check: allow GstTestClock to handle clock notifications

API: gst_test_clock_peek_id_count()
API: gst_test_clock_has_id()
API: gst_test_clock_peek_next_pending_id()
API: gst_test_clock_wait_for_next_pending_id()
API: gst_test_clock_wait_for_pending_id_count()
API: gst_test_clock_process_next_clock_id()
API: gst_test_clock_get_next_entry_time()

https://bugzilla.gnome.org/show_bug.cgi?id=683012
This commit is contained in:
Sebastian Rasmussen 2012-08-30 01:58:41 +02:00 committed by Tim-Philipp Müller
parent 77005be192
commit 4eeb471e11
5 changed files with 1418 additions and 1 deletions

View file

@ -1009,6 +1009,13 @@ gst_test_clock_new
gst_test_clock_new_with_start_time
gst_test_clock_set_time
gst_test_clock_advance_time
gst_test_clock_peek_id_count
gst_test_clock_has_id
gst_test_clock_peek_next_pending_id
gst_test_clock_wait_for_next_pending_id
gst_test_clock_wait_for_pending_id_count
gst_test_clock_process_next_clock_id
gst_test_clock_get_next_entry_time
<SUBSECTION Standard>
GST_TEST_CLOCK
GST_IS_TEST_CLOCK

View file

@ -94,7 +94,14 @@ LIBGSTCHECK_EXPORTED_FUNCS = \
gst_test_clock_new \
gst_test_clock_new_with_start_time \
gst_test_clock_set_time \
gst_test_clock_advance_time
gst_test_clock_advance_time \
gst_test_clock_peek_id_count \
gst_test_clock_has_id \
gst_test_clock_peek_next_pending_id \
gst_test_clock_wait_for_next_pending_id \
gst_test_clock_wait_for_pending_id_count \
gst_test_clock_process_next_clock_id \
gst_test_clock_get_next_entry_time
LIBGSTCHECK_EXPORTED_SYMBOLS = \
$(LIBGSTCHECK_EXPORTED_VARS) \

View file

@ -55,6 +55,119 @@
* </programlisting>
* </example>
*
* #GstClock allows for setting up single shot or periodic clock notifications
* as well as waiting for these notifications synchronously (using
* gst_clock_id_wait()) or asynchronously (using gst_clock_id_wait_async() or
* gst_clock_id_wait_async_full()). This is used by many GStreamer elements,
* among them #GstBaseSrc and #GstBaseSink.
*
* #GstTestClock keeps track of these clock notifications. By calling
* gst_test_clock_wait_for_next_pending_id() or
* gst_test_clock_wait_for_pending_id_count() a unit tests may wait for the
* next one or several clock notifications to be requested. Additionally unit
* tests may release blocked waits in a controlled fashion by calling
* gst_test_clock_process_next_clock_id(). This way a unit test can control the
* inaccuracy (jitter) of clock notifications, since the test can decide to
* release blocked waits when the clock time has advanced exactly to, or past,
* the requested clock notification time.
*
* There are also interfaces for determining if a notification belongs to a
* #GstTestClock or not, as well as getting the number of requested clock
* notifications so far.
*
* N.B.: When a unit test waits for a certain amount of clock notifications to
* be requested in gst_test_clock_wait_for_next_pending_id() or
* gst_test_clock_wait_for_pending_id_count() then these functions may block
* for a long time. If they block forever then the expected clock notifications
* were never requested from #GstTestClock, and so the assumptions in the code
* of the unit test are wrong. The unit test case runner in #GstCheck is
* expected to catch these cases either by the default test case timeout or the
* one set for the unit test by calling tcase_set_timeout().
*
* The sample code below assumes that the element under test will delay a
* buffer pushed on the source pad by some latency until it arrives on the sink
* pad. Moreover it is assumed that the element will at some point call
* gst_clock_id_wait() to synchronously wait for a specific time. The first
* buffer sent will arrive exactly on time only delayed by the latency. The
* second buffer will arrive a little late (7ms) due to simulated jitter in the
* clock notification.
*
* <example>
* <title>Demonstration of how to work with clock notifications and #GstTestClock</title>
* <programlisting language="c">
* #include &lt;gst/gst.h&gt;
* #include &lt;gst/check/gstcheck.h&gt;
* #include &lt;gst/check/gsttestclock.h&gt;
*
* GstClockTime latency;
* GstElement *element;
* GstPad *srcpad;
* GstClock *clock;
* GstTestClock *test_clock;
* GstBuffer buf;
* GstClockID pending_id;
* GstClockID processed_id;
*
* latency = 42 * GST_MSECOND;
* element = create_element (latency, ...);
* srcpad = get_source_pad (element);
*
* clock = gst_test_clock_new ();
* test_clock = GST_TEST_CLOCK (clock);
* gst_element_set_clock (element, clock);
*
* GST_INFO ("Set time, create and push the first buffer\n");
* gst_test_clock_set_time (test_clock, 0);
* buf = create_test_buffer (gst_clock_get_time (clock), ...);
* gst_assert_cmpint (gst_pad_push (srcpad, buf), ==, GST_FLOW_OK);
*
* GST_INFO ("Block until element is waiting for a clock notification\n");
* gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
* GST_INFO ("Advance to the requested time of the clock notification\n");
* gst_test_clock_advance_time (test_clock, latency);
* GST_INFO ("Release the next blocking wait and make sure it is the one from element\n");
* processed_id = gst_test_clock_process_next_clock_id (test_clock);
* g_assert (processed_id == pending_id);
* g_assert_cmpint (GST_CLOCK_ENTRY_STATUS (processed_id), ==, GST_CLOCK_OK);
* gst_clock_id_unref (pending_id);
* gst_clock_id_unref (processed_id);
*
* GST_INFO ("Validate that element produced an output buffer and check its timestamp\n");
* g_assert_cmpint (get_number_of_output_buffer (...), ==, 1);
* buf = get_buffer_pushed_by_element (element, ...);
* g_assert_cmpint (GST_BUFFER_TIMESTAMP (buf), ==, latency);
* gst_buffer_unref (buf);
* GST_INFO ("Check that element does not wait for any clock notification\n");
* g_assert (gst_test_clock_peek_next_pending_id (test_clock, NULL) == FALSE);
*
* GST_INFO ("Set time, create and push the second buffer\n");
* gst_test_clock_advance_time (test_clock, 10 * GST_SECOND);
* buf = create_test_buffer (gst_clock_get_time (clock), ...);
* gst_assert_cmpint (gst_pad_push (srcpad, buf), ==, GST_FLOW_OK);
*
* GST_INFO ("Block until element is waiting for a new clock notification\n");
* (gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
* GST_INFO ("Advance past 7ms beyond the requested time of the clock notification\n");
* gst_test_clock_advance_time (test_clock, latency + 7 * GST_MSECOND);
* GST_INFO ("Release the next blocking wait and make sure it is the one from element\n");
* processed_id = gst_test_clock_process_next_clock_id (test_clock);
* g_assert (processed_id == pending_id);
* g_assert_cmpint (GST_CLOCK_ENTRY_STATUS (processed_id), ==, GST_CLOCK_OK);
* gst_clock_id_unref (pending_id);
* gst_clock_id_unref (processed_id);
*
* GST_INFO ("Validate that element produced an output buffer and check its timestamp\n");
* g_assert_cmpint (get_number_of_output_buffer (...), ==, 1);
* buf = get_buffer_pushed_by_element (element, ...);
* g_assert_cmpint (GST_BUFFER_TIMESTAMP (buf), ==,
* 10 * GST_SECOND + latency + 7 * GST_MSECOND);
* gst_buffer_unref (buf);
* GST_INFO ("Check that element does not wait for any clock notification\n");
* g_assert (gst_test_clock_peek_next_pending_id (test_clock, NULL) == FALSE);
* ...
* </programlisting>
* </example>
*
* Since #GstTestClock is only supposed to be used in unit tests it calls
* g_assert(), g_assert_cmpint() or g_assert_cmpuint() to validate all function
* arguments. This will highlight any issues with the unit test code itself.
@ -80,6 +193,9 @@ struct _GstTestClockPrivate
{
GstClockTime start_time;
GstClockTime internal_time;
GList *entry_contexts;
GCond *entry_added_cond;
GCond *entry_processed_cond;
};
#define GST_TEST_CLOCK_GET_PRIVATE(obj) ((GST_TEST_CLOCK_CAST (obj))->priv)
@ -108,6 +224,25 @@ static void gst_test_clock_set_property (GObject * object, guint property_id,
static GstClockTime gst_test_clock_get_resolution (GstClock * clock);
static GstClockTime gst_test_clock_get_internal_time (GstClock * clock);
static GstClockReturn gst_test_clock_wait (GstClock * clock,
GstClockEntry * entry, GstClockTimeDiff * jitter);
static GstClockReturn gst_test_clock_wait_async (GstClock * clock,
GstClockEntry * entry);
static void gst_test_clock_unschedule (GstClock * clock, GstClockEntry * entry);
static gboolean gst_test_clock_peek_next_pending_id_unlocked (GstTestClock *
test_clock, GstClockID * pending_id);
static guint gst_test_clock_peek_id_count_unlocked (GstTestClock * test_clock);
static void gst_test_clock_add_entry (GstTestClock * test_clock,
GstClockEntry * entry, GstClockTimeDiff * jitter);
static void gst_test_clock_remove_entry (GstTestClock * test_clock,
GstClockEntry * entry);
static GstClockEntryContext *gst_test_clock_lookup_entry_context (
GstTestClock * test_clock, GstClockEntry * clock_entry);
static gint gst_clock_entry_context_compare_func (gconstpointer a,
gconstpointer b);
static void
gst_test_clock_class_init (GstTestClockClass * klass)
@ -130,6 +265,9 @@ gst_test_clock_class_init (GstTestClockClass * klass)
gst_test_clock_get_resolution);
gstclock_class->get_internal_time = GST_DEBUG_FUNCPTR (
gst_test_clock_get_internal_time);
gstclock_class->wait = GST_DEBUG_FUNCPTR (gst_test_clock_wait);
gstclock_class->wait_async = GST_DEBUG_FUNCPTR (gst_test_clock_wait_async);
gstclock_class->unschedule = GST_DEBUG_FUNCPTR (gst_test_clock_unschedule);
/**
* GstTestClock:start-time
@ -149,9 +287,16 @@ gst_test_clock_class_init (GstTestClockClass * klass)
static void
gst_test_clock_init (GstTestClock * test_clock)
{
GstTestClockPrivate *priv;
test_clock->priv = G_TYPE_INSTANCE_GET_PRIVATE (test_clock,
GST_TYPE_TEST_CLOCK, GstTestClockPrivate);
priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
priv->entry_added_cond = g_cond_new ();
priv->entry_processed_cond = g_cond_new ();
GST_OBJECT_FLAG_SET (test_clock,
GST_CLOCK_FLAG_CAN_DO_SINGLE_SYNC |
GST_CLOCK_FLAG_CAN_DO_SINGLE_ASYNC |
@ -166,17 +311,37 @@ gst_test_clock_constructed (GObject * object)
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
priv->internal_time = priv->start_time;
G_OBJECT_CLASS (parent_class)->constructed (object);
}
static void
gst_test_clock_dispose (GObject * object)
{
GstTestClock *test_clock = GST_TEST_CLOCK (object);
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GST_OBJECT_LOCK (test_clock);
while (priv->entry_contexts != NULL) {
GstClockEntryContext *ctx = priv->entry_contexts->data;
gst_test_clock_remove_entry (test_clock, ctx->clock_entry);
}
GST_OBJECT_UNLOCK (test_clock);
G_OBJECT_CLASS (parent_class)->dispose (object);
}
static void
gst_test_clock_finalize (GObject * object)
{
GstTestClock *test_clock = GST_TEST_CLOCK (object);
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
g_cond_free (priv->entry_added_cond);
g_cond_free (priv->entry_processed_cond);
G_OBJECT_CLASS (parent_class)->finalize (object);
}
@ -244,6 +409,166 @@ gst_test_clock_get_internal_time (GstClock * clock)
return result;
}
static GstClockReturn
gst_test_clock_wait (GstClock * clock,
GstClockEntry * entry, GstClockTimeDiff * jitter)
{
GstTestClock *test_clock = GST_TEST_CLOCK (clock);
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GST_OBJECT_LOCK (test_clock);
GST_CAT_DEBUG_OBJECT (GST_CAT_TEST_CLOCK, test_clock,
"requesting synchronous clock notification at %" GST_TIME_FORMAT,
GST_TIME_ARGS (GST_CLOCK_ENTRY_TIME (entry)));
if (gst_test_clock_lookup_entry_context (test_clock, entry) == NULL)
gst_test_clock_add_entry (test_clock, entry, jitter);
GST_CLOCK_ENTRY_STATUS (entry) = GST_CLOCK_BUSY;
while (GST_CLOCK_ENTRY_STATUS (entry) == GST_CLOCK_BUSY)
g_cond_wait (priv->entry_processed_cond,
GST_OBJECT_GET_LOCK (test_clock));
GST_OBJECT_UNLOCK (test_clock);
return GST_CLOCK_ENTRY_STATUS (entry);
}
static GstClockReturn
gst_test_clock_wait_async (GstClock * clock, GstClockEntry * entry)
{
GstTestClock *test_clock = GST_TEST_CLOCK (clock);
GST_OBJECT_LOCK (test_clock);
GST_CAT_DEBUG_OBJECT (GST_CAT_TEST_CLOCK, test_clock,
"requesting asynchronous clock notification at %" GST_TIME_FORMAT,
GST_TIME_ARGS (GST_CLOCK_ENTRY_TIME (entry)));
gst_test_clock_add_entry (test_clock, entry, NULL);
GST_OBJECT_UNLOCK (test_clock);
return GST_CLOCK_OK;
}
static void
gst_test_clock_unschedule (GstClock * clock, GstClockEntry * entry)
{
GstTestClock *test_clock = GST_TEST_CLOCK (clock);
GST_OBJECT_LOCK (test_clock);
GST_CAT_DEBUG_OBJECT (GST_CAT_TEST_CLOCK, test_clock,
"unscheduling requested clock notification at %" GST_TIME_FORMAT,
GST_TIME_ARGS (GST_CLOCK_ENTRY_TIME (entry)));
GST_CLOCK_ENTRY_STATUS (entry) = GST_CLOCK_UNSCHEDULED;
gst_test_clock_remove_entry (test_clock, entry);
GST_OBJECT_UNLOCK (test_clock);
}
static gboolean
gst_test_clock_peek_next_pending_id_unlocked (GstTestClock * test_clock,
GstClockID * pending_id)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GList *imminent_clock_id = g_list_first (priv->entry_contexts);
gboolean result = FALSE;
if (imminent_clock_id != NULL) {
GstClockEntryContext *ctx = imminent_clock_id->data;
if (pending_id != NULL) {
*pending_id = gst_clock_id_ref (ctx->clock_entry);
}
result = TRUE;
}
return result;
}
static guint
gst_test_clock_peek_id_count_unlocked (GstTestClock * test_clock)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
return g_list_length (priv->entry_contexts);
}
static void
gst_test_clock_add_entry (GstTestClock * test_clock,
GstClockEntry * entry, GstClockTimeDiff * jitter)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GstClockTime now;
GstClockEntryContext *ctx;
now = gst_clock_adjust_unlocked (GST_CLOCK (test_clock),
priv->internal_time);
if (jitter != NULL)
*jitter = GST_CLOCK_DIFF (GST_CLOCK_ENTRY_TIME (entry), now);
ctx = g_slice_new (GstClockEntryContext);
ctx->clock_entry = GST_CLOCK_ENTRY (gst_clock_id_ref (entry));
ctx->time_diff = GST_CLOCK_DIFF (now, GST_CLOCK_ENTRY_TIME (entry));
priv->entry_contexts = g_list_insert_sorted (priv->entry_contexts, ctx,
gst_clock_entry_context_compare_func);
g_cond_broadcast (priv->entry_added_cond);
}
static void
gst_test_clock_remove_entry (GstTestClock * test_clock, GstClockEntry * entry)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GstClockEntryContext *ctx;
ctx = gst_test_clock_lookup_entry_context (test_clock, entry);
if (ctx != NULL) {
gst_clock_id_unref (ctx->clock_entry);
priv->entry_contexts = g_list_remove (priv->entry_contexts, ctx);
g_slice_free (GstClockEntryContext, ctx);
g_cond_broadcast (priv->entry_processed_cond);
}
}
static GstClockEntryContext *
gst_test_clock_lookup_entry_context (GstTestClock * test_clock,
GstClockEntry * clock_entry)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GstClockEntryContext *result = NULL;
GList *cur;
for (cur = priv->entry_contexts; cur != NULL; cur = cur->next) {
GstClockEntryContext *ctx = cur->data;
if (ctx->clock_entry == clock_entry) {
result = ctx;
break;
}
}
return result;
}
static gint
gst_clock_entry_context_compare_func (gconstpointer a, gconstpointer b)
{
const GstClockEntryContext *ctx_a = a;
const GstClockEntryContext *ctx_b = b;
return gst_clock_id_compare_func (ctx_a->clock_entry, ctx_b->clock_entry);
}
/**
* gst_test_clock_new:
*
@ -337,3 +662,238 @@ gst_test_clock_advance_time (GstTestClock * test_clock,
GST_OBJECT_UNLOCK (test_clock);
}
/**
* gst_test_clock_peek_id_count:
* @test_clock: a #GstTestClock for which to count notifications
*
* Determine the number of pending clock notifications that have been
* requested from the @test_clock.
*
* MT safe.
*
* Returns: the number of pending clock notifications.
*/
guint
gst_test_clock_peek_id_count (GstTestClock * test_clock)
{
guint result;
g_assert (GST_IS_TEST_CLOCK (test_clock));
GST_OBJECT_LOCK (test_clock);
result = gst_test_clock_peek_id_count_unlocked (test_clock);
GST_OBJECT_UNLOCK (test_clock);
return result;
}
/**
* gst_test_clock_has_id:
* @test_clock: a #GstTestClock to ask if it provided the notification
* @id: (transfer none): a #GstClockID clock notification
*
* Checks whether @test_clock was requested to provide the clock notification
* given by @id.
*
* MT safe.
*
* Returns: %TRUE if the clock has been asked to provide the given clock
* notification, %FALSE otherwise.
*/
gboolean
gst_test_clock_has_id (GstTestClock * test_clock, GstClockID id)
{
gboolean result;
g_assert (GST_IS_TEST_CLOCK (test_clock));
g_assert (id != NULL);
GST_OBJECT_LOCK (test_clock);
result = gst_test_clock_lookup_entry_context (test_clock, id) != NULL;
GST_OBJECT_UNLOCK (test_clock);
return result;
}
/**
* gst_test_clock_peek_next_pending_id:
* @test_clock: a #GstTestClock to check the clock notifications for
* @pending_id: (allow-none) (out) (transfer full): a #GstClockID clock
* notification to look for
*
* Determines if the @pending_id is the next clock notification scheduled to
* be triggered given the current time of the @test_clock.
*
* MT safe.
*
* Return: %TRUE if @pending_id is the next clock notification to be
* triggered, %FALSE otherwise.
*/
gboolean
gst_test_clock_peek_next_pending_id (GstTestClock * test_clock,
GstClockID * pending_id)
{
gboolean result;
g_assert (GST_IS_TEST_CLOCK (test_clock));
GST_OBJECT_LOCK (test_clock);
result = gst_test_clock_peek_next_pending_id_unlocked (test_clock,
pending_id);
GST_OBJECT_UNLOCK (test_clock);
return result;
}
/**
* gst_test_clock_wait_for_next_pending_id:
* @test_clock: #GstTestClock for which to get the pending clock notification
* @pending_id: (allow-none) (out) (transfer full): #GstClockID
* with information about the pending clock notification
*
* Waits until a clock notification is requested from @test_clock. There is no
* timeout for this wait, see the main description of #GstTestClock. A reference
* to the pending clock notification is stored in @pending_id.
*
* MT safe.
*/
void
gst_test_clock_wait_for_next_pending_id (GstTestClock * test_clock,
GstClockID * pending_id)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
g_assert (GST_IS_TEST_CLOCK (test_clock));
GST_OBJECT_LOCK (test_clock);
while (priv->entry_contexts == NULL)
g_cond_wait (priv->entry_added_cond, GST_OBJECT_GET_LOCK (test_clock));
g_assert (gst_test_clock_peek_next_pending_id_unlocked (test_clock, pending_id));
GST_OBJECT_UNLOCK (test_clock);
}
/**
* gst_test_clock_wait_for_pending_id_count:
* @test_clock: #GstTestClock for which to await having enough pending clock
* @count: the number of pending clock notifications to wait for
*
* Blocks until at least @count clock notifications have been requested from
* @test_clock. There is no timeout for this wait, see the main description of
* #GstTestClock.
*
* MT safe.
*/
void
gst_test_clock_wait_for_pending_id_count (GstTestClock * test_clock, guint count)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
g_assert (GST_IS_TEST_CLOCK (test_clock));
GST_OBJECT_LOCK (test_clock);
while (gst_test_clock_peek_id_count_unlocked (test_clock) < count)
g_cond_wait (priv->entry_added_cond, GST_OBJECT_GET_LOCK (test_clock));
GST_OBJECT_UNLOCK (test_clock);
}
/**
* gst_test_clock_process_next_clock_id:
* @test_clock: a #GstTestClock for which to retrive the next pending clock
* notification
*
* MT safe.
*
* Returns: (transfer full): a #GstClockID containing the next pending clock
* notification.
*/
GstClockID
gst_test_clock_process_next_clock_id (GstTestClock * test_clock)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GstClockID result = NULL;
GstClockEntryContext *ctx = NULL;
GList *cur;
g_assert (GST_IS_TEST_CLOCK (test_clock));
GST_OBJECT_LOCK (test_clock);
for (cur = priv->entry_contexts; cur != NULL && result == NULL;
cur = cur->next) {
ctx = cur->data;
if (priv->internal_time >= GST_CLOCK_ENTRY_TIME (ctx->clock_entry))
result = gst_clock_id_ref (ctx->clock_entry);
}
if (result != NULL) {
GstClockEntry *entry = ctx->clock_entry;
if (ctx->time_diff >= 0)
GST_CLOCK_ENTRY_STATUS (entry) = GST_CLOCK_OK;
else
GST_CLOCK_ENTRY_STATUS (entry) = GST_CLOCK_EARLY;
if (entry->func != NULL) {
GST_OBJECT_UNLOCK (test_clock);
entry->func (GST_CLOCK (test_clock), priv->internal_time, entry,
entry->user_data);
GST_OBJECT_LOCK (test_clock);
}
gst_test_clock_remove_entry (test_clock, entry);
if (GST_CLOCK_ENTRY_TYPE (entry) == GST_CLOCK_ENTRY_PERIODIC) {
GST_CLOCK_ENTRY_TIME (entry) += GST_CLOCK_ENTRY_INTERVAL (entry);
if (entry->func != NULL)
gst_test_clock_add_entry (test_clock, entry, NULL);
}
}
GST_OBJECT_UNLOCK (test_clock);
return result;
}
/**
* gst_test_clock_get_next_entry_time:
* @test_clock: a #GstTestClock to fetch the next clock notification time for
*
* Retrieve the requested time for the next pending clock notification.
*
* MT safe.
*
* Returns: a #GstClockTime set to the time of the next pending clock
* notification. If no clock notifications have been requested
* %GST_CLOCK_TIME_NONE will be returned.
*/
GstClockTime
gst_test_clock_get_next_entry_time (GstTestClock * test_clock)
{
GstTestClockPrivate *priv = GST_TEST_CLOCK_GET_PRIVATE (test_clock);
GstClockTime result = GST_CLOCK_TIME_NONE;
GList *imminent_clock_id;
g_assert (GST_IS_TEST_CLOCK (test_clock));
GST_OBJECT_LOCK (test_clock);
/* The list of pending clock notifications is sorted by time,
so the most imminent one is the first one in the list. */
imminent_clock_id = g_list_first (priv->entry_contexts);
if (imminent_clock_id != NULL) {
GstClockEntryContext *ctx = imminent_clock_id->data;
result = GST_CLOCK_ENTRY_TIME (ctx->clock_entry);
}
GST_OBJECT_UNLOCK (test_clock);
return result;
}

View file

@ -79,6 +79,18 @@ void gst_test_clock_set_time (GstTestClock * test_clock, GstClockTime new_time);
void gst_test_clock_advance_time (GstTestClock * test_clock,
GstClockTimeDiff delta);
guint gst_test_clock_peek_id_count (GstTestClock * test_clock);
gboolean gst_test_clock_has_id (GstTestClock * test_clock, GstClockID id);
gboolean gst_test_clock_peek_next_pending_id (GstTestClock * test_clock,
GstClockID * pending_id);
void gst_test_clock_wait_for_next_pending_id (GstTestClock * test_clock,
GstClockID * pending_id);
void gst_test_clock_wait_for_pending_id_count (GstTestClock * test_clock,
guint count);
GstClockID gst_test_clock_process_next_clock_id (GstTestClock * test_clock);
GstClockTime gst_test_clock_get_next_entry_time (GstTestClock * test_clock);
G_END_DECLS
#endif /* __GST_TEST_CLOCK_H__ */

View file

@ -23,6 +23,175 @@
#include <gst/check/gstcheck.h>
#include <gst/check/gsttestclock.h>
typedef struct
{
GstTestClock *test_clock;
GstClockID id;
GstClockTime reference;
} GtuClockWaitContext;
typedef struct
{
GstClockID clock_id;
GstClockTimeDiff jitter;
} SyncClockWaitContext;
#define assert_pending_id(pending_id, id, type, time) \
G_STMT_START { \
GstClockEntry *entry = GST_CLOCK_ENTRY (pending_id); \
g_assert (entry == (id)); \
g_assert (GST_CLOCK_ENTRY_TYPE (entry) == (type)); \
g_assert_cmpuint (GST_CLOCK_ENTRY_TIME (entry), ==, (time)); \
} G_STMT_END
#define assert_processed_id(processed_id, id, type, time) \
G_STMT_START { \
GstClockEntry *entry = GST_CLOCK_ENTRY (processed_id); \
g_assert (entry == (id)); \
g_assert (GST_CLOCK_ENTRY_TYPE (entry) == (type)); \
g_assert_cmpuint (GST_CLOCK_ENTRY_STATUS (entry), ==, (time)); \
} G_STMT_END
static gpointer test_wait_pending_single_shot_id_sync_worker (gpointer data);
static gpointer test_wait_pending_single_shot_id_async_worker (gpointer data);
static gpointer test_wait_pending_periodic_id_waiter_thread (gpointer data);
static gboolean test_async_wait_cb (GstClock * clock, GstClockTime time,
GstClockID id, gpointer user_data);
static GtuClockWaitContext *gst_test_util_wait_for_clock_id_begin (GstTestClock
* clock, GstClockID id, GstClockTimeDiff * jitter);
static GstClockReturn gst_test_util_wait_for_clock_id_end (GtuClockWaitContext *
wait_ctx);
static gboolean
gst_test_util_clock_wait_context_has_completed (GtuClockWaitContext * wait_ctx);
static gpointer
test_wait_pending_single_shot_id_sync_worker (gpointer data)
{
SyncClockWaitContext *ctx = data;
gst_clock_id_wait (ctx->clock_id, &ctx->jitter);
return NULL;
}
static gpointer
test_wait_pending_single_shot_id_async_worker (gpointer data)
{
GstClockID clock_id = data;
g_usleep (G_USEC_PER_SEC / 10);
gst_clock_id_wait_async (clock_id, test_async_wait_cb, NULL, NULL);
return NULL;
}
static gpointer
test_wait_pending_periodic_id_waiter_thread (gpointer data)
{
GstClockID clock_id = data;
gst_clock_id_wait (clock_id, NULL);
return NULL;
}
static gboolean
test_async_wait_cb (GstClock * clock,
GstClockTime time, GstClockID id, gpointer user_data)
{
gboolean *wait_complete = user_data;
if (wait_complete != NULL)
*wait_complete = TRUE;
return TRUE;
}
static GtuClockWaitContext *
gst_test_util_wait_for_clock_id_begin (GstTestClock * test_clock, GstClockID id,
GstClockTimeDiff * jitter)
{
GtuClockWaitContext *wait_ctx;
wait_ctx = g_slice_new (GtuClockWaitContext);
wait_ctx->test_clock = gst_object_ref (test_clock);
wait_ctx->reference = gst_clock_get_time (GST_CLOCK (wait_ctx->test_clock));
wait_ctx->id = gst_clock_id_ref (id);
if (jitter) {
GstClockEntry *entry = GST_CLOCK_ENTRY (wait_ctx->id);
GstClockTime requested = GST_CLOCK_ENTRY_TIME (entry);
GstClockTime reference = wait_ctx->reference;
*jitter = GST_CLOCK_DIFF (requested, reference);
}
if (!gst_test_clock_has_id (wait_ctx->test_clock, wait_ctx->id)) {
GstClockClass *klass = GST_CLOCK_GET_CLASS (wait_ctx->test_clock);
GstClock *clock = GST_CLOCK (wait_ctx->test_clock);
g_assert (klass->wait_async (clock, wait_ctx->id) == GST_CLOCK_OK);
}
g_assert (gst_test_clock_has_id (wait_ctx->test_clock, wait_ctx->id));
g_assert_cmpint (gst_test_clock_peek_id_count (wait_ctx->test_clock), >, 0);
return wait_ctx;
}
static GstClockReturn
gst_test_util_wait_for_clock_id_end (GtuClockWaitContext * wait_ctx)
{
GstClockReturn status = GST_CLOCK_ERROR;
GstClockEntry *entry = GST_CLOCK_ENTRY (wait_ctx->id);
if (G_UNLIKELY (GST_CLOCK_ENTRY_STATUS (entry) == GST_CLOCK_UNSCHEDULED)) {
status = GST_CLOCK_UNSCHEDULED;
} else {
GstClockTime requested = GST_CLOCK_ENTRY_TIME (entry);
GstClockTimeDiff diff;
g_assert (gst_test_clock_has_id (wait_ctx->test_clock, wait_ctx->id));
diff = GST_CLOCK_DIFF (requested, wait_ctx->reference);
if (diff > 0) {
status = GST_CLOCK_EARLY;
} else {
status = GST_CLOCK_OK;
}
g_atomic_int_set (&GST_CLOCK_ENTRY_STATUS (entry), status);
}
if (GST_CLOCK_ENTRY_TYPE (entry) == GST_CLOCK_ENTRY_SINGLE) {
GstClockClass *klass = GST_CLOCK_GET_CLASS (wait_ctx->test_clock);
GstClock *clock = GST_CLOCK (wait_ctx->test_clock);
klass->unschedule (clock, wait_ctx->id);
g_assert (!gst_test_clock_has_id (wait_ctx->test_clock, wait_ctx->id));
} else {
GST_CLOCK_ENTRY_TIME (entry) += GST_CLOCK_ENTRY_INTERVAL (entry);
g_assert (gst_test_clock_has_id (wait_ctx->test_clock, wait_ctx->id));
}
gst_clock_id_unref (wait_ctx->id);
gst_object_unref (wait_ctx->test_clock);
g_slice_free (GtuClockWaitContext, wait_ctx);
return status;
}
static gboolean
gst_test_util_clock_wait_context_has_completed (GtuClockWaitContext * wait_ctx)
{
GstClock *clock = GST_CLOCK (wait_ctx->test_clock);
GstClockEntry *entry = GST_CLOCK_ENTRY (wait_ctx->id);
GstClockTime requested = GST_CLOCK_ENTRY_TIME (entry);
GstClockTime now = gst_clock_get_time (clock);
return requested < now;
}
GST_START_TEST (test_object_flags)
{
GstClock *clock = gst_test_clock_new ();
@ -91,6 +260,651 @@ GST_START_TEST (test_advance_time)
GST_END_TEST;
GST_START_TEST (test_wait_synchronous_no_timeout)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GThread *worker_thread;
GstClockID pending_id;
GstClockID processed_id;
SyncClockWaitContext context;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND - 1);
context.clock_id = gst_clock_id_ref (clock_id);
context.jitter = 0;
worker_thread = g_thread_create (test_wait_pending_single_shot_id_sync_worker,
&context, TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_SECOND - 1);
gst_clock_id_unref (pending_id);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_EARLY);
gst_clock_id_unref (processed_id);
g_thread_join (worker_thread);
g_assert_cmpuint (context.jitter, ==, 1);
gst_clock_id_unref (context.clock_id);
gst_clock_id_unref (clock_id);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND);
context.clock_id = gst_clock_id_ref (clock_id);
context.jitter = 0;
worker_thread = g_thread_create (test_wait_pending_single_shot_id_sync_worker,
&context, TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_SECOND);
gst_clock_id_unref (pending_id);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_thread_join (worker_thread);
g_assert_cmpuint (context.jitter, ==, 0);
gst_clock_id_unref (context.clock_id);
gst_clock_id_unref (clock_id);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND + 1);
context.clock_id = gst_clock_id_ref (clock_id);
context.jitter = 0;
worker_thread = g_thread_create (test_wait_pending_single_shot_id_sync_worker,
&context, TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_SECOND + 1);
gst_clock_id_unref (pending_id);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
g_assert (processed_id == NULL);
gst_test_clock_advance_time (test_clock, 1);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_thread_join (worker_thread);
g_assert_cmpuint (context.jitter, ==, -1);
gst_clock_id_unref (context.clock_id);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_wait_pending_single_shot_id)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GstClockID processed_id;
GThread *worker_thread;
GstClockID pending_id;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND);
gst_clock_id_wait_async (clock_id, test_async_wait_cb, NULL, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_SECOND);
gst_clock_id_unref (pending_id);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
gst_clock_id_unref (clock_id);
clock_id = gst_clock_new_single_shot_id (clock, 2 * GST_SECOND);
worker_thread = g_thread_create (test_wait_pending_single_shot_id_async_worker,
clock_id, TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id, GST_CLOCK_ENTRY_SINGLE, 2 * GST_SECOND);
gst_clock_id_unref (pending_id);
g_thread_join (worker_thread);
gst_clock_id_unref (clock_id);
clock_id = gst_clock_new_single_shot_id (clock, 3 * GST_SECOND);
worker_thread = g_thread_create (test_wait_pending_single_shot_id_async_worker,
clock_id, TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, NULL);
g_thread_join (worker_thread);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_wait_pending_periodic_id)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GstClockID processed_id;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_periodic_id (clock, GST_SECOND, GST_MSECOND);
{
GThread *waiter_thread;
waiter_thread =
g_thread_create (test_wait_pending_periodic_id_waiter_thread, clock_id,
TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, NULL);
gst_test_clock_set_time (test_clock, GST_SECOND);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_PERIODIC, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_thread_join (waiter_thread);
}
{
guint i;
GThread *waiter_thread;
for (i = 0; i < 3; i++) {
g_assert (!gst_test_clock_peek_next_pending_id (test_clock, NULL));
g_usleep (G_USEC_PER_SEC / 10 / 10);
}
waiter_thread =
g_thread_create (test_wait_pending_periodic_id_waiter_thread, clock_id,
TRUE, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, NULL);
gst_clock_id_unschedule (clock_id);
g_thread_join (waiter_thread);
}
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_past)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GstClockTimeDiff jitter;
GtuClockWaitContext *wait_ctx;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND - 1);
wait_ctx =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id, &jitter);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx) == GST_CLOCK_EARLY);
g_assert_cmpint (jitter, ==, 1);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_present)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GstClockTimeDiff jitter;
GtuClockWaitContext *wait_ctx;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND);
wait_ctx =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id, &jitter);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx) == GST_CLOCK_OK);
g_assert_cmpint (jitter, ==, 0);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_future)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GstClockTimeDiff jitter;
GtuClockWaitContext *wait_ctx;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_single_shot_id (clock, 2 * GST_SECOND);
wait_ctx =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id, &jitter);
gst_test_clock_advance_time (test_clock, GST_SECOND);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx) == GST_CLOCK_OK);
g_assert_cmpint (jitter, ==, -GST_SECOND);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_unschedule)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
GtuClockWaitContext *wait_ctx;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND);
gst_clock_id_unschedule (clock_id);
gst_clock_id_unref (clock_id);
clock_id = gst_clock_new_single_shot_id (clock, 2 * GST_SECOND);
wait_ctx = gst_test_util_wait_for_clock_id_begin (test_clock, clock_id, NULL);
gst_clock_id_unschedule (clock_id);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx)
== GST_CLOCK_UNSCHEDULED);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_ordering)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id_a, clock_id_b;
GtuClockWaitContext *wait_ctx_a, *wait_ctx_b;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id_a = gst_clock_new_single_shot_id (clock, 3 * GST_SECOND);
wait_ctx_a =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id_a, NULL);
gst_test_clock_advance_time (test_clock, GST_SECOND);
clock_id_b = gst_clock_new_single_shot_id (clock, 2 * GST_SECOND);
wait_ctx_b =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id_b, NULL);
gst_test_clock_advance_time (test_clock, GST_SECOND);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx_b) == GST_CLOCK_OK);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx_a) == GST_CLOCK_OK);
gst_clock_id_unref (clock_id_b);
gst_clock_id_unref (clock_id_a);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_ordering_parallel)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id_a, clock_id_b;
GtuClockWaitContext *wait_ctx_a, *wait_ctx_b;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id_a = gst_clock_new_single_shot_id (clock, 3 * GST_SECOND);
clock_id_b = gst_clock_new_single_shot_id (clock, 2 * GST_SECOND);
wait_ctx_a = gst_test_util_wait_for_clock_id_begin (test_clock, clock_id_a,
NULL);
wait_ctx_b = gst_test_util_wait_for_clock_id_begin (test_clock, clock_id_b,
NULL);
g_assert_cmpuint (gst_test_clock_get_next_entry_time (test_clock), ==,
2 * GST_SECOND);
gst_test_clock_advance_time (test_clock, GST_SECOND);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx_b) == GST_CLOCK_OK);
g_assert_cmpuint (gst_test_clock_get_next_entry_time (test_clock), ==,
3 * GST_SECOND);
gst_test_clock_advance_time (test_clock, GST_SECOND);
g_assert (gst_test_util_wait_for_clock_id_end (wait_ctx_a) == GST_CLOCK_OK);
gst_clock_id_unref (clock_id_b);
gst_clock_id_unref (clock_id_a);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_sync_simultaneous_no_timeout)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id_a;
GstClockID clock_id_b;
SyncClockWaitContext context_a;
SyncClockWaitContext context_b;
GThread *worker_thread_a;
GThread *worker_thread_b;
GstClockID processed_id;
GstClockID pending_id;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
test_clock = GST_TEST_CLOCK (clock);
clock_id_a = gst_clock_new_single_shot_id (clock, 5 * GST_SECOND);
clock_id_b = gst_clock_new_single_shot_id (clock, 6 * GST_SECOND);
context_a.clock_id = gst_clock_id_ref (clock_id_a);
context_a.jitter = 0;
context_b.clock_id = gst_clock_id_ref (clock_id_b);
context_b.jitter = 0;
gst_test_clock_wait_for_pending_id_count (test_clock, 0);
worker_thread_b = g_thread_create (test_wait_pending_single_shot_id_sync_worker,
&context_b, TRUE, NULL);
gst_test_clock_wait_for_pending_id_count (test_clock, 1);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id_b, GST_CLOCK_ENTRY_SINGLE, 6 * GST_SECOND);
gst_clock_id_unref (pending_id);
worker_thread_a = g_thread_create (test_wait_pending_single_shot_id_sync_worker,
&context_a, TRUE, NULL);
gst_test_clock_wait_for_pending_id_count (test_clock, 2);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id_a, GST_CLOCK_ENTRY_SINGLE, 5 * GST_SECOND);
gst_clock_id_unref (pending_id);
g_assert_cmpuint (gst_test_clock_get_next_entry_time (test_clock), ==,
5 * GST_SECOND);
gst_test_clock_advance_time (test_clock, 5 * GST_SECOND);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id_a, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
gst_test_clock_wait_for_pending_id_count (test_clock, 1);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id_b, GST_CLOCK_ENTRY_SINGLE, 6 * GST_SECOND);
gst_clock_id_unref (pending_id);
g_assert_cmpuint (gst_test_clock_get_next_entry_time (test_clock), ==,
6 * GST_SECOND);
gst_test_clock_advance_time (test_clock, 6 * GST_SECOND);
processed_id = gst_test_clock_process_next_clock_id (test_clock);
assert_processed_id (processed_id, clock_id_b, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
gst_test_clock_wait_for_pending_id_count (test_clock, 0);
g_thread_join (worker_thread_a);
g_thread_join (worker_thread_b);
g_assert_cmpuint (context_a.jitter, ==, -4 * GST_SECOND);
g_assert_cmpuint (context_b.jitter, ==, -5 * GST_SECOND);
gst_clock_id_unref (context_a.clock_id);
gst_clock_id_unref (context_b.clock_id);
gst_clock_id_unref (clock_id_a);
gst_clock_id_unref (clock_id_b);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_async_past)
{
GstClock *clock;
GstClockID clock_id;
GstClockID processed_id;
gboolean wait_complete = FALSE;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND - 1);
g_assert (gst_clock_id_wait_async (clock_id, test_async_wait_cb,
&wait_complete, NULL) == GST_CLOCK_OK);
g_assert (!wait_complete);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (wait_complete);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_EARLY);
gst_clock_id_unref (processed_id);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_async_present)
{
GstClock *clock;
GstClockID clock_id;
GstClockID processed_id;
gboolean wait_complete = FALSE;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
clock_id = gst_clock_new_single_shot_id (clock, GST_SECOND);
g_assert (gst_clock_id_wait_async (clock_id, test_async_wait_cb,
&wait_complete, NULL) == GST_CLOCK_OK);
g_assert (!wait_complete);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (wait_complete);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_async_future)
{
GstClock *clock;
GstClockID clock_id;
GstClockID processed_id;
gboolean wait_complete = FALSE;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
clock_id = gst_clock_new_single_shot_id (clock, 2 * GST_SECOND);
g_assert (gst_clock_id_wait_async (clock_id, test_async_wait_cb,
&wait_complete, NULL) == GST_CLOCK_OK);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (processed_id == NULL);
g_assert (!wait_complete);
g_assert (GST_CLOCK_ENTRY_STATUS (GST_CLOCK_ENTRY (clock_id))
== GST_CLOCK_OK);
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), GST_SECOND - 1);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (processed_id == NULL);
g_assert (!wait_complete);
g_assert (GST_CLOCK_ENTRY_STATUS (GST_CLOCK_ENTRY (clock_id))
== GST_CLOCK_OK);
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), 1);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (wait_complete);
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_SINGLE, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_assert (GST_CLOCK_ENTRY_STATUS (GST_CLOCK_ENTRY (clock_id))
== GST_CLOCK_OK);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_single_shot_async_unschedule)
{
GstClock *clock;
GstClockID clock_id;
gboolean wait_complete = FALSE;
clock = gst_test_clock_new_with_start_time (GST_SECOND);
clock_id = gst_clock_new_single_shot_id (clock, 3 * GST_SECOND);
g_assert (gst_clock_id_wait_async (clock_id, test_async_wait_cb,
&wait_complete, NULL) == GST_CLOCK_OK);
gst_clock_id_unschedule (clock_id);
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), 2 * GST_SECOND);
g_assert (gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock))
== NULL);
g_assert (!wait_complete);
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_periodic_sync)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
guint i;
const GstClockTime interval = 4 * GST_MSECOND;
clock = gst_test_clock_new ();
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_periodic_id (clock, GST_SECOND, interval);
for (i = 0; i < 3; i++) {
GtuClockWaitContext *wait_ctx;
GstClockID pending_id;
guint j;
wait_ctx =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id, NULL);
gst_test_clock_wait_for_next_pending_id (test_clock, &pending_id);
assert_pending_id (pending_id, clock_id, GST_CLOCK_ENTRY_PERIODIC, GST_SECOND + (i * interval));
gst_clock_id_unref (pending_id);
for (j = 0; j < 10; j++) {
g_usleep (G_USEC_PER_SEC / 10 / 10);
g_assert (!gst_test_util_clock_wait_context_has_completed (wait_ctx));
}
if (i == 0)
gst_test_clock_advance_time (test_clock, GST_SECOND);
else
gst_test_clock_advance_time (test_clock, interval);
gst_test_util_wait_for_clock_id_end (wait_ctx);
}
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_periodic_async)
{
GstClock *clock;
GstClockID clock_id;
GstClockID processed_id;
gboolean wait_complete = FALSE;
const GstClockTime interval = 4 * GST_MSECOND;
clock = gst_test_clock_new ();
clock_id = gst_clock_new_periodic_id (clock, gst_clock_get_time (clock),
interval);
g_assert (gst_clock_id_wait_async (clock_id, test_async_wait_cb,
&wait_complete, NULL) == GST_CLOCK_OK);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_PERIODIC, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_assert (wait_complete);
wait_complete = FALSE;
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), interval - 1);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (processed_id == NULL);
g_assert (!wait_complete);
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), 1);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_PERIODIC, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_assert (wait_complete);
wait_complete = FALSE;
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), interval - 1);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
g_assert (processed_id == NULL);
g_assert (!wait_complete);
gst_test_clock_advance_time (GST_TEST_CLOCK (clock), 1);
processed_id = gst_test_clock_process_next_clock_id (GST_TEST_CLOCK (clock));
assert_processed_id (processed_id, clock_id, GST_CLOCK_ENTRY_PERIODIC, GST_CLOCK_OK);
gst_clock_id_unref (processed_id);
g_assert (wait_complete);
wait_complete = FALSE;
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
GST_START_TEST (test_periodic_uniqueness)
{
GstClock *clock;
GstTestClock *test_clock;
GstClockID clock_id;
guint i;
const GstClockTime interval = 4 * GST_MSECOND;
clock = gst_test_clock_new ();
test_clock = GST_TEST_CLOCK (clock);
clock_id = gst_clock_new_periodic_id (clock, 0, interval);
for (i = 0; i < 3; i++) {
GtuClockWaitContext *wait_ctx;
guint j;
wait_ctx =
gst_test_util_wait_for_clock_id_begin (test_clock, clock_id, NULL);
for (j = 0; j < 10; j++) {
g_usleep (G_USEC_PER_SEC / 10 / 10);
g_assert_cmpuint (gst_test_clock_peek_id_count (test_clock), ==, 1);
}
gst_test_clock_advance_time (test_clock, interval);
gst_test_util_wait_for_clock_id_end (wait_ctx);
}
gst_clock_id_unref (clock_id);
gst_object_unref (clock);
}
GST_END_TEST;
static Suite *
gst_test_clock_suite (void)
{
@ -104,6 +918,23 @@ gst_test_clock_suite (void)
tcase_add_test (tc_chain, test_start_time);
tcase_add_test (tc_chain, test_set_time);
tcase_add_test (tc_chain, test_advance_time);
tcase_add_test (tc_chain, test_wait_synchronous_no_timeout);
tcase_add_test (tc_chain, test_wait_pending_single_shot_id);
tcase_add_test (tc_chain, test_wait_pending_periodic_id);
tcase_add_test (tc_chain, test_single_shot_sync_simultaneous_no_timeout);
tcase_add_test (tc_chain, test_single_shot_sync_past);
tcase_add_test (tc_chain, test_single_shot_sync_present);
tcase_add_test (tc_chain, test_single_shot_sync_future);
tcase_add_test (tc_chain, test_single_shot_sync_unschedule);
tcase_add_test (tc_chain, test_single_shot_sync_ordering);
tcase_add_test (tc_chain, test_single_shot_sync_ordering_parallel);
tcase_add_test (tc_chain, test_single_shot_async_past);
tcase_add_test (tc_chain, test_single_shot_async_present);
tcase_add_test (tc_chain, test_single_shot_async_future);
tcase_add_test (tc_chain, test_single_shot_async_unschedule);
tcase_add_test (tc_chain, test_periodic_sync);
tcase_add_test (tc_chain, test_periodic_async);
tcase_add_test (tc_chain, test_periodic_uniqueness);
return s;
}