[−][src]Struct gstreamer::event::Event
Implementations
impl Event
[src]
pub unsafe fn from_glib_none(ptr: *const GstEvent) -> Self
[src]
pub unsafe fn from_glib_full(ptr: *const GstEvent) -> Self
[src]
pub unsafe fn from_glib_borrow(ptr: *const GstEvent) -> Borrowed<Self>
[src]
pub unsafe fn replace_ptr(&mut self, ptr: *mut GstEvent)
[src]
pub fn make_mut(&mut self) -> &mut EventRef
[src]
pub fn get_mut(&mut self) -> Option<&mut EventRef>
[src]
pub fn is_writable(&self) -> bool
[src]
pub unsafe fn into_ptr(self) -> *mut GstEvent
[src]
impl Event
[src]
pub fn new_flush_start<'a>() -> FlushStartBuilder<'a>
[src]
use event::FlushStart::new
or event::FlushStart::builder
instead
Allocate a new flush start event. The flush start event can be sent upstream and downstream and travels out-of-bounds with the dataflow.
It marks pads as being flushing and will make them return
FlowReturn::Flushing
when used for data flow with Pad::push
,
Pad::chain
, Pad::get_range
and Pad::pull_range
.
Any event (except a EventType::FlushStop
) received
on a flushing pad will return false
immediately.
Elements should unlock any blocking functions and exit their streaming functions as fast as possible when this event is received.
This event is typically generated after a seek to flush out all queued data in the pipeline so that the new media is played as soon as possible.
Returns
a new flush start event.
pub fn new_flush_stop<'a>(reset_time: bool) -> FlushStopBuilder<'a>
[src]
use event::FlushStop::new
or event::FlushStop::builder
instead
Allocate a new flush stop event. The flush stop event can be sent upstream and downstream and travels serialized with the dataflow. It is typically sent after sending a FLUSH_START event to make the pads accept data again.
Elements can process this event synchronized with the dataflow since the preceding FLUSH_START event stopped the dataflow.
This event is typically generated to complete a seek and to resume dataflow.
reset_time
if time should be reset
Returns
a new flush stop event.
pub fn new_stream_start(stream_id: &str) -> StreamStartBuilder<'_>
[src]
use event::StreamStart::new
or event::StreamStart::builder
instead
Create a new STREAM_START event. The stream start event can only travel downstream synchronized with the buffer flow. It is expected to be the first event that is sent for a new stream.
Source elements, demuxers and other elements that create new streams are supposed to send this event as the first event of a new stream. It should not be sent after a flushing seek or in similar situations and is used to mark the beginning of a new logical stream. Elements combining multiple streams must ensure that this event is only forwarded downstream once and not for every single input stream.
The stream_id
should be a unique string that consists of the upstream
stream-id, / as separator and a unique stream-id for this specific
stream. A new stream-id should only be created for a stream if the upstream
stream is split into (potentially) multiple new streams, e.g. in a demuxer,
but not for every single element in the pipeline.
PadExt::create_stream_id
or PadExt::create_stream_id_printf
can be
used to create a stream-id. There are no particular semantics for the
stream-id, though it should be deterministic (to support stream matching)
and it might be used to order streams (besides any information conveyed by
stream flags).
stream_id
Identifier for this stream
Returns
the new STREAM_START event.
pub fn new_caps(caps: &Caps) -> CapsBuilder<'_>
[src]
use event::Caps::new
or event::Caps::builder
instead
Create a new CAPS event for caps
. The caps event can only travel downstream
synchronized with the buffer flow and contains the format of the buffers
that will follow after the event.
caps
a Caps
Returns
the new CAPS event.
pub fn new_segment<F: FormattedValue>(
segment: &FormattedSegment<F>
) -> SegmentBuilder<'_>
[src]
segment: &FormattedSegment<F>
) -> SegmentBuilder<'_>
use event::Segment::new
or event::Segment::builder
instead
Create a new SEGMENT event for segment
. The segment event can only travel
downstream synchronized with the buffer flow and contains timing information
and playback properties for the buffers that will follow.
The segment event marks the range of buffers to be processed. All
data not within the segment range is not to be processed. This can be
used intelligently by plugins to apply more efficient methods of skipping
unneeded data. The valid range is expressed with the start
and stop
values.
The time value of the segment is used in conjunction with the start
value to convert the buffer timestamps into the stream time. This is
usually done in sinks to report the current stream_time.
time
represents the stream_time of a buffer carrying a timestamp of
start
. time
cannot be -1.
start
cannot be -1, stop
can be -1. If there
is a valid stop
given, it must be greater or equal the start
, including
when the indicated playback rate
is < 0.
The applied_rate
value provides information about any rate adjustment that
has already been made to the timestamps and content on the buffers of the
stream. (rate
* applied_rate
) should always equal the rate that has been
requested for playback. For example, if an element has an input segment
with intended playback rate
of 2.0 and applied_rate of 1.0, it can adjust
incoming timestamps and buffer content by half and output a segment event
with rate
of 1.0 and applied_rate
of 2.0
After a segment event, the buffer stream time is calculated with:
time + (TIMESTAMP(buf) - start) * ABS (rate * applied_rate)
segment
a Segment
Returns
the new SEGMENT event.
pub fn new_stream_collection(
stream_collection: &StreamCollection
) -> StreamCollectionBuilder<'_>
[src]
stream_collection: &StreamCollection
) -> StreamCollectionBuilder<'_>
use event::StreamCollection::new
or event::StreamCollection::builder
instead
Create a new STREAM_COLLECTION event. The stream collection event can only travel downstream synchronized with the buffer flow.
Source elements, demuxers and other elements that manage collections
of streams and post StreamCollection
messages on the bus also send
this event downstream on each pad involved in the collection, so that
activation of a new collection can be tracked through the downstream
data flow.
Feature: v1_10
collection
Active collection for this data flow
Returns
the new STREAM_COLLECTION event.
pub fn new_tag<'a>(tags: TagList) -> TagBuilder<'a>
[src]
use event::Tag::new
or event::Tag::builder
instead
Generates a metadata tag event from the given taglist
.
The scope of the taglist specifies if the taglist applies to the complete medium or only to this specific stream. As the tag event is a sticky event, elements should merge tags received from upstream with a given scope with their own tags with the same scope and create a new tag event from it.
taglist
metadata list. The event will take ownership of the taglist.
Returns
a new Event
pub fn new_buffer_size<'a, V: Into<GenericFormattedValue>>(
minsize: V,
maxsize: V,
async: bool
) -> BufferSizeBuilder<'a>
[src]
minsize: V,
maxsize: V,
async: bool
) -> BufferSizeBuilder<'a>
use event::BufferSize::new
or event::BufferSize::builder
instead
Create a new buffersize event. The event is sent downstream and notifies elements that they should provide a buffer of the specified dimensions.
When the async
flag is set, a thread boundary is preferred.
format
buffer format
minsize
minimum buffer size
maxsize
maximum buffer size
async
thread behavior
Returns
a new Event
pub fn new_sink_message<'a>(
name: &'a str,
msg: &'a Message
) -> SinkMessageBuilder<'a>
[src]
name: &'a str,
msg: &'a Message
) -> SinkMessageBuilder<'a>
use event::SinkMessage::new
or event::SinkMessage::builder
instead
Create a new sink-message event. The purpose of the sink-message event is to instruct a sink to post the message contained in the event synchronized with the stream.
name
is used to store multiple sticky events on one pad.
name
a name for the event
msg
the Message
to be posted
Returns
a new Event
pub fn new_stream_group_done<'a>(
group_id: GroupId
) -> StreamGroupDoneBuilder<'a>
[src]
group_id: GroupId
) -> StreamGroupDoneBuilder<'a>
use event::StreamGroupDone::new
or event::StreamGroupDone::builder
instead
Create a new Stream Group Done event. The stream-group-done event can only travel downstream synchronized with the buffer flow. Elements that receive the event on a pad should handle it mostly like EOS, and emit any data or pending buffers that would depend on more data arriving and unblock, since there won't be any more data.
This event is followed by EOS at some point in the future, and is generally used when switching pads - to unblock downstream so that new pads can be exposed before sending EOS on the existing pads.
Feature: v1_10
group_id
the group id of the stream group which is ending
Returns
the new stream-group-done event.
pub fn new_eos<'a>() -> EosBuilder<'a>
[src]
use event::Eos::new
or event::Eos::builder
instead
Create a new EOS event. The eos event can only travel downstream
synchronized with the buffer flow. Elements that receive the EOS
event on a pad can return FlowReturn::Eos
as a FlowReturn
when data after the EOS event arrives.
The EOS event will travel down to the sink elements in the pipeline
which will then post the MessageType::Eos
on the bus after they have
finished playing any buffered data.
When all sinks have posted an EOS message, an EOS message is forwarded to the application.
The EOS event itself will not cause any state transitions of the pipeline.
Returns
the new EOS event.
pub fn new_toc(toc: &Toc, updated: bool) -> TocBuilder<'_>
[src]
use event::Toc::new
or event::Toc::builder
instead
Generate a TOC event from the given toc
. The purpose of the TOC event is to
inform elements that some kind of the TOC was found.
toc
Toc
structure.
updated
whether toc
was updated or not.
Returns
a new Event
.
pub fn new_protection<'a>(
system_id: &'a str,
data: &'a Buffer
) -> ProtectionBuilder<'a>
[src]
system_id: &'a str,
data: &'a Buffer
) -> ProtectionBuilder<'a>
use event::Protection::new
or event::Protection::builder
instead
Creates a new event containing information specific to a particular
protection system (uniquely identified by system_id
), by which that
protection system can acquire key(s) to decrypt a protected stream.
In order for a decryption element to decrypt media protected using a specific system, it first needs all the protection system specific information necessary to acquire the decryption key(s) for that stream. The functions defined here enable this information to be passed in events from elements that extract it (e.g., ISOBMFF demuxers, MPEG DASH demuxers) to protection decrypter elements that use it.
Events containing protection system specific information are created using
Event::new_protection
, and they can be parsed by downstream elements
using Event::parse_protection
.
In Common Encryption, protection system specific information may be located
within ISOBMFF files, both in movie (moov) boxes and movie fragment (moof)
boxes; it may also be contained in ContentProtection elements within MPEG
DASH MPDs. The events created by Event::new_protection
contain data
identifying from which of these locations the encapsulated protection system
specific information originated. This origin information is required as
some protection systems use different encodings depending upon where the
information originates.
The events returned by Event::new_protection
are implemented
in such a way as to ensure that the most recently-pushed protection info
event of a particular origin
and system_id
will
be stuck to the output pad of the sending element.
system_id
a string holding a UUID that uniquely identifies a protection system.
data
a Buffer
holding protection system specific
information. The reference count of the buffer will be incremented by one.
origin
a string indicating where the protection information carried in the event was extracted from. The allowed values of this string will depend upon the protection scheme.
Returns
a EventType::Protection
event, if successful; None
if unsuccessful.
pub fn new_segment_done<'a, V: Into<GenericFormattedValue>>(
position: V
) -> SegmentDoneBuilder<'a>
[src]
position: V
) -> SegmentDoneBuilder<'a>
use event::SegmentDone::new
or event::SegmentDone::builder
instead
Create a new segment-done event. This event is sent by elements that finish playback of a segment as a result of a segment seek.
format
The format of the position being done
position
The position of the segment being done
Returns
a new Event
pub fn new_gap<'a>(timestamp: ClockTime, duration: ClockTime) -> GapBuilder<'a>
[src]
use event::Gap::new
or event::Gap::builder
instead
Create a new GAP event. A gap event can be thought of as conceptually equivalent to a buffer to signal that there is no data for a certain amount of time. This is useful to signal a gap to downstream elements which may wait for data, such as muxers or mixers or overlays, especially for sparse streams such as subtitle streams.
timestamp
the start time (pts) of the gap
duration
the duration of the gap
Returns
the new GAP event.
pub fn new_qos<'a>(
type_: QOSType,
proportion: f64,
diff: i64,
timestamp: ClockTime
) -> QosBuilder<'a>
[src]
type_: QOSType,
proportion: f64,
diff: i64,
timestamp: ClockTime
) -> QosBuilder<'a>
use event::Qos::new
or event::Qos::builder
instead
Allocate a new qos event with the given values. The QOS event is generated in an element that wants an upstream element to either reduce or increase its rate because of high/low CPU load or other resource usage such as network performance or throttling. Typically sinks generate these events for each buffer they receive.
type_
indicates the reason for the QoS event. QOSType::Overflow
is
used when a buffer arrived in time or when the sink cannot keep up with
the upstream datarate. QOSType::Underflow
is when the sink is not
receiving buffers fast enough and thus has to drop late buffers.
QOSType::Throttle
is used when the datarate is artificially limited
by the application, for example to reduce power consumption.
proportion
indicates the real-time performance of the streaming in the
element that generated the QoS event (usually the sink). The value is
generally computed based on more long term statistics about the streams
timestamps compared to the clock.
A value < 1.0 indicates that the upstream element is producing data faster
than real-time. A value > 1.0 indicates that the upstream element is not
producing data fast enough. 1.0 is the ideal proportion
value. The
proportion value can safely be used to lower or increase the quality of
the element.
diff
is the difference against the clock in running time of the last
buffer that caused the element to generate the QOS event. A negative value
means that the buffer with timestamp
arrived in time. A positive value
indicates how late the buffer with timestamp
was. When throttling is
enabled, diff
will be set to the requested throttling interval.
timestamp
is the timestamp of the last buffer that cause the element
to generate the QOS event. It is expressed in running time and thus an ever
increasing value.
The upstream element can use the diff
and timestamp
values to decide
whether to process more buffers. For positive diff
, all buffers with
timestamp <= timestamp
+ diff
will certainly arrive late in the sink
as well. A (negative) diff
value so that timestamp
+ diff
would yield a
result smaller than 0 is not allowed.
The application can use general event probes to intercept the QoS event and implement custom application specific QoS handling.
type_
the QoS type
proportion
the proportion of the qos message
diff
The time difference of the last Clock sync
timestamp
The timestamp of the buffer
Returns
a new QOS event.
pub fn new_seek<'a, V: Into<GenericFormattedValue>>(
rate: f64,
flags: SeekFlags,
start_type: SeekType,
start: V,
stop_type: SeekType,
stop: V
) -> SeekBuilder<'a>
[src]
rate: f64,
flags: SeekFlags,
start_type: SeekType,
start: V,
stop_type: SeekType,
stop: V
) -> SeekBuilder<'a>
use event::Seek::new
or event::Seek::builder
instead
Allocate a new seek event with the given parameters.
The seek event configures playback of the pipeline between start
to stop
at the speed given in rate
, also called a playback segment.
The start
and stop
values are expressed in format
.
A rate
of 1.0 means normal playback rate, 2.0 means double speed.
Negatives values means backwards playback. A value of 0.0 for the
rate is not allowed and should be accomplished instead by PAUSING the
pipeline.
A pipeline has a default playback segment configured with a start
position of 0, a stop position of -1 and a rate of 1.0. The currently
configured playback segment can be queried with QueryType::Segment
.
start_type
and stop_type
specify how to adjust the currently configured
start and stop fields in playback segment. Adjustments can be made relative
or absolute to the last configured values. A type of SeekType::None
means that the position should not be updated.
When the rate is positive and start
has been updated, playback will start
from the newly configured start position.
For negative rates, playback will start from the newly configured stop
position (if any). If the stop position is updated, it must be different from
-1 (GST_CLOCK_TIME_NONE
) for negative rates.
It is not possible to seek relative to the current playback position, to do
this, PAUSE the pipeline, query the current playback position with
QueryType::Position
and update the playback segment current position with a
SeekType::Set
to the desired position.
rate
The new playback rate
format
The format of the seek values
flags
The optional seek flags
start_type
The type and flags for the new start position
start
The value of the new start position
stop_type
The type and flags for the new stop position
stop
The value of the new stop position
Returns
a new seek event.
pub fn new_navigation<'a>(structure: Structure) -> NavigationBuilder<'a>
[src]
use event::Navigation::new
or event::Navigation::builder
instead
Create a new navigation event from the given description.
structure
description of the event. The event will take ownership of the structure.
Returns
a new Event
pub fn new_latency<'a>(latency: ClockTime) -> LatencyBuilder<'a>
[src]
use event::Latency::new
or event::Latency::builder
instead
Create a new latency event. The event is sent upstream from the sinks and
notifies elements that they should add an additional latency
to the
running time before synchronising against the clock.
The latency is mostly used in live sinks and is always expressed in the time format.
latency
the new latency value
Returns
a new Event
pub fn new_step<'a, V: Into<GenericFormattedValue>>(
amount: V,
rate: f64,
flush: bool,
intermediate: bool
) -> StepBuilder<'a>
[src]
amount: V,
rate: f64,
flush: bool,
intermediate: bool
) -> StepBuilder<'a>
use event::Step::new
or event::Step::builder
instead
Create a new step event. The purpose of the step event is to instruct a sink
to skip amount
(expressed in format
) of media. It can be used to implement
stepping through the video frame by frame or for doing fast trick modes.
A rate of <= 0.0 is not allowed. Pause the pipeline, for the effect of rate = 0.0 or first reverse the direction of playback using a seek event to get the same effect as rate < 0.0.
The flush
flag will clear any pending data in the pipeline before starting
the step operation.
The intermediate
flag instructs the pipeline that this step operation is
part of a larger step operation.
format
the format of amount
amount
the amount of data to step
rate
the step rate
flush
flushing steps
intermediate
intermediate steps
Returns
a new Event
pub fn new_reconfigure<'a>() -> ReconfigureBuilder<'a>
[src]
use event::Reconfigure::new
or event::Reconfigure::builder
instead
Create a new reconfigure event. The purpose of the reconfigure event is to travel upstream and make elements renegotiate their caps or reconfigure their buffer pools. This is useful when changing properties on elements or changing the topology of the pipeline.
Returns
a new Event
pub fn new_toc_select(uid: &str) -> TocSelectBuilder<'_>
[src]
use event::TocSelect::new
or event::TocSelect::builder
instead
Generate a TOC select event with the given uid
. The purpose of the
TOC select event is to start playback based on the TOC's entry with the
given uid
.
uid
UID in the TOC to start playback from.
Returns
a new Event
.
pub fn new_select_streams<'a>(
streams: &'a [&'a str]
) -> SelectStreamsBuilder<'a>
[src]
streams: &'a [&'a str]
) -> SelectStreamsBuilder<'a>
use event::SelectStreams::new
or event::SelectStreams::builder
instead
Allocate a new select-streams event.
The select-streams event requests the specified streams
to be activated.
The list of streams
corresponds to the "Stream ID" of each stream to be
activated. Those ID can be obtained via the Stream
objects present
in EventType::StreamStart
, EventType::StreamCollection
or
MessageType::StreamCollection
.
Note: The list of streams
can not be empty.
Feature: v1_10
streams
the list of streams to activate
Returns
a new select-streams event or None
in case of
an error (like an empty streams list).
pub fn new_custom_upstream<'a>(
structure: Structure
) -> CustomUpstreamBuilder<'a>
[src]
structure: Structure
) -> CustomUpstreamBuilder<'a>
use event::CustomUpstream::new
or event::CustomUpstream::builder
instead
pub fn new_custom_downstream<'a>(
structure: Structure
) -> CustomDownstreamBuilder<'a>
[src]
structure: Structure
) -> CustomDownstreamBuilder<'a>
use event::CustomDownstream::new
or event::CustomDownstream::builder
instead
pub fn new_custom_downstream_oob<'a>(
structure: Structure
) -> CustomDownstreamOobBuilder<'a>
[src]
structure: Structure
) -> CustomDownstreamOobBuilder<'a>
use event::CustomDownstreamOob::new
or event::CustomDownstreamOob::builder
instead
pub fn new_custom_downstream_sticky<'a>(
structure: Structure
) -> CustomDownstreamStickyBuilder<'a>
[src]
structure: Structure
) -> CustomDownstreamStickyBuilder<'a>
use event::CustomDownstreamSticky::new
or event::CustomDownstreamSticky::builder
instead
pub fn new_custom_both<'a>(structure: Structure) -> CustomBothBuilder<'a>
[src]
use event::CustomBoth::new
or event::CustomBoth::builder
instead
pub fn new_custom_both_oob<'a>(structure: Structure) -> CustomBothOobBuilder<'a>
[src]
use event::CustomBothOob::new
or event::CustomBothOob::builder
instead
Methods from Deref<Target = EventRef>
pub unsafe fn as_ptr(&self) -> *const GstEvent
[src]
pub unsafe fn as_mut_ptr(&self) -> *mut GstEvent
[src]
pub fn copy(&self) -> Event
[src]
pub fn get_seqnum(&self) -> Seqnum
[src]
pub fn get_running_time_offset(&self) -> i64
[src]
pub fn get_structure(&self) -> Option<&StructureRef>
[src]
pub fn is_upstream(&self) -> bool
[src]
pub fn is_downstream(&self) -> bool
[src]
pub fn is_serialized(&self) -> bool
[src]
pub fn is_sticky(&self) -> bool
[src]
pub fn is_sticky_multi(&self) -> bool
[src]
pub fn get_type(&self) -> EventType
[src]
pub fn view(&self) -> EventView<'_>
[src]
Trait Implementations
impl AsRef<EventRef> for Event
[src]
impl Borrow<EventRef> for Event
[src]
impl Clone for Event
[src]
fn clone(&self) -> Self
[src]
fn clone_from(&mut self, source: &Self)
1.0.0[src]
impl Debug for Event
[src]
impl Deref for Event
[src]
impl Drop for Event
[src]
impl FromGlibContainerAsVec<*mut GstEvent, *const *mut GstEvent> for Event
[src]
unsafe fn from_glib_none_num_as_vec(
ptr: *const *mut GstEvent,
num: usize
) -> Vec<Self>
[src]
ptr: *const *mut GstEvent,
num: usize
) -> Vec<Self>
unsafe fn from_glib_container_num_as_vec(
_: *const *mut GstEvent,
_: usize
) -> Vec<Self>
[src]
_: *const *mut GstEvent,
_: usize
) -> Vec<Self>
unsafe fn from_glib_full_num_as_vec(
_: *const *mut GstEvent,
_: usize
) -> Vec<Self>
[src]
_: *const *mut GstEvent,
_: usize
) -> Vec<Self>
impl FromGlibContainerAsVec<*mut GstEvent, *mut *mut GstEvent> for Event
[src]
unsafe fn from_glib_none_num_as_vec(
ptr: *mut *mut GstEvent,
num: usize
) -> Vec<Self>
[src]
ptr: *mut *mut GstEvent,
num: usize
) -> Vec<Self>
unsafe fn from_glib_container_num_as_vec(
ptr: *mut *mut GstEvent,
num: usize
) -> Vec<Self>
[src]
ptr: *mut *mut GstEvent,
num: usize
) -> Vec<Self>
unsafe fn from_glib_full_num_as_vec(
ptr: *mut *mut GstEvent,
num: usize
) -> Vec<Self>
[src]
ptr: *mut *mut GstEvent,
num: usize
) -> Vec<Self>
impl FromGlibPtrArrayContainerAsVec<*mut GstEvent, *const *mut GstEvent> for Event
[src]
unsafe fn from_glib_none_as_vec(ptr: *const *mut GstEvent) -> Vec<Self>
[src]
unsafe fn from_glib_container_as_vec(_: *const *mut GstEvent) -> Vec<Self>
[src]
unsafe fn from_glib_full_as_vec(_: *const *mut GstEvent) -> Vec<Self>
[src]
impl FromGlibPtrArrayContainerAsVec<*mut GstEvent, *mut *mut GstEvent> for Event
[src]
unsafe fn from_glib_none_as_vec(ptr: *mut *mut GstEvent) -> Vec<Self>
[src]
unsafe fn from_glib_container_as_vec(ptr: *mut *mut GstEvent) -> Vec<Self>
[src]
unsafe fn from_glib_full_as_vec(ptr: *mut *mut GstEvent) -> Vec<Self>
[src]
impl FromGlibPtrBorrow<*const GstEvent> for Event
[src]
unsafe fn from_glib_borrow(ptr: *const GstEvent) -> Borrowed<Self>
[src]
impl FromGlibPtrBorrow<*mut GstEvent> for Event
[src]
unsafe fn from_glib_borrow(ptr: *mut GstEvent) -> Borrowed<Self>
[src]
impl FromGlibPtrFull<*const GstEvent> for Event
[src]
unsafe fn from_glib_full(ptr: *const GstEvent) -> Self
[src]
impl FromGlibPtrFull<*mut GstEvent> for Event
[src]
unsafe fn from_glib_full(ptr: *mut GstEvent) -> Self
[src]
impl FromGlibPtrNone<*const GstEvent> for Event
[src]
unsafe fn from_glib_none(ptr: *const GstEvent) -> Self
[src]
impl FromGlibPtrNone<*mut GstEvent> for Event
[src]
unsafe fn from_glib_none(ptr: *mut GstEvent) -> Self
[src]
impl<'a> FromValueOptional<'a> for Event
[src]
unsafe fn from_value_optional(v: &'a Value) -> Option<Self>
[src]
impl GlibPtrDefault for Event
[src]
impl Send for Event
[src]
impl SetValue for Event
[src]
impl SetValueOptional for Event
[src]
unsafe fn set_value_optional(v: &mut Value, s: Option<&Self>)
[src]
impl StaticType for Event
[src]
fn static_type() -> Type
[src]
impl Sync for Event
[src]
impl<'a> ToGlibContainerFromSlice<'a, *const *mut GstEvent> for Event
[src]
type Storage = (Vec<Stash<'a, *mut GstEvent, Event>>, Option<Vec<*mut GstEvent>>)
fn to_glib_none_from_slice(
t: &'a [Event]
) -> (*const *mut GstEvent, Self::Storage)
[src]
t: &'a [Event]
) -> (*const *mut GstEvent, Self::Storage)
fn to_glib_container_from_slice(
_: &'a [Event]
) -> (*const *mut GstEvent, Self::Storage)
[src]
_: &'a [Event]
) -> (*const *mut GstEvent, Self::Storage)
fn to_glib_full_from_slice(_: &[Event]) -> *const *mut GstEvent
[src]
impl<'a> ToGlibContainerFromSlice<'a, *mut *mut GstEvent> for Event
[src]
type Storage = (Vec<Stash<'a, *mut GstEvent, Self>>, Option<Vec<*mut GstEvent>>)
fn to_glib_none_from_slice(
t: &'a [Event]
) -> (*mut *mut GstEvent, Self::Storage)
[src]
t: &'a [Event]
) -> (*mut *mut GstEvent, Self::Storage)
fn to_glib_container_from_slice(
t: &'a [Event]
) -> (*mut *mut GstEvent, Self::Storage)
[src]
t: &'a [Event]
) -> (*mut *mut GstEvent, Self::Storage)
fn to_glib_full_from_slice(t: &[Event]) -> *mut *mut GstEvent
[src]
impl<'a> ToGlibPtr<'a, *const GstEvent> for Event
[src]
type Storage = &'a Self
fn to_glib_none(&'a self) -> Stash<'a, *const GstEvent, Self>
[src]
fn to_glib_full(&self) -> *const GstEvent
[src]
fn to_glib_container(&'a self) -> Stash<'a, P, Self>
[src]
impl<'a> ToGlibPtr<'a, *mut GstEvent> for Event
[src]
type Storage = &'a Self
fn to_glib_none(&'a self) -> Stash<'a, *mut GstEvent, Self>
[src]
fn to_glib_full(&self) -> *mut GstEvent
[src]
fn to_glib_container(&'a self) -> Stash<'a, P, Self>
[src]
impl<'a> ToGlibPtrMut<'a, *mut GstEvent> for Event
[src]
Auto Trait Implementations
Blanket Implementations
impl<T> Any for T where
T: 'static + ?Sized,
[src]
T: 'static + ?Sized,
impl<T> Borrow<T> for T where
T: ?Sized,
[src]
T: ?Sized,
impl<T> BorrowMut<T> for T where
T: ?Sized,
[src]
T: ?Sized,
fn borrow_mut(&mut self) -> &mut T
[src]
impl<T> From<T> for T
[src]
impl<T, U> Into<U> for T where
U: From<T>,
[src]
U: From<T>,
impl<'a, T> ToGlibContainerFromSlice<'a, *const GList> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<List>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
[src]
t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
fn to_glib_container_from_slice(
_t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
[src]
_t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
fn to_glib_full_from_slice(_t: &[T]) -> *const GList
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *const GPtrArray> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<PtrArray>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
[src]
t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
fn to_glib_container_from_slice(
_t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
[src]
_t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
fn to_glib_full_from_slice(_t: &[T]) -> *const GPtrArray
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *mut GArray> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<Array>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
[src]
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
fn to_glib_container_from_slice(
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
[src]
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
fn to_glib_full_from_slice(t: &[T]) -> *mut GArray
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *mut GList> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<List>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
[src]
t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
fn to_glib_container_from_slice(
t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
[src]
t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
fn to_glib_full_from_slice(t: &[T]) -> *mut GList
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *mut GPtrArray> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<PtrArray>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
[src]
t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
fn to_glib_container_from_slice(
t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
[src]
t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
fn to_glib_full_from_slice(t: &[T]) -> *mut GPtrArray
[src]
impl<T> ToOwned for T where
T: Clone,
[src]
T: Clone,
type Owned = T
The resulting type after obtaining ownership.
fn to_owned(&self) -> T
[src]
fn clone_into(&self, target: &mut T)
[src]
impl<T> ToSendValue for T where
T: ToValue + SetValue + Send + ?Sized,
[src]
T: ToValue + SetValue + Send + ?Sized,
fn to_send_value(&self) -> SendValue
[src]
impl<T> ToValue for T where
T: SetValue + ?Sized,
[src]
T: SetValue + ?Sized,
impl<T, U> TryFrom<U> for T where
U: Into<T>,
[src]
U: Into<T>,
type Error = Infallible
The type returned in the event of a conversion error.
fn try_from(value: U) -> Result<T, <T as TryFrom<U>>::Error>
[src]
impl<T, U> TryInto<U> for T where
U: TryFrom<T>,
[src]
U: TryFrom<T>,