case PROP_MAX_AUDIO_SIZE_BUFFERS:
890 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
891 mq->audio_max_size.visible = g_value_get_uint (value);
892 SET_CHILD_PROPERTY (mq, visible);
893 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
895 case PROP_MAX_AUDIO_SIZE_TIME:
896 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
897 mq->audio_max_size.time = g_value_get_uint64 (value);
898 SET_CHILD_PROPERTY (mq, time);
899 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
901 case PROP_MAX_VIDEO_SIZE_BYTES:
902 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
903 mq->video_max_size.bytes = g_value_get_uint (value);
904 SET_CHILD_PROPERTY (mq, bytes);
905 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
907 case PROP_MAX_VIDEO_SIZE_BUFFERS:
908 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
909 mq->video_max_size.visible = g_value_get_uint (value);
910 SET_CHILD_PROPERTY (mq, visible);
911 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
913 case PROP_MAX_VIDEO_SIZE_TIME:
914 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
915 mq->video_max_size.time = g_value_get_uint64 (value);
916 SET_CHILD_PROPERTY (mq, time);
917 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
920 case PROP_EXTRA_SIZE_BYTES:
921 mq->extra_size.bytes = g_value_get_uint (value);
923 case PROP_EXTRA_SIZE_BUFFERS:
924 mq->extra_size.visible = g_value_get_uint (value);
926 case PROP_EXTRA_SIZE_TIME:
927 mq->extra_size.time = g_value_get_uint64 (value);
929 case PROP_USE_BUFFERING:
930 mq->use_buffering = g_value_get_boolean (value);
931 recheck_buffering_status (mq);
933 case PROP_LOW_PERCENT:
934 mq->low_watermark = g_value_get_int (value) * BUF_LEVEL_PERCENT_FACTOR;
935 /* Recheck buffering status - the new low_watermark value might
936 * be above the current fill level. If the old low_watermark one
937 * was below the current level, this means that mq->buffering is
938 * disabled and needs to be re-enabled. */
939 recheck_buffering_status (mq);
941 case PROP_HIGH_PERCENT:
942 mq->high_watermark = g_value_get_int (value) * BUF_LEVEL_PERCENT_FACTOR;
943 recheck_buffering_status (mq);
945 case PROP_LOW_WATERMARK:
946 mq->low_watermark = g_value_get_double (value) * MAX_BUFFERING_LEVEL;
947 recheck_buffering_status (mq);
949 case PROP_HIGH_WATERMARK:
950 mq->high_watermark = g_value_get_double (value) * MAX_BUFFERING_LEVEL;
951 recheck_buffering_status (mq);
953 case PROP_SYNC_BY_RUNNING_TIME:
954 mq->sync_by_running_time = g_value_get_boolean (value);
956 case PROP_USE_INTERLEAVE:
957 mq->use_interleave = g_value_get_boolean (value);
959 case PROP_UNLINKED_CACHE_TIME:
960 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
961 mq->unlinked_cache_time = g_value_get_uint64 (value);
962 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
963 gst_multi_queue_post_buffering (mq);
965 case PROP_MINIMUM_INTERLEAVE:
966 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
967 mq->min_interleave_time = g_value_get_uint64 (value);
968 if (mq->use_interleave)
969 calculate_interleave (mq);
970 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
973 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
974 /*RVU patch : rvu reset buffering, disable audio buffering and adaptive buffering property*/
975 case PROP_RESET_FLAG:
976 mq->buffering = FALSE;
978 mq->buffering_reset = TRUE;
979 GST_DEBUG_OBJECT (mq, "MQ RESET FLAG!\n");
981 case PROP_DISABLE_AUDIO_BUFFERING:
983 mq->disable_audio_buffering = g_value_get_boolean (value);
984 GST_LOG_OBJECT (mq, "disable-audio-buffering %d\n",
985 mq->disable_audio_buffering);
988 case PROP_BUFFERING_ENHANCEMENT:
990 mq->enhancement_buffering = g_value_get_boolean (value);
991 GST_LOG_OBJECT (mq, "mq->enhancement_buffering %d\n",
992 mq->enhancement_buffering);
997 G_OBJECT_WARN_INVALID_PROPERTY_ID (object, prop_id, pspec);
1002 #ifdef TIZEN_FEATURE_MQ_MODIFICATION
1004 get_current_size_bytes (GstMultiQueue * mq)
1007 GstClockTime highest = GST_CLOCK_TIME_NONE;
1008 GstClockTime lowest = GST_CLOCK_TIME_NONE;
1009 guint current_size_bytes = 0;
1011 for (tmp = mq->queues; tmp; tmp = g_list_next (tmp)) {
1012 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
1013 GstDataQueueSize size;
1015 gst_data_queue_get_level (sq->queue, &size);
1017 current_size_bytes += size.bytes;
1019 GST_DEBUG_OBJECT (mq,
1020 "queue %d: bytes %u/%u, time %" G_GUINT64_FORMAT "/%"
1021 G_GUINT64_FORMAT, sq->id, size.bytes, sq->max_size.bytes,
1022 sq->cur_time, sq->max_size.time);
1025 GST_INFO_OBJECT (mq, "current_size_bytes : %u", current_size_bytes);
1027 return current_size_bytes;
1032 gst_multi_queue_get_property (GObject * object, guint prop_id,
1033 GValue * value, GParamSpec * pspec)
1035 GstMultiQueue *mq = GST_MULTI_QUEUE (object);
1037 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1040 case PROP_EXTRA_SIZE_BYTES:
1041 g_value_set_uint (value, mq->extra_size.bytes);
1043 case PROP_EXTRA_SIZE_BUFFERS:
1044 g_value_set_uint (value, mq->extra_size.visible);
1046 case PROP_EXTRA_SIZE_TIME:
1047 g_value_set_uint64 (value, mq->extra_size.time);
1049 case PROP_MAX_SIZE_BYTES:
1050 g_value_set_uint (value, mq->max_size.bytes);
1052 case PROP_MAX_SIZE_BUFFERS:
1053 g_value_set_uint (value, mq->max_size.visible);
1055 case PROP_MAX_SIZE_TIME:
1056 g_value_set_uint64 (value, mq->max_size.time);
1058 #ifdef TIZEN_FEATURE_MQ_MODIFICATION
1059 case PROP_CURR_SIZE_BYTES:
1060 g_value_set_uint (value, get_current_size_bytes(mq));
1063 case PROP_USE_BUFFERING:
1064 g_value_set_boolean (value, mq->use_buffering);
1066 case PROP_LOW_PERCENT:
1067 g_value_set_int (value, mq->low_watermark / BUF_LEVEL_PERCENT_FACTOR);
1069 case PROP_HIGH_PERCENT:
1070 g_value_set_int (value, mq->high_watermark / BUF_LEVEL_PERCENT_FACTOR);
1072 case PROP_LOW_WATERMARK:
1073 g_value_set_double (value, mq->low_watermark /
1074 (gdouble) MAX_BUFFERING_LEVEL);
1076 case PROP_HIGH_WATERMARK:
1077 g_value_set_double (value, mq->high_watermark /
1078 (gdouble) MAX_BUFFERING_LEVEL);
1080 case PROP_SYNC_BY_RUNNING_TIME:
1081 g_value_set_boolean (value, mq->sync_by_running_time);
1083 case PROP_USE_INTERLEAVE:
1084 g_value_set_boolean (value, mq->use_interleave);
1086 case PROP_UNLINKED_CACHE_TIME:
1087 g_value_set_uint64 (value, mq->unlinked_cache_time);
1089 case PROP_MINIMUM_INTERLEAVE:
1090 g_value_set_uint64 (value, mq->min_interleave_time);
1092 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1093 /*RVU patch : rvu disable audio buffering and adaptive buffering property*/
1094 case PROP_DISABLE_AUDIO_BUFFERING:
1095 g_value_set_boolean (value, mq->disable_audio_buffering);
1097 case PROP_BUFFERING_ENHANCEMENT:
1098 g_value_set_boolean (value, mq->enhancement_buffering);
1102 G_OBJECT_WARN_INVALID_PROPERTY_ID (object, prop_id, pspec);
1106 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1109 static GstIterator *
1110 gst_multi_queue_iterate_internal_links (GstPad * pad, GstObject * parent)
1112 GstIterator *it = NULL;
1114 GstSingleQueue *squeue;
1115 GstMultiQueue *mq = GST_MULTI_QUEUE (parent);
1116 GValue val = { 0, };
1118 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1119 squeue = gst_pad_get_element_private (pad);
1123 if (squeue->sinkpad == pad)
1124 opad = gst_object_ref (squeue->srcpad);
1125 else if (squeue->srcpad == pad)
1126 opad = gst_object_ref (squeue->sinkpad);
1130 g_value_init (&val, GST_TYPE_PAD);
1131 g_value_set_object (&val, opad);
1132 it = gst_iterator_new_single (GST_TYPE_PAD, &val);
1133 g_value_unset (&val);
1135 gst_object_unref (opad);
1138 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1145 * GstElement methods
1149 gst_multi_queue_request_new_pad (GstElement * element, GstPadTemplate * temp,
1150 const gchar * name, const GstCaps * caps)
1152 GstMultiQueue *mqueue = GST_MULTI_QUEUE (element);
1153 GstSingleQueue *squeue;
1158 sscanf (name + 4, "_%u", &temp_id);
1159 GST_LOG_OBJECT (element, "name : %s (id %d)", GST_STR_NULL (name), temp_id);
1162 /* Create a new single queue, add the sink and source pad and return the sink pad */
1163 squeue = gst_single_queue_new (mqueue, temp_id);
1165 new_pad = squeue ? squeue->sinkpad : NULL;
1167 GST_DEBUG_OBJECT (mqueue, "Returning pad %" GST_PTR_FORMAT, new_pad);
1173 gst_multi_queue_release_pad (GstElement * element, GstPad * pad)
1175 GstMultiQueue *mqueue = GST_MULTI_QUEUE (element);
1176 GstSingleQueue *sq = NULL;
1179 GST_LOG_OBJECT (element, "pad %s:%s", GST_DEBUG_PAD_NAME (pad));
1181 GST_MULTI_QUEUE_MUTEX_LOCK (mqueue);
1182 /* Find which single queue it belongs to, knowing that it should be a sinkpad */
1183 for (tmp = mqueue->queues; tmp; tmp = g_list_next (tmp)) {
1184 sq = (GstSingleQueue *) tmp->data;
1186 if (sq->sinkpad == pad)
1191 GST_WARNING_OBJECT (mqueue, "That pad doesn't belong to this element ???");
1192 GST_MULTI_QUEUE_MUTEX_UNLOCK (mqueue);
1196 /* FIXME: The removal of the singlequeue should probably not happen until it
1197 * finishes draining */
1199 /* remove it from the list */
1200 mqueue->queues = g_list_delete_link (mqueue->queues, tmp);
1201 mqueue->queues_cookie++;
1203 /* FIXME : recompute next-non-linked */
1204 GST_MULTI_QUEUE_MUTEX_UNLOCK (mqueue);
1206 /* delete SingleQueue */
1207 gst_data_queue_set_flushing (sq->queue, TRUE);
1209 gst_pad_set_active (sq->srcpad, FALSE);
1210 gst_pad_set_active (sq->sinkpad, FALSE);
1211 gst_pad_set_element_private (sq->srcpad, NULL);
1212 gst_pad_set_element_private (sq->sinkpad, NULL);
1213 gst_element_remove_pad (element, sq->srcpad);
1214 gst_element_remove_pad (element, sq->sinkpad);
1215 gst_single_queue_free (sq);
1218 static GstStateChangeReturn
1219 gst_multi_queue_change_state (GstElement * element, GstStateChange transition)
1221 GstMultiQueue *mqueue = GST_MULTI_QUEUE (element);
1222 GstSingleQueue *sq = NULL;
1223 GstStateChangeReturn result;
1225 switch (transition) {
1226 case GST_STATE_CHANGE_READY_TO_PAUSED:{
1229 /* Set all pads to non-flushing */
1230 GST_MULTI_QUEUE_MUTEX_LOCK (mqueue);
1231 for (tmp = mqueue->queues; tmp; tmp = g_list_next (tmp)) {
1232 sq = (GstSingleQueue *) tmp->data;
1233 sq->flushing = FALSE;
1236 /* the visible limit might not have been set on single queues that have grown because of other queueus were empty */
1237 SET_CHILD_PROPERTY (mqueue, visible);
1239 GST_MULTI_QUEUE_MUTEX_UNLOCK (mqueue);
1240 gst_multi_queue_post_buffering (mqueue);
1244 case GST_STATE_CHANGE_PAUSED_TO_READY:{
1247 /* Un-wait all waiting pads */
1248 GST_MULTI_QUEUE_MUTEX_LOCK (mqueue);
1249 for (tmp = mqueue->queues; tmp; tmp = g_list_next (tmp)) {
1250 sq = (GstSingleQueue *) tmp->data;
1251 sq->flushing = TRUE;
1252 g_cond_signal (&sq->turn);
1254 sq->last_query = FALSE;
1255 g_cond_signal (&sq->query_handled);
1257 GST_MULTI_QUEUE_MUTEX_UNLOCK (mqueue);
1264 result = GST_ELEMENT_CLASS (parent_class)->change_state (element, transition);
1266 switch (transition) {
1275 gst_single_queue_flush (GstMultiQueue * mq, GstSingleQueue * sq, gboolean flush,
1280 GST_DEBUG_OBJECT (mq, "flush %s queue %d", (flush ? "start" : "stop"),
1284 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1285 sq->srcresult = GST_FLOW_FLUSHING;
1286 gst_data_queue_set_flushing (sq->queue, TRUE);
1288 sq->flushing = TRUE;
1290 /* wake up non-linked task */
1291 GST_LOG_OBJECT (mq, "SingleQueue %d : waking up eventually waiting task",
1293 g_cond_signal (&sq->turn);
1294 sq->last_query = FALSE;
1295 g_cond_signal (&sq->query_handled);
1296 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1298 GST_LOG_OBJECT (mq, "SingleQueue %d : pausing task", sq->id);
1299 result = gst_pad_pause_task (sq->srcpad);
1300 sq->sink_tainted = sq->src_tainted = TRUE;
1302 gst_single_queue_flush_queue (sq, full);
1304 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1305 gst_segment_init (&sq->sink_segment, GST_FORMAT_TIME);
1306 gst_segment_init (&sq->src_segment, GST_FORMAT_TIME);
1307 sq->has_src_segment = FALSE;
1308 /* All pads start off not-linked for a smooth kick-off */
1309 sq->srcresult = GST_FLOW_OK;
1312 sq->max_size.visible = mq->max_size.visible;
1316 sq->last_oldid = G_MAXUINT32;
1317 sq->next_time = GST_CLOCK_STIME_NONE;
1318 sq->last_time = GST_CLOCK_STIME_NONE;
1319 sq->cached_sinktime = GST_CLOCK_STIME_NONE;
1320 sq->group_high_time = GST_CLOCK_STIME_NONE;
1321 gst_data_queue_set_flushing (sq->queue, FALSE);
1323 /* We will become active again on the next buffer/gap */
1326 /* Reset high time to be recomputed next */
1327 mq->high_time = GST_CLOCK_STIME_NONE;
1329 sq->flushing = FALSE;
1330 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1332 GST_LOG_OBJECT (mq, "SingleQueue %d : starting task", sq->id);
1334 gst_pad_start_task (sq->srcpad, (GstTaskFunction) gst_multi_queue_loop,
1340 /* WITH LOCK TAKEN */
1342 get_buffering_level (GstSingleQueue * sq)
1344 GstDataQueueSize size;
1345 gint buffering_level, tmp;
1347 gst_data_queue_get_level (sq->queue, &size);
1349 GST_DEBUG_OBJECT (sq->mqueue,
1350 "queue %d: visible %u/%u, bytes %u/%u, time %" G_GUINT64_FORMAT "/%"
1351 G_GUINT64_FORMAT, sq->id, size.visible, sq->max_size.visible,
1352 size.bytes, sq->max_size.bytes, sq->cur_time, sq->max_size.time);
1354 /* get bytes and time buffer levels and take the max */
1355 if (sq->is_eos || sq->srcresult == GST_FLOW_NOT_LINKED || sq->is_sparse) {
1356 buffering_level = MAX_BUFFERING_LEVEL;
1358 buffering_level = 0;
1359 if (sq->max_size.time > 0) {
1361 gst_util_uint64_scale (sq->cur_time,
1362 MAX_BUFFERING_LEVEL, sq->max_size.time);
1363 buffering_level = MAX (buffering_level, tmp);
1365 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1366 /*RVU patch : rvu adaptive buffering */
1367 if (sq->mqueue->enhancement_buffering == TRUE)
1368 GST_LOG_OBJECT (sq->mqueue,
1369 "MULTIQUEUE ENHANCEMENT BUFFERING SOLUTION ENABLE!\n");
1371 if (sq->mqueue->enhancement_buffering == FALSE) {
1372 if (sq->max_size.bytes > 0) {
1373 tmp = (size.bytes * 100) / sq->max_size.bytes;
1374 percent = MAX (percent, tmp);
1377 GST_LOG_OBJECT (sq->mqueue, "disable bytes buffering profile!\n");
1380 if (sq->max_size.bytes > 0) {
1382 gst_util_uint64_scale_int (size.bytes,
1383 MAX_BUFFERING_LEVEL, sq->max_size.bytes);
1384 buffering_level = MAX (buffering_level, tmp);
1389 return buffering_level;
1392 /* WITH LOCK TAKEN */
1394 update_buffering (GstMultiQueue * mq, GstSingleQueue * sq)
1396 gint buffering_level, percent;
1397 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1398 /*RVU patch : disable mq audio buffering solution */
1399 GstPad *audio_pad = NULL;
1400 GstCaps *audio_caps = NULL;
1401 GstStructure *audio_caps_str = NULL;
1402 const char *audio_mime = NULL;
1403 const char *audio_stream_type = NULL;
1405 /* nothing to dowhen we are not in buffering mode */
1406 if (!mq->use_buffering)
1409 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1410 /*RVU patch : disable mq audio buffering solution */
1411 if ((sq != NULL) && (mq->disable_audio_buffering == TRUE)) {
1412 GST_LOG_OBJECT (mq, "disable audio buffering solution start!\n");
1413 audio_pad = GST_PAD_PEER (sq->sinkpad);
1414 audio_caps = gst_pad_get_current_caps (audio_pad);
1415 if (NULL == audio_caps) {
1416 GST_LOG_OBJECT (mq, "audio caps is null!\n");
1420 audio_caps_str = gst_caps_get_structure (audio_caps, 0);
1421 if (NULL == audio_caps_str) {
1422 GST_LOG_OBJECT (mq, "audio caps string is NULL!\n");
1426 audio_mime = gst_structure_get_name (audio_caps_str);
1427 if (NULL == audio_mime) {
1428 GST_LOG_OBJECT (mq, "audio caps string mime is NULL!\n");
1432 GST_LOG_OBJECT (mq, "audio_mime:[%s]\n", audio_mime);
1433 if (g_strrstr (audio_mime, "audio")) {
1435 "non-drm audio single queue!, skip audio buffering\n");
1437 } else if (g_strrstr (audio_mime, "drm")) {
1439 gst_structure_get_string (audio_caps_str, "stream-type");
1440 if (NULL == audio_stream_type) {
1441 GST_LOG_OBJECT (mq, "drm audio single queue can not get stream-type\n");
1444 if (g_strrstr (audio_stream_type, "audio")) {
1445 GST_LOG_OBJECT (mq, "drm audio single queue!, skip audio buffering!\n");
1449 GST_LOG_OBJECT (mq, "disable audio buffering solution end!\n");
1453 if (audio_caps != NULL) {
1455 "audio caps release for disable audio buffering solution!\n");
1456 gst_caps_unref (audio_caps);
1461 buffering_level = get_buffering_level (sq);
1463 /* scale so that if buffering_level equals the high watermark,
1464 * the percentage is 100% */
1465 percent = gst_util_uint64_scale (buffering_level, 100, mq->high_watermark);
1470 if (mq->buffering) {
1471 if (buffering_level >= mq->high_watermark) {
1472 mq->buffering = FALSE;
1474 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1475 /*RVU patch : rvu reset buffering */
1476 if (mq->buffering_reset) {
1477 if (percent < mq->low_percent) {
1478 mq->buffering = TRUE;
1479 mq->percent = percent;
1480 mq->percent_changed = TRUE;
1484 /* make sure it increases */
1485 percent = MAX (mq->buffering_percent, percent);
1487 SET_PERCENT (mq, percent);
1488 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1489 /*RVU patch : adaptive buffering solution*/
1490 if (mq->enhancement_buffering == TRUE) {
1491 if (percent >= mq->high_percent) {
1492 mq->percent_changed = TRUE;
1493 GST_LOG_OBJECT (mq, "MULTIQUEUE ENHANCEMENT BUFFERING!\n");
1499 gboolean is_buffering = TRUE;
1501 for (iter = mq->queues; iter; iter = g_list_next (iter)) {
1502 GstSingleQueue *oq = (GstSingleQueue *) iter->data;
1504 if (get_buffering_level (oq) >= mq->high_watermark) {
1505 is_buffering = FALSE;
1511 if (is_buffering && buffering_level < mq->low_watermark) {
1512 mq->buffering = TRUE;
1513 SET_PERCENT (mq, percent);
1516 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
1517 /*common update buffering */
1518 /*while starts buffering, need restore start time */
1519 if (mq->enable_buffering_opt) {
1520 if (percent < mq->low_percent && mq->buffering == TRUE) {
1521 struct timeval tv = { 0 };
1523 gettimeofday (&tv, NULL);
1525 mq->buffering_start_time =
1526 GST_SECOND * (guint64) tv.tv_sec + (guint64) tv.tv_usec * GST_USECOND;
1527 /*update all single queue */
1528 for (iter = mq->queues; iter; iter = g_list_next (iter)) {
1529 GstSingleQueue *oq = (GstSingleQueue *) iter->data;
1530 oq->cur_time_of_begin_buffering = oq->cur_time;
1532 GST_DEBUG_OBJECT (mq,
1533 "update buffering start time, cur_time is : %" G_GUINT64_FORMAT,
1534 sq->cur_time_of_begin_buffering);
1535 } else if (mq->buffering == TRUE) {
1536 struct timeval tv = { 0 };
1537 gettimeofday (&tv, NULL);
1538 GstClockTime buffering_duration = sq->cur_time;
1540 GST_SECOND * (guint64) tv.tv_sec + (guint64) tv.tv_usec * GST_USECOND;
1541 guint64 elapsed_time = 0;
1543 /*caculate elapsed time */
1544 tmp_time -= mq->buffering_start_time;
1545 elapsed_time = tmp_time;
1546 /*buffering percentage increase until its src pad is blocked, */
1547 if (sq->cur_time > sq->cur_time_of_begin_buffering)
1548 buffering_duration = sq->cur_time - sq->cur_time_of_begin_buffering;
1550 GST_DEBUG_OBJECT (mq,
1551 "%s, elapsed time is: %" G_GUINT64_FORMAT " cur_time is: %"
1552 G_GUINT64_FORMAT, sq->sq_stream_type == SQ_VIDEO_STREAM ? "vq" : "aq",
1553 elapsed_time, buffering_duration);
1554 tmp_time /= GST_SECOND;
1556 /*demuxer speed is lower than decoder */
1557 if (tmp_time > 0 && (tmp_time % 3 == 0)
1558 && buffering_duration < elapsed_time
1559 && sq->sq_stream_type == SQ_VIDEO_STREAM) {
1560 GstFormat format = GST_FORMAT_TIME;
1561 guint64 cur_position = sq->srctime;
1562 GstCaps *video_caps = NULL;
1563 GstStructure *caps_structure = NULL;
1564 gint rnum = 0, rdenom = 1;
1565 gint r_framerate = 0, remaining_frame = 0, instant_throughput =
1566 0, estimated_video_frame_count = 0;
1567 GstDataQueueSize size;
1569 if (cur_position <= 0 || mq->stream_duration <= 0) {
1570 GST_DEBUG_OBJECT (mq, "no duration or position");
1573 gst_data_queue_get_level (sq->queue, &size);
1575 video_caps = gst_pad_get_current_caps (sq->sinkpad);
1576 GST_DEBUG_OBJECT (mq, "stream caps: %" GST_PTR_FORMAT, video_caps);
1578 if (video_caps != NULL) {
1579 caps_structure = gst_caps_get_structure (video_caps, 0);
1581 if (caps_structure != NULL)
1582 gst_structure_get_fraction (caps_structure, "r_framerate", &rnum,
1585 gst_caps_unref (video_caps);
1592 r_framerate = rnum / rdenom;
1594 GST_DEBUG_OBJECT (mq, "r_framerate is %d ", r_framerate);
1596 remaining_frame = (mq->stream_duration - cur_position) * r_framerate / GST_SECOND - size.visible; // packets num in video queue;
1597 instant_throughput = size.visible * GST_SECOND / elapsed_time; // packets num / per seconds
1598 GST_DEBUG_OBJECT (mq, "remaining_fram is %d, instant_throughput is %d",
1599 remaining_frame, instant_throughput);
1600 if (remaining_frame != 0)
1601 estimated_video_frame_count =
1602 (int) ((remaining_frame * r_framerate) / (r_framerate +
1603 instant_throughput));
1608 #ifdef TIZEN_PROFILE_TV
1609 /*RVU patch : rvu case disable audio buffering */
1612 if (audio_caps != NULL) {
1613 gst_caps_unref (audio_caps);
1616 GST_LOG_OBJECT (mq, "DISABLE AUDIO BUFFERING MESSAGE HANDLE!\n");
1622 gst_multi_queue_post_buffering (GstMultiQueue * mq)
1624 GstMessage *msg = NULL;
1626 g_mutex_lock (&mq->buffering_post_lock);
1627 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1628 if (mq->buffering_percent_changed) {
1629 gint percent = mq->buffering_percent;
1631 mq->buffering_percent_changed = FALSE;
1633 GST_DEBUG_OBJECT (mq, "Going to post buffering: %d%%", percent);
1634 msg = gst_message_new_buffering (GST_OBJECT_CAST (mq), percent);
1636 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1639 gst_element_post_message (GST_ELEMENT_CAST (mq), msg);
1641 g_mutex_unlock (&mq->buffering_post_lock);
1645 recheck_buffering_status (GstMultiQueue * mq)
1647 if (!mq->use_buffering && mq->buffering) {
1648 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1649 mq->buffering = FALSE;
1650 GST_DEBUG_OBJECT (mq,
1651 "Buffering property disabled, but queue was still buffering; "
1652 "setting buffering percentage to 100%%");
1653 SET_PERCENT (mq, 100);
1654 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1657 if (mq->use_buffering) {
1661 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1663 /* force buffering percentage to be recalculated */
1664 old_perc = mq->buffering_percent;
1665 mq->buffering_percent = 0;
1669 GstSingleQueue *q = (GstSingleQueue *) tmp->data;
1670 update_buffering (mq, q);
1671 gst_data_queue_limits_changed (q->queue);
1672 tmp = g_list_next (tmp);
1675 GST_DEBUG_OBJECT (mq,
1676 "Recalculated buffering percentage: old: %d%% new: %d%%",
1677 old_perc, mq->buffering_percent);
1679 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1682 gst_multi_queue_post_buffering (mq);
1686 calculate_interleave (GstMultiQueue * mq)
1688 GstClockTimeDiff low, high;
1689 GstClockTime interleave;
1692 low = high = GST_CLOCK_STIME_NONE;
1693 interleave = mq->interleave;
1694 /* Go over all single queues and calculate lowest/highest value */
1695 for (tmp = mq->queues; tmp; tmp = tmp->next) {
1696 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
1697 /* Ignore sparse streams for interleave calculation */
1700 /* If a stream is not active yet (hasn't received any buffers), set
1701 * a maximum interleave to allow it to receive more data */
1704 "queue %d is not active yet, forcing interleave to 5s", sq->id);
1705 mq->interleave = 5 * GST_SECOND;
1706 /* Update max-size time */
1707 mq->max_size.time = mq->interleave;
1708 SET_CHILD_PROPERTY (mq, time);
1711 if (GST_CLOCK_STIME_IS_VALID (sq->cached_sinktime)) {
1712 if (low == GST_CLOCK_STIME_NONE || sq->cached_sinktime < low)
1713 low = sq->cached_sinktime;
1714 if (high == GST_CLOCK_STIME_NONE || sq->cached_sinktime > high)
1715 high = sq->cached_sinktime;
1718 "queue %d , sinktime:%" GST_STIME_FORMAT " low:%" GST_STIME_FORMAT
1719 " high:%" GST_STIME_FORMAT, sq->id,
1720 GST_STIME_ARGS (sq->cached_sinktime), GST_STIME_ARGS (low),
1721 GST_STIME_ARGS (high));
1724 if (GST_CLOCK_STIME_IS_VALID (low) && GST_CLOCK_STIME_IS_VALID (high)) {
1725 interleave = high - low;
1726 /* Padding of interleave and minimum value */
1727 interleave = (150 * interleave / 100) + mq->min_interleave_time;
1729 /* Update the stored interleave if:
1730 * * No data has arrived yet (high == low)
1731 * * Or it went higher
1732 * * Or it went lower and we've gone past the previous interleave needed */
1733 if (high == low || interleave > mq->interleave ||
1734 ((mq->last_interleave_update + (2 * MIN (GST_SECOND,
1735 mq->interleave)) < low)
1736 && interleave < (mq->interleave * 3 / 4))) {
1737 /* Update the interleave */
1738 mq->interleave = interleave;
1739 mq->last_interleave_update = high;
1740 /* Update max-size time */
1741 mq->max_size.time = mq->interleave;
1742 SET_CHILD_PROPERTY (mq, time);
1747 GST_DEBUG_OBJECT (mq,
1748 "low:%" GST_STIME_FORMAT " high:%" GST_STIME_FORMAT " interleave:%"
1749 GST_TIME_FORMAT " mq->interleave:%" GST_TIME_FORMAT
1750 " last_interleave_update:%" GST_STIME_FORMAT, GST_STIME_ARGS (low),
1751 GST_STIME_ARGS (high), GST_TIME_ARGS (interleave),
1752 GST_TIME_ARGS (mq->interleave),
1753 GST_STIME_ARGS (mq->last_interleave_update));
1757 /* calculate the diff between running time on the sink and src of the queue.
1758 * This is the total amount of time in the queue.
1759 * WITH LOCK TAKEN */
1761 update_time_level (GstMultiQueue * mq, GstSingleQueue * sq)
1763 GstClockTimeDiff sink_time, src_time;
1765 if (sq->sink_tainted) {
1766 sink_time = sq->sinktime = my_segment_to_running_time (&sq->sink_segment,
1767 sq->sink_segment.position);
1769 GST_DEBUG_OBJECT (mq,
1770 "queue %d sink_segment.position:%" GST_TIME_FORMAT ", sink_time:%"
1771 GST_STIME_FORMAT, sq->id, GST_TIME_ARGS (sq->sink_segment.position),
1772 GST_STIME_ARGS (sink_time));
1774 if (G_UNLIKELY (sq->last_time == GST_CLOCK_STIME_NONE)) {
1775 /* If the single queue still doesn't have a last_time set, this means
1776 * that nothing has been pushed out yet.
1777 * In order for the high_time computation to be as efficient as possible,
1778 * we set the last_time */
1779 sq->last_time = sink_time;
1781 if (G_UNLIKELY (sink_time != GST_CLOCK_STIME_NONE)) {
1782 /* if we have a time, we become untainted and use the time */
1783 sq->sink_tainted = FALSE;
1784 if (mq->use_interleave) {
1785 sq->cached_sinktime = sink_time;
1786 calculate_interleave (mq);
1790 sink_time = sq->sinktime;
1792 if (sq->src_tainted) {
1793 GstSegment *segment;
1796 if (sq->has_src_segment) {
1797 segment = &sq->src_segment;
1798 position = sq->src_segment.position;
1801 * If the src pad had no segment yet, use the sink segment
1802 * to avoid signalling overrun if the received sink segment has a
1803 * a position > max-size-time while the src pad time would be the default=0
1805 * This can happen when switching pads on chained/adaptive streams and the
1806 * new chain has a segment with a much larger position
1808 segment = &sq->sink_segment;
1809 position = sq->sink_segment.position;
1812 src_time = sq->srctime = my_segment_to_running_time (segment, position);
1813 /* if we have a time, we become untainted and use the time */
1814 if (G_UNLIKELY (src_time != GST_CLOCK_STIME_NONE)) {
1815 sq->src_tainted = FALSE;
1818 src_time = sq->srctime;
1820 GST_DEBUG_OBJECT (mq,
1821 "queue %d, sink %" GST_STIME_FORMAT ", src %" GST_STIME_FORMAT, sq->id,
1822 GST_STIME_ARGS (sink_time), GST_STIME_ARGS (src_time));
1824 /* This allows for streams with out of order timestamping - sometimes the
1825 * emerging timestamp is later than the arriving one(s) */
1826 if (G_LIKELY (GST_CLOCK_STIME_IS_VALID (sink_time) &&
1827 GST_CLOCK_STIME_IS_VALID (src_time) && sink_time > src_time))
1828 sq->cur_time = sink_time - src_time;
1832 /* updating the time level can change the buffering state */
1833 update_buffering (mq, sq);
1838 /* take a SEGMENT event and apply the values to segment, updating the time
1839 * level of queue. */
1841 apply_segment (GstMultiQueue * mq, GstSingleQueue * sq, GstEvent * event,
1842 GstSegment * segment)
1844 gst_event_copy_segment (event, segment);
1846 /* now configure the values, we use these to track timestamps on the
1848 if (segment->format != GST_FORMAT_TIME) {
1849 /* non-time format, pretent the current time segment is closed with a
1850 * 0 start and unknown stop time. */
1851 segment->format = GST_FORMAT_TIME;
1856 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1858 /* Make sure we have a valid initial segment position (and not garbage
1860 if (segment->rate > 0.0)
1861 segment->position = segment->start;
1863 segment->position = segment->stop;
1864 if (segment == &sq->sink_segment)
1865 sq->sink_tainted = TRUE;
1867 sq->has_src_segment = TRUE;
1868 sq->src_tainted = TRUE;
1871 GST_DEBUG_OBJECT (mq,
1872 "queue %d, configured SEGMENT %" GST_SEGMENT_FORMAT, sq->id, segment);
1874 /* segment can update the time level of the queue */
1875 update_time_level (mq, sq);
1877 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1878 gst_multi_queue_post_buffering (mq);
1881 /* take a buffer and update segment, updating the time level of the queue. */
1883 apply_buffer (GstMultiQueue * mq, GstSingleQueue * sq, GstClockTime timestamp,
1884 GstClockTime duration, GstSegment * segment)
1886 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1888 /* if no timestamp is set, assume it's continuous with the previous
1890 if (timestamp == GST_CLOCK_TIME_NONE)
1891 timestamp = segment->position;
1894 if (duration != GST_CLOCK_TIME_NONE)
1895 timestamp += duration;
1897 GST_DEBUG_OBJECT (mq, "queue %d, %s position updated to %" GST_TIME_FORMAT,
1898 sq->id, segment == &sq->sink_segment ? "sink" : "src",
1899 GST_TIME_ARGS (timestamp));
1901 segment->position = timestamp;
1903 if (segment == &sq->sink_segment)
1904 sq->sink_tainted = TRUE;
1906 sq->src_tainted = TRUE;
1908 /* calc diff with other end */
1909 update_time_level (mq, sq);
1910 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1911 gst_multi_queue_post_buffering (mq);
1915 apply_gap (GstMultiQueue * mq, GstSingleQueue * sq, GstEvent * event,
1916 GstSegment * segment)
1918 GstClockTime timestamp;
1919 GstClockTime duration;
1921 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
1923 gst_event_parse_gap (event, ×tamp, &duration);
1925 if (GST_CLOCK_TIME_IS_VALID (timestamp)) {
1927 if (GST_CLOCK_TIME_IS_VALID (duration)) {
1928 timestamp += duration;
1931 segment->position = timestamp;
1933 if (segment == &sq->sink_segment)
1934 sq->sink_tainted = TRUE;
1936 sq->src_tainted = TRUE;
1938 /* calc diff with other end */
1939 update_time_level (mq, sq);
1942 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
1943 gst_multi_queue_post_buffering (mq);
1946 static GstClockTimeDiff
1947 get_running_time (GstSegment * segment, GstMiniObject * object, gboolean end)
1949 GstClockTimeDiff time = GST_CLOCK_STIME_NONE;
1951 if (GST_IS_BUFFER (object)) {
1952 GstBuffer *buf = GST_BUFFER_CAST (object);
1953 GstClockTime btime = GST_BUFFER_DTS_OR_PTS (buf);
1955 if (GST_CLOCK_TIME_IS_VALID (btime)) {
1956 if (end && GST_BUFFER_DURATION_IS_VALID (buf))
1957 btime += GST_BUFFER_DURATION (buf);
1958 if (btime > segment->stop)
1959 btime = segment->stop;
1960 time = my_segment_to_running_time (segment, btime);
1962 } else if (GST_IS_BUFFER_LIST (object)) {
1963 GstBufferList *list = GST_BUFFER_LIST_CAST (object);
1967 n = gst_buffer_list_length (list);
1968 for (i = 0; i < n; i++) {
1970 buf = gst_buffer_list_get (list, i);
1971 btime = GST_BUFFER_DTS_OR_PTS (buf);
1972 if (GST_CLOCK_TIME_IS_VALID (btime)) {
1973 if (end && GST_BUFFER_DURATION_IS_VALID (buf))
1974 btime += GST_BUFFER_DURATION (buf);
1975 if (btime > segment->stop)
1976 btime = segment->stop;
1977 time = my_segment_to_running_time (segment, btime);
1984 } else if (GST_IS_EVENT (object)) {
1985 GstEvent *event = GST_EVENT_CAST (object);
1987 /* For newsegment events return the running time of the start position */
1988 if (GST_EVENT_TYPE (event) == GST_EVENT_SEGMENT) {
1989 const GstSegment *new_segment;
1991 gst_event_parse_segment (event, &new_segment);
1992 if (new_segment->format == GST_FORMAT_TIME) {
1994 my_segment_to_running_time ((GstSegment *) new_segment,
1995 new_segment->start);
2004 static GstFlowReturn
2005 gst_single_queue_push_one (GstMultiQueue * mq, GstSingleQueue * sq,
2006 GstMiniObject * object, gboolean * allow_drop)
2008 GstFlowReturn result = sq->srcresult;
2010 if (GST_IS_BUFFER (object)) {
2012 GstClockTime timestamp, duration;
2014 buffer = GST_BUFFER_CAST (object);
2015 timestamp = GST_BUFFER_DTS_OR_PTS (buffer);
2016 duration = GST_BUFFER_DURATION (buffer);
2018 apply_buffer (mq, sq, timestamp, duration, &sq->src_segment);
2020 /* Applying the buffer may have made the queue non-full again, unblock it if needed */
2021 gst_data_queue_limits_changed (sq->queue);
2023 if (G_UNLIKELY (*allow_drop)) {
2024 GST_DEBUG_OBJECT (mq,
2025 "SingleQueue %d : Dropping EOS buffer %p with ts %" GST_TIME_FORMAT,
2026 sq->id, buffer, GST_TIME_ARGS (timestamp));
2027 gst_buffer_unref (buffer);
2029 GST_DEBUG_OBJECT (mq,
2030 "SingleQueue %d : Pushing buffer %p with ts %" GST_TIME_FORMAT,
2031 sq->id, buffer, GST_TIME_ARGS (timestamp));
2032 result = gst_pad_push (sq->srcpad, buffer);
2034 } else if (GST_IS_EVENT (object)) {
2037 event = GST_EVENT_CAST (object);
2039 switch (GST_EVENT_TYPE (event)) {
2041 result = GST_FLOW_EOS;
2042 if (G_UNLIKELY (*allow_drop))
2043 *allow_drop = FALSE;
2045 case GST_EVENT_SEGMENT:
2046 apply_segment (mq, sq, event, &sq->src_segment);
2047 /* Applying the segment may have made the queue non-full again, unblock it if needed */
2048 gst_data_queue_limits_changed (sq->queue);
2049 if (G_UNLIKELY (*allow_drop)) {
2050 result = GST_FLOW_OK;
2051 *allow_drop = FALSE;
2055 apply_gap (mq, sq, event, &sq->src_segment);
2056 /* Applying the gap may have made the queue non-full again, unblock it if needed */
2057 gst_data_queue_limits_changed (sq->queue);
2063 if (G_UNLIKELY (*allow_drop)) {
2064 GST_DEBUG_OBJECT (mq,
2065 "SingleQueue %d : Dropping EOS event %p of type %s",
2066 sq->id, event, GST_EVENT_TYPE_NAME (event));
2067 gst_event_unref (event);
2069 GST_DEBUG_OBJECT (mq,
2070 "SingleQueue %d : Pushing event %p of type %s",
2071 sq->id, event, GST_EVENT_TYPE_NAME (event));
2073 gst_pad_push_event (sq->srcpad, event);
2075 } else if (GST_IS_QUERY (object)) {
2079 query = GST_QUERY_CAST (object);
2081 if (G_UNLIKELY (*allow_drop)) {
2082 GST_DEBUG_OBJECT (mq,
2083 "SingleQueue %d : Dropping EOS query %p", sq->id, query);
2084 gst_query_unref (query);
2087 res = gst_pad_peer_query (sq->srcpad, query);
2090 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2091 sq->last_query = res;
2092 sq->last_handled_query = query;
2093 g_cond_signal (&sq->query_handled);
2094 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2096 g_warning ("Unexpected object in singlequeue %u (refcounting problem?)",
2104 static GstMiniObject *
2105 gst_multi_queue_item_steal_object (GstMultiQueueItem * item)
2110 item->object = NULL;
2116 gst_multi_queue_item_destroy (GstMultiQueueItem * item)
2118 if (!item->is_query && item->object)
2119 gst_mini_object_unref (item->object);
2120 g_slice_free (GstMultiQueueItem, item);
2123 /* takes ownership of passed mini object! */
2124 static GstMultiQueueItem *
2125 gst_multi_queue_buffer_item_new (GstMiniObject * object, guint32 curid)
2127 GstMultiQueueItem *item;
2129 item = g_slice_new (GstMultiQueueItem);
2130 item->object = object;
2131 item->destroy = (GDestroyNotify) gst_multi_queue_item_destroy;
2132 item->posid = curid;
2133 item->is_query = GST_IS_QUERY (object);
2135 item->size = gst_buffer_get_size (GST_BUFFER_CAST (object));
2136 item->duration = GST_BUFFER_DURATION (object);
2137 if (item->duration == GST_CLOCK_TIME_NONE)
2139 item->visible = TRUE;
2143 static GstMultiQueueItem *
2144 gst_multi_queue_mo_item_new (GstMiniObject * object, guint32 curid)
2146 GstMultiQueueItem *item;
2148 item = g_slice_new (GstMultiQueueItem);
2149 item->object = object;
2150 item->destroy = (GDestroyNotify) gst_multi_queue_item_destroy;
2151 item->posid = curid;
2152 item->is_query = GST_IS_QUERY (object);
2156 item->visible = FALSE;
2160 /* Each main loop attempts to push buffers until the return value
2161 * is not-linked. not-linked pads are not allowed to push data beyond
2162 * any linked pads, so they don't 'rush ahead of the pack'.
2165 gst_multi_queue_loop (GstPad * pad)
2168 GstMultiQueueItem *item;
2169 GstDataQueueItem *sitem;
2171 GstMiniObject *object = NULL;
2173 GstFlowReturn result;
2174 GstClockTimeDiff next_time;
2176 gboolean do_update_buffering = FALSE;
2177 gboolean dropping = FALSE;
2179 sq = (GstSingleQueue *) gst_pad_get_element_private (pad);
2183 GST_DEBUG_OBJECT (mq, "SingleQueue %d : trying to pop an object", sq->id);
2187 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
2188 if (mq->stream_duration == 0) {
2189 GstPad *peer = NULL;
2190 peer = gst_pad_get_peer (sq->sinkpad);
2192 if (!gst_pad_query_duration (peer, GST_FORMAT_TIME,
2193 &(mq->stream_duration)))
2194 GST_WARNING_OBJECT (mq, "Could not query upstream length!");
2195 gst_object_unref (peer);
2199 /* Get something from the queue, blocking until that happens, or we get
2201 if (!(gst_data_queue_pop (sq->queue, &sitem)))
2204 item = (GstMultiQueueItem *) sitem;
2205 newid = item->posid;
2207 /* steal the object and destroy the item */
2208 object = gst_multi_queue_item_steal_object (item);
2209 gst_multi_queue_item_destroy (item);
2211 is_buffer = GST_IS_BUFFER (object);
2213 /* Get running time of the item. Events will have GST_CLOCK_STIME_NONE */
2214 next_time = get_running_time (&sq->src_segment, object, FALSE);
2216 GST_LOG_OBJECT (mq, "SingleQueue %d : newid:%d , oldid:%d",
2217 sq->id, newid, sq->last_oldid);
2219 /* If we're not-linked, we do some extra work because we might need to
2220 * wait before pushing. If we're linked but there's a gap in the IDs,
2221 * or it's the first loop, or we just passed the previous highid,
2222 * we might need to wake some sleeping pad up, so there's extra work
2224 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2225 if (sq->srcresult == GST_FLOW_NOT_LINKED
2226 || (sq->last_oldid == G_MAXUINT32) || (newid != (sq->last_oldid + 1))
2227 || sq->last_oldid > mq->highid) {
2228 GST_LOG_OBJECT (mq, "CHECKING sq->srcresult: %s",
2229 gst_flow_get_name (sq->srcresult));
2231 /* Check again if we're flushing after the lock is taken,
2232 * the flush flag might have been changed in the meantime */
2234 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2238 /* Update the nextid so other threads know when to wake us up */
2240 /* Take into account the extra cache time since we're unlinked */
2241 if (GST_CLOCK_STIME_IS_VALID (next_time))
2242 next_time += mq->unlinked_cache_time;
2243 sq->next_time = next_time;
2245 /* Update the oldid (the last ID we output) for highid tracking */
2246 if (sq->last_oldid != G_MAXUINT32)
2247 sq->oldid = sq->last_oldid;
2249 if (sq->srcresult == GST_FLOW_NOT_LINKED) {
2250 gboolean should_wait;
2251 /* Go to sleep until it's time to push this buffer */
2253 /* Recompute the highid */
2254 compute_high_id (mq);
2255 /* Recompute the high time */
2256 compute_high_time (mq, sq->groupid);
2258 GST_DEBUG_OBJECT (mq,
2259 "groupid %d high_time %" GST_STIME_FORMAT " next_time %"
2260 GST_STIME_FORMAT, sq->groupid, GST_STIME_ARGS (sq->group_high_time),
2261 GST_STIME_ARGS (next_time));
2263 if (mq->sync_by_running_time) {
2264 if (sq->group_high_time == GST_CLOCK_STIME_NONE) {
2265 should_wait = GST_CLOCK_STIME_IS_VALID (next_time) &&
2266 (mq->high_time == GST_CLOCK_STIME_NONE
2267 || next_time > mq->high_time);
2269 should_wait = GST_CLOCK_STIME_IS_VALID (next_time) &&
2270 next_time > sq->group_high_time;
2273 should_wait = newid > mq->highid;
2275 while (should_wait && sq->srcresult == GST_FLOW_NOT_LINKED) {
2277 GST_DEBUG_OBJECT (mq,
2278 "queue %d sleeping for not-linked wakeup with "
2279 "newid %u, highid %u, next_time %" GST_STIME_FORMAT
2280 ", high_time %" GST_STIME_FORMAT, sq->id, newid, mq->highid,
2281 GST_STIME_ARGS (next_time), GST_STIME_ARGS (sq->group_high_time));
2283 /* Wake up all non-linked pads before we sleep */
2284 wake_up_next_non_linked (mq);
2287 g_cond_wait (&sq->turn, &mq->qlock);
2291 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2295 /* Recompute the high time and ID */
2296 compute_high_time (mq, sq->groupid);
2297 compute_high_id (mq);
2299 GST_DEBUG_OBJECT (mq, "queue %d woken from sleeping for not-linked "
2300 "wakeup with newid %u, highid %u, next_time %" GST_STIME_FORMAT
2301 ", high_time %" GST_STIME_FORMAT " mq high_time %" GST_STIME_FORMAT,
2302 sq->id, newid, mq->highid,
2303 GST_STIME_ARGS (next_time), GST_STIME_ARGS (sq->group_high_time),
2304 GST_STIME_ARGS (mq->high_time));
2306 if (mq->sync_by_running_time) {
2307 if (sq->group_high_time == GST_CLOCK_STIME_NONE) {
2308 should_wait = GST_CLOCK_STIME_IS_VALID (next_time) &&
2309 (mq->high_time == GST_CLOCK_STIME_NONE
2310 || next_time > mq->high_time);
2312 should_wait = GST_CLOCK_STIME_IS_VALID (next_time) &&
2313 next_time > sq->group_high_time;
2316 should_wait = newid > mq->highid;
2319 /* Re-compute the high_id in case someone else pushed */
2320 compute_high_id (mq);
2321 compute_high_time (mq, sq->groupid);
2323 compute_high_id (mq);
2324 compute_high_time (mq, sq->groupid);
2325 /* Wake up all non-linked pads */
2326 wake_up_next_non_linked (mq);
2328 /* We're done waiting, we can clear the nextid and nexttime */
2330 sq->next_time = GST_CLOCK_STIME_NONE;
2332 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2337 GST_LOG_OBJECT (mq, "sq:%d BEFORE PUSHING sq->srcresult: %s", sq->id,
2338 gst_flow_get_name (sq->srcresult));
2340 /* Update time stats */
2341 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2342 next_time = get_running_time (&sq->src_segment, object, TRUE);
2343 if (GST_CLOCK_STIME_IS_VALID (next_time)) {
2344 if (sq->last_time == GST_CLOCK_STIME_NONE || sq->last_time < next_time)
2345 sq->last_time = next_time;
2346 if (mq->high_time == GST_CLOCK_STIME_NONE || mq->high_time <= next_time) {
2347 /* Wake up all non-linked pads now that we advanced the high time */
2348 mq->high_time = next_time;
2349 wake_up_next_non_linked (mq);
2352 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2354 /* Try to push out the new object */
2355 result = gst_single_queue_push_one (mq, sq, object, &dropping);
2358 /* Check if we pushed something already and if this is
2359 * now a switch from an active to a non-active stream.
2361 * If it is, we reset all the waiting streams, let them
2362 * push another buffer to see if they're now active again.
2363 * This allows faster switching between streams and prevents
2364 * deadlocks if downstream does any waiting too.
2366 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2367 if (sq->pushed && sq->srcresult == GST_FLOW_OK
2368 && result == GST_FLOW_NOT_LINKED) {
2371 GST_LOG_OBJECT (mq, "SingleQueue %d : Changed from active to non-active",
2374 compute_high_id (mq);
2375 compute_high_time (mq, sq->groupid);
2376 do_update_buffering = TRUE;
2378 /* maybe no-one is waiting */
2379 if (mq->numwaiting > 0) {
2380 /* Else figure out which singlequeue(s) need waking up */
2381 for (tmp = mq->queues; tmp; tmp = g_list_next (tmp)) {
2382 GstSingleQueue *sq2 = (GstSingleQueue *) tmp->data;
2384 if (sq2->srcresult == GST_FLOW_NOT_LINKED) {
2385 GST_LOG_OBJECT (mq, "Waking up singlequeue %d", sq2->id);
2386 sq2->pushed = FALSE;
2387 sq2->srcresult = GST_FLOW_OK;
2388 g_cond_signal (&sq2->turn);
2397 /* now hold on a bit;
2398 * can not simply throw this result to upstream, because
2399 * that might already be onto another segment, so we have to make
2400 * sure we are relaying the correct info wrt proper segment */
2401 if (result == GST_FLOW_EOS && !dropping &&
2402 sq->srcresult != GST_FLOW_NOT_LINKED) {
2403 GST_DEBUG_OBJECT (mq, "starting EOS drop on sq %d", sq->id);
2405 /* pretend we have not seen EOS yet for upstream's sake */
2406 result = sq->srcresult;
2407 } else if (dropping && gst_data_queue_is_empty (sq->queue)) {
2408 /* queue empty, so stop dropping
2409 * we can commit the result we have now,
2410 * which is either OK after a segment, or EOS */
2411 GST_DEBUG_OBJECT (mq, "committed EOS drop on sq %d", sq->id);
2413 result = GST_FLOW_EOS;
2415 sq->srcresult = result;
2416 sq->last_oldid = newid;
2418 if (do_update_buffering)
2419 update_buffering (mq, sq);
2421 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2422 gst_multi_queue_post_buffering (mq);
2424 GST_LOG_OBJECT (mq, "sq:%d AFTER PUSHING sq->srcresult: %s (is_eos:%d)",
2425 sq->id, gst_flow_get_name (sq->srcresult), GST_PAD_IS_EOS (sq->srcpad));
2427 /* Need to make sure wake up any sleeping pads when we exit */
2428 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2429 if (mq->numwaiting > 0 && (GST_PAD_IS_EOS (sq->srcpad)
2430 || sq->srcresult == GST_FLOW_EOS)) {
2431 compute_high_time (mq, sq->groupid);
2432 compute_high_id (mq);
2433 wake_up_next_non_linked (mq);
2435 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2440 if (result != GST_FLOW_OK && result != GST_FLOW_NOT_LINKED
2441 && result != GST_FLOW_EOS)
2449 gst_mini_object_unref (object);
2451 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2452 sq->last_query = FALSE;
2453 g_cond_signal (&sq->query_handled);
2455 /* Post an error message if we got EOS while downstream
2456 * has returned an error flow return. After EOS there
2457 * will be no further buffer which could propagate the
2459 if (sq->is_eos && sq->srcresult < GST_FLOW_EOS) {
2460 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2461 GST_ELEMENT_FLOW_ERROR (mq, sq->srcresult);
2463 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2466 /* upstream needs to see fatal result ASAP to shut things down,
2467 * but might be stuck in one of our other full queues;
2468 * so empty this one and trigger dynamic queue growth. At
2469 * this point the srcresult is not OK, NOT_LINKED
2470 * or EOS, i.e. a real failure */
2471 gst_single_queue_flush_queue (sq, FALSE);
2472 single_queue_underrun_cb (sq->queue, sq);
2473 gst_data_queue_set_flushing (sq->queue, TRUE);
2474 gst_pad_pause_task (sq->srcpad);
2475 GST_CAT_LOG_OBJECT (multi_queue_debug, mq,
2476 "SingleQueue[%d] task paused, reason:%s",
2477 sq->id, gst_flow_get_name (sq->srcresult));
2482 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
2483 /*RVU patch : set buffering params*/
2485 single_queue_set_stream_type (GstSingleQueue * squeue, GstBuffer * buffer)
2487 if (squeue->sq_stream_type == -1 && buffer) {
2488 GstCaps *buffer_caps = NULL;
2489 GstStructure *caps_str = NULL;
2490 const gchar *mime_type = NULL;
2491 const gchar *drm_stream_type = NULL;
2492 struct timeval tv = { 0 };
2495 buffer_caps = gst_pad_get_current_caps (squeue->sinkpad); //GST_BUFFER_CAPS(buffer);
2496 if (NULL == buffer_caps) {
2497 GST_DEBUG_OBJECT (squeue->mqueue, "cannot get caps from single queue.");
2501 GST_DEBUG_OBJECT (squeue->mqueue, "single queue caps %" GST_PTR_FORMAT,
2504 caps_str = gst_caps_get_structure (buffer_caps, 0);
2505 if (NULL == caps_str) {
2506 GST_DEBUG_OBJECT (squeue->mqueue, "cannot get structure from capse.");
2510 mime_type = gst_structure_get_name (caps_str);
2511 if (NULL == mime_type) {
2512 GST_DEBUG_OBJECT (squeue->mqueue,
2513 "cannot get mimetype from structure.");
2517 drm_stream_type = gst_structure_get_string (caps_str, "stream-type");
2519 if (g_strrstr (mime_type, "video/") || (drm_stream_type
2520 && g_strrstr (drm_stream_type, "video/"))) {
2521 squeue->sq_stream_type = SQ_VIDEO_STREAM;
2522 /*subtitle stream */
2523 if (g_strrstr (mime_type, "video/x-dvb-subpicture"))
2524 squeue->sq_stream_type = SQ_OTHER_STREAM;
2526 gettimeofday (&tv, NULL);
2527 if (squeue->mqueue->buffering_start_time == 0)
2528 squeue->mqueue->buffering_start_time =
2529 GST_SECOND * (guint64) tv.tv_sec +
2530 (guint64) tv.tv_usec * GST_USECOND;
2531 } else if (g_strrstr (mime_type, "audio/") || (drm_stream_type
2532 && g_strrstr (drm_stream_type, "audio/"))) {
2533 squeue->sq_stream_type = SQ_AUDIO_STREAM;
2534 gettimeofday (&tv, NULL);
2535 if (squeue->mqueue->buffering_start_time == 0)
2536 squeue->mqueue->buffering_start_time =
2537 GST_SECOND * (guint64) tv.tv_sec +
2538 (guint64) tv.tv_usec * GST_USECOND;
2540 squeue->sq_stream_type = SQ_OTHER_STREAM;
2547 * gst_multi_queue_chain:
2549 * This is similar to GstQueue's chain function, except:
2550 * _ we don't have leak behaviours,
2551 * _ we push with a unique id (curid)
2553 static GstFlowReturn
2554 gst_multi_queue_chain (GstPad * pad, GstObject * parent, GstBuffer * buffer)
2558 GstMultiQueueItem *item;
2560 GstClockTime timestamp, duration;
2562 sq = gst_pad_get_element_private (pad);
2565 #ifdef RVU_LIVESTREAMING_OPTIMIZATION
2566 if (mq->enable_buffering_opt) {
2567 single_queue_set_stream_type (sq, buffer);
2570 /* if eos, we are always full, so avoid hanging incoming indefinitely */
2576 /* Get a unique incrementing id */
2577 curid = g_atomic_int_add ((gint *) & mq->counter, 1);
2579 timestamp = GST_BUFFER_DTS_OR_PTS (buffer);
2580 duration = GST_BUFFER_DURATION (buffer);
2583 "SingleQueue %d : about to enqueue buffer %p with id %d (pts:%"
2584 GST_TIME_FORMAT " dts:%" GST_TIME_FORMAT " dur:%" GST_TIME_FORMAT ")",
2585 sq->id, buffer, curid, GST_TIME_ARGS (GST_BUFFER_PTS (buffer)),
2586 GST_TIME_ARGS (GST_BUFFER_DTS (buffer)), GST_TIME_ARGS (duration));
2588 item = gst_multi_queue_buffer_item_new (GST_MINI_OBJECT_CAST (buffer), curid);
2590 /* Update interleave before pushing data into queue */
2591 if (mq->use_interleave) {
2592 GstClockTime val = timestamp;
2593 GstClockTimeDiff dval;
2595 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2596 if (val == GST_CLOCK_TIME_NONE)
2597 val = sq->sink_segment.position;
2598 if (duration != GST_CLOCK_TIME_NONE)
2601 dval = my_segment_to_running_time (&sq->sink_segment, val);
2602 if (GST_CLOCK_STIME_IS_VALID (dval)) {
2603 sq->cached_sinktime = dval;
2604 GST_DEBUG_OBJECT (mq,
2605 "Queue %d cached sink time now %" G_GINT64_FORMAT " %"
2606 GST_STIME_FORMAT, sq->id, sq->cached_sinktime,
2607 GST_STIME_ARGS (sq->cached_sinktime));
2608 calculate_interleave (mq);
2610 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2613 if (!(gst_data_queue_push (sq->queue, (GstDataQueueItem *) item)))
2616 /* update time level, we must do this after pushing the data in the queue so
2617 * that we never end up filling the queue first. */
2618 apply_buffer (mq, sq, timestamp, duration, &sq->sink_segment);
2621 return sq->srcresult;
2626 GST_LOG_OBJECT (mq, "SingleQueue %d : exit because task paused, reason: %s",
2627 sq->id, gst_flow_get_name (sq->srcresult));
2628 gst_multi_queue_item_destroy (item);
2633 GST_DEBUG_OBJECT (mq, "we are EOS, dropping buffer, return EOS");
2634 gst_buffer_unref (buffer);
2635 return GST_FLOW_EOS;
2640 gst_multi_queue_sink_activate_mode (GstPad * pad, GstObject * parent,
2641 GstPadMode mode, gboolean active)
2647 sq = (GstSingleQueue *) gst_pad_get_element_private (pad);
2648 mq = (GstMultiQueue *) gst_pad_get_parent (pad);
2650 /* mq is NULL if the pad is activated/deactivated before being
2651 * added to the multiqueue */
2653 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2656 case GST_PAD_MODE_PUSH:
2658 /* All pads start off linked until they push one buffer */
2659 sq->srcresult = GST_FLOW_OK;
2661 gst_data_queue_set_flushing (sq->queue, FALSE);
2663 sq->srcresult = GST_FLOW_FLUSHING;
2664 sq->last_query = FALSE;
2665 g_cond_signal (&sq->query_handled);
2666 gst_data_queue_set_flushing (sq->queue, TRUE);
2668 /* Wait until streaming thread has finished */
2670 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2671 GST_PAD_STREAM_LOCK (pad);
2673 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2674 gst_data_queue_flush (sq->queue);
2676 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2677 GST_PAD_STREAM_UNLOCK (pad);
2679 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2689 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2690 gst_object_unref (mq);
2696 static GstFlowReturn
2697 gst_multi_queue_sink_event (GstPad * pad, GstObject * parent, GstEvent * event)
2702 GstMultiQueueItem *item;
2703 gboolean res = TRUE;
2704 GstFlowReturn flowret = GST_FLOW_OK;
2706 GstEvent *sref = NULL;
2708 sq = (GstSingleQueue *) gst_pad_get_element_private (pad);
2709 mq = (GstMultiQueue *) parent;
2711 type = GST_EVENT_TYPE (event);
2714 case GST_EVENT_STREAM_START:
2716 if (mq->sync_by_running_time) {
2717 GstStreamFlags stream_flags;
2718 gst_event_parse_stream_flags (event, &stream_flags);
2719 if ((stream_flags & GST_STREAM_FLAG_SPARSE)) {
2720 GST_INFO_OBJECT (mq, "SingleQueue %d is a sparse stream", sq->id);
2721 sq->is_sparse = TRUE;
2725 sq->thread = g_thread_self ();
2727 /* Remove EOS flag */
2731 case GST_EVENT_FLUSH_START:
2732 GST_DEBUG_OBJECT (mq, "SingleQueue %d : received flush start event",
2735 res = gst_pad_push_event (sq->srcpad, event);
2737 gst_single_queue_flush (mq, sq, TRUE, FALSE);
2740 case GST_EVENT_FLUSH_STOP:
2741 GST_DEBUG_OBJECT (mq, "SingleQueue %d : received flush stop event",
2744 res = gst_pad_push_event (sq->srcpad, event);
2746 gst_single_queue_flush (mq, sq, FALSE, FALSE);
2749 case GST_EVENT_SEGMENT:
2750 sref = gst_event_ref (event);
2753 /* take ref because the queue will take ownership and we need the event
2754 * afterwards to update the segment */
2755 sref = gst_event_ref (event);
2756 if (mq->use_interleave) {
2757 GstClockTime val, dur;
2759 gst_event_parse_gap (event, &val, &dur);
2760 if (GST_CLOCK_TIME_IS_VALID (val)) {
2761 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2762 if (GST_CLOCK_TIME_IS_VALID (dur))
2764 stime = my_segment_to_running_time (&sq->sink_segment, val);
2765 if (GST_CLOCK_STIME_IS_VALID (stime)) {
2766 sq->cached_sinktime = stime;
2767 calculate_interleave (mq);
2769 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2775 if (!(GST_EVENT_IS_SERIALIZED (event))) {
2776 res = gst_pad_push_event (sq->srcpad, event);
2782 /* if eos, we are always full, so avoid hanging incoming indefinitely */
2786 /* Get an unique incrementing id. */
2787 curid = g_atomic_int_add ((gint *) & mq->counter, 1);
2789 item = gst_multi_queue_mo_item_new ((GstMiniObject *) event, curid);
2791 GST_DEBUG_OBJECT (mq,
2792 "SingleQueue %d : Enqueuing event %p of type %s with id %d",
2793 sq->id, event, GST_EVENT_TYPE_NAME (event), curid);
2795 if (!gst_data_queue_push (sq->queue, (GstDataQueueItem *) item))
2798 /* mark EOS when we received one, we must do that after putting the
2799 * buffer in the queue because EOS marks the buffer as filled. */
2802 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2805 /* Post an error message if we got EOS while downstream
2806 * has returned an error flow return. After EOS there
2807 * will be no further buffer which could propagate the
2809 if (sq->srcresult < GST_FLOW_EOS) {
2810 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2811 GST_ELEMENT_FLOW_ERROR (mq, sq->srcresult);
2813 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2816 /* EOS affects the buffering state */
2817 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2818 update_buffering (mq, sq);
2819 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2820 single_queue_overrun_cb (sq->queue, sq);
2821 gst_multi_queue_post_buffering (mq);
2823 case GST_EVENT_SEGMENT:
2824 apply_segment (mq, sq, sref, &sq->sink_segment);
2825 gst_event_unref (sref);
2826 /* a new segment allows us to accept more buffers if we got EOS
2827 * from downstream */
2828 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2829 if (sq->srcresult == GST_FLOW_EOS)
2830 sq->srcresult = GST_FLOW_OK;
2831 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2835 apply_gap (mq, sq, sref, &sq->sink_segment);
2836 gst_event_unref (sref);
2843 flowret = GST_FLOW_ERROR;
2844 GST_DEBUG_OBJECT (mq, "SingleQueue %d : returning %s", sq->id,
2845 gst_flow_get_name (flowret));
2850 GST_LOG_OBJECT (mq, "SingleQueue %d : exit because task paused, reason: %s",
2851 sq->id, gst_flow_get_name (sq->srcresult));
2853 gst_event_unref (sref);
2854 gst_multi_queue_item_destroy (item);
2855 return sq->srcresult;
2859 GST_DEBUG_OBJECT (mq, "we are EOS, dropping event, return GST_FLOW_EOS");
2860 gst_event_unref (event);
2861 return GST_FLOW_EOS;
2866 gst_multi_queue_sink_query (GstPad * pad, GstObject * parent, GstQuery * query)
2872 sq = (GstSingleQueue *) gst_pad_get_element_private (pad);
2873 mq = (GstMultiQueue *) parent;
2875 switch (GST_QUERY_TYPE (query)) {
2877 if (GST_QUERY_IS_SERIALIZED (query)) {
2879 GstMultiQueueItem *item;
2881 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2882 if (sq->srcresult != GST_FLOW_OK)
2885 /* serialized events go in the queue. We need to be certain that we
2886 * don't cause deadlocks waiting for the query return value. We check if
2887 * the queue is empty (nothing is blocking downstream and the query can
2888 * be pushed for sure) or we are not buffering. If we are buffering,
2889 * the pipeline waits to unblock downstream until our queue fills up
2890 * completely, which can not happen if we block on the query..
2891 * Therefore we only potentially block when we are not buffering. */
2892 if (!mq->use_buffering || gst_data_queue_is_empty (sq->queue)) {
2893 /* Get an unique incrementing id. */
2894 curid = g_atomic_int_add ((gint *) & mq->counter, 1);
2896 item = gst_multi_queue_mo_item_new ((GstMiniObject *) query, curid);
2898 GST_DEBUG_OBJECT (mq,
2899 "SingleQueue %d : Enqueuing query %p of type %s with id %d",
2900 sq->id, query, GST_QUERY_TYPE_NAME (query), curid);
2901 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2902 res = gst_data_queue_push (sq->queue, (GstDataQueueItem *) item);
2903 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2904 if (!res || sq->flushing)
2906 /* it might be that the query has been taken out of the queue
2907 * while we were unlocked. So, we need to check if the last
2908 * handled query is the same one than the one we just
2909 * pushed. If it is, we don't need to wait for the condition
2910 * variable, otherwise we wait for the condition variable to
2912 while (!sq->flushing && sq->srcresult == GST_FLOW_OK
2913 && sq->last_handled_query != query)
2914 g_cond_wait (&sq->query_handled, &mq->qlock);
2915 res = sq->last_query;
2916 sq->last_handled_query = NULL;
2918 GST_DEBUG_OBJECT (mq, "refusing query, we are buffering and the "
2919 "queue is not empty");
2922 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2924 /* default handling */
2925 res = gst_pad_query_default (pad, parent, query);
2933 GST_DEBUG_OBJECT (mq, "Flushing");
2934 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2940 gst_multi_queue_src_activate_mode (GstPad * pad, GstObject * parent,
2941 GstPadMode mode, gboolean active)
2947 sq = (GstSingleQueue *) gst_pad_get_element_private (pad);
2950 GST_DEBUG_OBJECT (mq, "SingleQueue %d", sq->id);
2953 case GST_PAD_MODE_PUSH:
2955 result = gst_single_queue_flush (mq, sq, FALSE, TRUE);
2957 result = gst_single_queue_flush (mq, sq, TRUE, TRUE);
2958 /* make sure streaming finishes */
2959 result |= gst_pad_stop_task (pad);
2970 gst_multi_queue_src_event (GstPad * pad, GstObject * parent, GstEvent * event)
2972 GstSingleQueue *sq = gst_pad_get_element_private (pad);
2973 GstMultiQueue *mq = sq->mqueue;
2976 switch (GST_EVENT_TYPE (event)) {
2977 case GST_EVENT_RECONFIGURE:
2978 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
2979 if (sq->srcresult == GST_FLOW_NOT_LINKED) {
2980 sq->srcresult = GST_FLOW_OK;
2981 g_cond_signal (&sq->turn);
2983 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
2985 ret = gst_pad_push_event (sq->sinkpad, event);
2988 ret = gst_pad_push_event (sq->sinkpad, event);
2996 gst_multi_queue_src_query (GstPad * pad, GstObject * parent, GstQuery * query)
3000 /* FIXME, Handle position offset depending on queue size */
3001 switch (GST_QUERY_TYPE (query)) {
3003 /* default handling */
3004 res = gst_pad_query_default (pad, parent, query);
3011 * Next-non-linked functions
3014 /* WITH LOCK TAKEN */
3016 wake_up_next_non_linked (GstMultiQueue * mq)
3020 /* maybe no-one is waiting */
3021 if (mq->numwaiting < 1)
3024 if (mq->sync_by_running_time && GST_CLOCK_STIME_IS_VALID (mq->high_time)) {
3025 /* Else figure out which singlequeue(s) need waking up */
3026 for (tmp = mq->queues; tmp; tmp = tmp->next) {
3027 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
3028 if (sq->srcresult == GST_FLOW_NOT_LINKED) {
3029 GstClockTimeDiff high_time;
3031 if (GST_CLOCK_STIME_IS_VALID (sq->group_high_time))
3032 high_time = sq->group_high_time;
3034 high_time = mq->high_time;
3036 if (GST_CLOCK_STIME_IS_VALID (sq->next_time) &&
3037 GST_CLOCK_STIME_IS_VALID (high_time)
3038 && sq->next_time <= high_time) {
3039 GST_LOG_OBJECT (mq, "Waking up singlequeue %d", sq->id);
3040 g_cond_signal (&sq->turn);
3045 /* Else figure out which singlequeue(s) need waking up */
3046 for (tmp = mq->queues; tmp; tmp = tmp->next) {
3047 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
3048 if (sq->srcresult == GST_FLOW_NOT_LINKED &&
3049 sq->nextid != 0 && sq->nextid <= mq->highid) {
3050 GST_LOG_OBJECT (mq, "Waking up singlequeue %d", sq->id);
3051 g_cond_signal (&sq->turn);
3057 /* WITH LOCK TAKEN */
3059 compute_high_id (GstMultiQueue * mq)
3061 /* The high-id is either the highest id among the linked pads, or if all
3062 * pads are not-linked, it's the lowest not-linked pad */
3064 guint32 lowest = G_MAXUINT32;
3065 guint32 highid = G_MAXUINT32;
3067 for (tmp = mq->queues; tmp; tmp = g_list_next (tmp)) {
3068 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
3070 GST_LOG_OBJECT (mq, "inspecting sq:%d , nextid:%d, oldid:%d, srcresult:%s",
3071 sq->id, sq->nextid, sq->oldid, gst_flow_get_name (sq->srcresult));
3073 if (sq->srcresult == GST_FLOW_NOT_LINKED) {
3074 /* No need to consider queues which are not waiting */
3075 if (sq->nextid == 0) {
3076 GST_LOG_OBJECT (mq, "sq:%d is not waiting - ignoring", sq->id);
3080 if (sq->nextid < lowest)
3081 lowest = sq->nextid;
3082 } else if (!GST_PAD_IS_EOS (sq->srcpad) && sq->srcresult != GST_FLOW_EOS) {
3083 /* If we don't have a global highid, or the global highid is lower than
3084 * this single queue's last outputted id, store the queue's one,
3085 * unless the singlequeue output is at EOS */
3086 if ((highid == G_MAXUINT32) || (sq->oldid > highid))
3091 if (highid == G_MAXUINT32 || lowest < highid)
3092 mq->highid = lowest;
3094 mq->highid = highid;
3096 GST_LOG_OBJECT (mq, "Highid is now : %u, lowest non-linked %u", mq->highid,
3100 /* WITH LOCK TAKEN */
3102 compute_high_time (GstMultiQueue * mq, guint groupid)
3104 /* The high-time is either the highest last time among the linked
3105 * pads, or if all pads are not-linked, it's the lowest nex time of
3108 GstClockTimeDiff highest = GST_CLOCK_STIME_NONE;
3109 GstClockTimeDiff lowest = GST_CLOCK_STIME_NONE;
3110 GstClockTimeDiff group_high = GST_CLOCK_STIME_NONE;
3111 GstClockTimeDiff group_low = GST_CLOCK_STIME_NONE;
3112 GstClockTimeDiff res;
3113 /* Number of streams which belong to groupid */
3114 guint group_count = 0;
3116 if (!mq->sync_by_running_time)
3117 /* return GST_CLOCK_STIME_NONE; */
3120 for (tmp = mq->queues; tmp; tmp = tmp->next) {
3121 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
3124 "inspecting sq:%d (group:%d) , next_time:%" GST_STIME_FORMAT
3125 ", last_time:%" GST_STIME_FORMAT ", srcresult:%s", sq->id, sq->groupid,
3126 GST_STIME_ARGS (sq->next_time), GST_STIME_ARGS (sq->last_time),
3127 gst_flow_get_name (sq->srcresult));
3129 if (sq->groupid == groupid)
3132 if (sq->srcresult == GST_FLOW_NOT_LINKED) {
3133 /* No need to consider queues which are not waiting */
3134 if (!GST_CLOCK_STIME_IS_VALID (sq->next_time)) {
3135 GST_LOG_OBJECT (mq, "sq:%d is not waiting - ignoring", sq->id);
3139 if (lowest == GST_CLOCK_STIME_NONE || sq->next_time < lowest)
3140 lowest = sq->next_time;
3141 if (sq->groupid == groupid && (group_low == GST_CLOCK_STIME_NONE
3142 || sq->next_time < group_low))
3143 group_low = sq->next_time;
3144 } else if (!GST_PAD_IS_EOS (sq->srcpad) && sq->srcresult != GST_FLOW_EOS) {
3145 /* If we don't have a global high time, or the global high time
3146 * is lower than this single queue's last outputted time, store
3147 * the queue's one, unless the singlequeue output is at EOS. */
3148 if (highest == GST_CLOCK_STIME_NONE
3149 || (sq->last_time != GST_CLOCK_STIME_NONE && sq->last_time > highest))
3150 highest = sq->last_time;
3151 if (sq->groupid == groupid && (group_high == GST_CLOCK_STIME_NONE
3152 || (sq->last_time != GST_CLOCK_STIME_NONE
3153 && sq->last_time > group_high)))
3154 group_high = sq->last_time;
3157 "highest now %" GST_STIME_FORMAT " lowest %" GST_STIME_FORMAT,
3158 GST_STIME_ARGS (highest), GST_STIME_ARGS (lowest));
3159 if (sq->groupid == groupid)
3161 "grouphigh %" GST_STIME_FORMAT " grouplow %" GST_STIME_FORMAT,
3162 GST_STIME_ARGS (group_high), GST_STIME_ARGS (group_low));
3165 if (highest == GST_CLOCK_STIME_NONE)
3166 mq->high_time = lowest;
3168 mq->high_time = highest;
3170 /* If there's only one stream of a given type, use the global high */
3171 if (group_count < 2)
3172 res = GST_CLOCK_STIME_NONE;
3173 else if (group_high == GST_CLOCK_STIME_NONE)
3178 GST_LOG_OBJECT (mq, "group count %d for groupid %u", group_count, groupid);
3180 "MQ High time is now : %" GST_STIME_FORMAT ", group %d high time %"
3181 GST_STIME_FORMAT ", lowest non-linked %" GST_STIME_FORMAT,
3182 GST_STIME_ARGS (mq->high_time), groupid, GST_STIME_ARGS (mq->high_time),
3183 GST_STIME_ARGS (lowest));
3185 for (tmp = mq->queues; tmp; tmp = tmp->next) {
3186 GstSingleQueue *sq = (GstSingleQueue *) tmp->data;
3187 if (groupid == sq->groupid)
3188 sq->group_high_time = res;
3192 #define IS_FILLED(q, format, value) (((q)->max_size.format) != 0 && \
3193 ((q)->max_size.format) <= (value))
3195 #ifdef TIZEN_FEATURE_MQ_MODIFICATION_EXTRA_SIZE_TIME
3196 #define IS_FILLED_EXTRA(q, format, value) ((((q)->extra_size.format) != 0) && (((q)->max_size.format) != 0) && \
3197 (((q)->extra_size.format)+((q)->max_size.format)) <= (value))
3200 * GstSingleQueue functions
3203 single_queue_overrun_cb (GstDataQueue * dq, GstSingleQueue * sq)
3205 GstMultiQueue *mq = sq->mqueue;
3207 GstDataQueueSize size;
3208 gboolean filled = TRUE;
3209 gboolean empty_found = FALSE;
3211 gst_data_queue_get_level (sq->queue, &size);
3214 "Single Queue %d: EOS %d, visible %u/%u, bytes %u/%u, time %"
3215 G_GUINT64_FORMAT "/%" G_GUINT64_FORMAT, sq->id, sq->is_eos, size.visible,
3216 sq->max_size.visible, size.bytes, sq->max_size.bytes, sq->cur_time,
3219 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
3221 /* check if we reached the hard time/bytes limits;
3222 time limit is only taken into account for non-sparse streams */
3223 if (sq->is_eos || IS_FILLED (sq, bytes, size.bytes) ||
3224 (!sq->is_sparse && IS_FILLED (sq, time, sq->cur_time))) {
3228 /* Search for empty queues */
3229 for (tmp = mq->queues; tmp; tmp = g_list_next (tmp)) {
3230 GstSingleQueue *oq = (GstSingleQueue *) tmp->data;
3235 if (oq->srcresult == GST_FLOW_NOT_LINKED) {
3236 GST_LOG_OBJECT (mq, "Queue %d is not-linked", oq->id);
3240 GST_LOG_OBJECT (mq, "Checking Queue %d", oq->id);
3241 if (gst_data_queue_is_empty (oq->queue) && !oq->is_sparse) {
3242 GST_LOG_OBJECT (mq, "Queue %d is empty", oq->id);
3248 /* if hard limits are not reached then we allow one more buffer in the full
3249 * queue, but only if any of the other singelqueues are empty */
3251 if (IS_FILLED (sq, visible, size.visible)) {
3252 sq->max_size.visible = size.visible + 1;
3253 GST_DEBUG_OBJECT (mq,
3254 "Bumping single queue %d max visible to %d",
3255 sq->id, sq->max_size.visible);
3261 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
3263 /* Overrun is always forwarded, since this is blocking the upstream element */
3265 GST_DEBUG_OBJECT (mq, "Queue %d is filled, signalling overrun", sq->id);
3266 g_signal_emit (mq, gst_multi_queue_signals[SIGNAL_OVERRUN], 0);
3271 single_queue_underrun_cb (GstDataQueue * dq, GstSingleQueue * sq)
3273 gboolean empty = TRUE;
3274 GstMultiQueue *mq = sq->mqueue;
3277 if (sq->srcresult == GST_FLOW_NOT_LINKED) {
3278 GST_LOG_OBJECT (mq, "Single Queue %d is empty but not-linked", sq->id);
3282 "Single Queue %d is empty, Checking other single queues", sq->id);
3285 GST_MULTI_QUEUE_MUTEX_LOCK (mq);
3286 for (tmp = mq->queues; tmp; tmp = g_list_next (tmp)) {
3287 GstSingleQueue *oq = (GstSingleQueue *) tmp->data;
3289 if (gst_data_queue_is_full (oq->queue)) {
3290 GstDataQueueSize size;
3292 gst_data_queue_get_level (oq->queue, &size);
3293 if (IS_FILLED (oq, visible, size.visible)) {
3294 oq->max_size.visible = size.visible + 1;
3295 GST_DEBUG_OBJECT (mq,
3296 "queue %d is filled, bumping its max visible to %d", oq->id,
3297 oq->max_size.visible);
3298 gst_data_queue_limits_changed (oq->queue);
3301 if (!gst_data_queue_is_empty (oq->queue) || oq->is_sparse)
3304 GST_MULTI_QUEUE_MUTEX_UNLOCK (mq);
3307 GST_DEBUG_OBJECT (mq, "All queues are empty, signalling it");
3308 g_signal_emit (mq, gst_multi_queue_signals[SIGNAL_UNDERRUN], 0);
3313 single_queue_check_full (GstDataQueue * dataq, guint visible, guint bytes,
3314 guint64 time, GstSingleQueue * sq)
3317 GstMultiQueue *mq = sq->mqueue;
3319 GST_DEBUG_OBJECT (mq,
3320 "queue %d: visible %u/%u, bytes %u/%u, time %" G_GUINT64_FORMAT "/%"
3321 G_GUINT64_FORMAT, sq->id, visible, sq->max_size.visible, bytes,
3322 sq->max_size.bytes, sq->cur_time, sq->max_size.time);
3324 /* we are always filled on EOS */
3328 /* we never go past the max visible items unless we are in buffering mode */
3329 if (!mq->use_buffering && IS_FILLED (sq, visible, visible))
3332 /* check time or bytes */
3333 #ifdef TIZEN_FEATURE_MQ_MODIFICATION_EXTRA_SIZE_TIME
3334 res = IS_FILLED_EXTRA (sq, time, sq->cur_time) || IS_FILLED (sq, bytes, bytes);
3336 res = IS_FILLED (sq, bytes, bytes);
3337 /* We only care about limits in time if we're not a sparse stream or
3338 * we're not syncing by running time */
3339 if (!sq->is_sparse || !mq->sync_by_running_time) {
3340 /* If unlinked, take into account the extra unlinked cache time */
3341 if (mq->sync_by_running_time && sq->srcresult == GST_FLOW_NOT_LINKED) {
3342 if (sq->cur_time > mq->unlinked_cache_time)
3343 res |= IS_FILLED (sq, time, sq->cur_time - mq->unlinked_cache_time);
3347 res |= IS_FILLED (sq, time, sq->cur_time);
3355 gst_single_queue_flush_queue (GstSingleQueue * sq, gboolean full)
3357 GstDataQueueItem *sitem;
3358 GstMultiQueueItem *mitem;
3359 gboolean was_flushing = FALSE;
3361 while (!gst_data_queue_is_empty (sq->queue)) {
3362 GstMiniObject *data;
3364 /* FIXME: If this fails here although the queue is not empty,
3365 * we're flushing... but we want to rescue all sticky
3366 * events nonetheless.
3368 if (!gst_data_queue_pop (sq->queue, &sitem)) {
3369 was_flushing = TRUE;
3370 gst_data_queue_set_flushing (sq->queue, FALSE);
3374 mitem = (GstMultiQueueItem *) sitem;
3376 data = sitem->object;
3378 if (!full && !mitem->is_query && GST_IS_EVENT (data)
3379 && GST_EVENT_IS_STICKY (data)
3380 && GST_EVENT_TYPE (data) != GST_EVENT_SEGMENT
3381 && GST_EVENT_TYPE (data) != GST_EVENT_EOS) {
3382 gst_pad_store_sticky_event (sq->srcpad, GST_EVENT_CAST (data));
3385 sitem->destroy (sitem);
3388 gst_data_queue_flush (sq->queue);
3390 gst_data_queue_set_flushing (sq->queue, TRUE);
3392 GST_MULTI_QUEUE_MUTEX_LOCK (sq->mqueue);
3393 update_buffering (sq->mqueue, sq);
3394 GST_MULTI_QUEUE_MUTEX_UNLOCK (sq->mqueue);
3395 gst_multi_queue_post_buffering (sq->mqueue);
3399 gst_single_queue_free (GstSingleQueue * sq)
3402 gst_data_queue_flush (sq->queue);
3403 g_object_unref (sq->queue);
3404 g_cond_clear (&sq->turn);
3405 g_cond_clear (&sq->query_handled);
3409 static GstSingleQueue *
3410 gst_single_queue_new (GstMultiQueue * mqueue, guint id)
3413 GstMultiQueuePad *mqpad;
3414 GstPadTemplate *templ;
3417 guint temp_id = (id == -1) ? 0 : id;
3419 GST_MULTI_QUEUE_MUTEX_LOCK (mqueue);
3421 /* Find an unused queue ID, if possible the passed one */
3422 for (tmp = mqueue->queues; tmp; tmp = g_list_next (tmp)) {
3423 GstSingleQueue *sq2 = (GstSingleQueue *) tmp->data;
3424 /* This works because the IDs are sorted in ascending order */
3425 if (sq2->id == temp_id) {
3426 /* If this ID was requested by the caller return NULL,
3427 * otherwise just get us the next one */
3429 temp_id = sq2->id + 1;
3431 GST_MULTI_QUEUE_MUTEX_UNLOCK (mqueue);
3434 } else if (sq2->id > temp_id) {
3439 sq = g_new0 (GstSingleQueue, 1);
3442 sq->groupid = DEFAULT_PAD_GROUP_ID;
3443 sq->group_high_time = GST_CLOCK_STIME_NONE;
3445 mqueue->queues = g_list_insert_before (mqueue->queues, tmp, sq);
3446 mqueue->queues_cookie++;
3448 /* copy over max_size and extra_size so we don't need to take the lock
3449 * any longer when checking if the queue is full. */
3450 sq->max_size.visible = mqueue->max_size.visible;
3451 sq->max_size.bytes = mqueue->max_size.bytes;
3452 sq->max_size.time = mqueue->max_size.time;
3454 sq->extra_size.visible = mqueue->extra_size.visible;
3455 sq->extra_size.bytes = mqueue->extra_size.bytes;
3456 sq->extra_size.time = mqueue->extra_size.time;
3458 GST_DEBUG_OBJECT (mqueue, "Creating GstSingleQueue id:%d", sq->id);
3460 sq->mqueue = mqueue;
3461 sq->srcresult = GST_FLOW_FLUSHING;
3463 sq->queue = gst_data_queue_new ((GstDataQueueCheckFullFunction)
3464 single_queue_check_full,
3465 (GstDataQueueFullCallback) single_queue_overrun_cb,
3466 (GstDataQueueEmptyCallback) single_queue_underrun_cb, sq);
3468 sq->is_sparse = FALSE;
3469 sq->flushing = FALSE;
3471 gst_segment_init (&sq->sink_segment, GST_FORMAT_TIME);
3472 gst_segment_init (&sq->src_segment, GST_FORMAT_TIME);
3476 sq->next_time = GST_CLOCK_STIME_NONE;
3477 sq->last_time = GST_CLOCK_STIME_NONE;
3478 g_cond_init (&sq->turn);
3479 g_cond_init (&sq->query_handled);
3481 sq->sinktime = GST_CLOCK_STIME_NONE;
3482 sq->srctime = GST_CLOCK_STIME_NONE;
3483 sq->sink_tainted = TRUE;
3484 sq->src_tainted = TRUE;
3486 #ifdef TIZEN_FEATURE_TRUSTZONE
3487 sq->sq_stream_type = -1;
3489 name = g_strdup_printf ("sink_%u", sq->id);
3490 templ = gst_static_pad_template_get (&sinktemplate);
3491 sq->sinkpad = g_object_new (GST_TYPE_MULTIQUEUE_PAD, "name", name,
3492 "direction", templ->direction, "template", templ, NULL);
3493 gst_object_unref (templ);
3496 mqpad = (GstMultiQueuePad *) sq->sinkpad;
3499 gst_pad_set_chain_function (sq->sinkpad,
3500 GST_DEBUG_FUNCPTR (gst_multi_queue_chain));
3501 gst_pad_set_activatemode_function (sq->sinkpad,
3502 GST_DEBUG_FUNCPTR (gst_multi_queue_sink_activate_mode));
3503 gst_pad_set_event_full_function (sq->sinkpad,
3504 GST_DEBUG_FUNCPTR (gst_multi_queue_sink_event));
3505 gst_pad_set_query_function (sq->sinkpad,
3506 GST_DEBUG_FUNCPTR (gst_multi_queue_sink_query));
3507 gst_pad_set_iterate_internal_links_function (sq->sinkpad,
3508 GST_DEBUG_FUNCPTR (gst_multi_queue_iterate_internal_links));
3509 GST_OBJECT_FLAG_SET (sq->sinkpad, GST_PAD_FLAG_PROXY_CAPS);
3511 name = g_strdup_printf ("src_%u", sq->id);
3512 sq->srcpad = gst_pad_new_from_static_template (&srctemplate, name);
3515 gst_pad_set_activatemode_function (sq->srcpad,
3516 GST_DEBUG_FUNCPTR (gst_multi_queue_src_activate_mode));
3517 gst_pad_set_event_function (sq->srcpad,
3518 GST_DEBUG_FUNCPTR (gst_multi_queue_src_event));
3519 gst_pad_set_query_function (sq->srcpad,
3520 GST_DEBUG_FUNCPTR (gst_multi_queue_src_query));
3521 gst_pad_set_iterate_internal_links_function (sq->srcpad,
3522 GST_DEBUG_FUNCPTR (gst_multi_queue_iterate_internal_links));
3523 GST_OBJECT_FLAG_SET (sq->srcpad, GST_PAD_FLAG_PROXY_CAPS);
3525 gst_pad_set_element_private (sq->sinkpad, (gpointer) sq);
3526 gst_pad_set_element_private (sq->srcpad, (gpointer) sq);
3528 GST_MULTI_QUEUE_MUTEX_UNLOCK (mqueue);
3530 /* only activate the pads when we are not in the NULL state
3531 * and add the pad under the state_lock to prevend state changes
3532 * between activating and adding */
3533 g_rec_mutex_lock (GST_STATE_GET_LOCK (mqueue));
3534 if (GST_STATE_TARGET (mqueue) != GST_STATE_NULL) {
3535 gst_pad_set_active (sq->srcpad, TRUE);
3536 gst_pad_set_active (sq->sinkpad, TRUE);
3538 gst_element_add_pad (GST_ELEMENT (mqueue), sq->srcpad);
3539 gst_element_add_pad (GST_ELEMENT (mqueue), sq->sinkpad);
3540 g_rec_mutex_unlock (GST_STATE_GET_LOCK (mqueue));
3542 GST_DEBUG_OBJECT (mqueue, "GstSingleQueue [%d] created and pads added",