Collect the latency of the graph in filter-chain. We do this by first
inspecting the LATENCY ports on the plugins and us the notify value as
the latency on the node.
We then walk the graph from source to sink and for each node take the
max latency of all linked upstream peer nodes. We end up with the max
latency of the graph and emit this in the graph properties.
We then listen for the graph latency property and use that to update the
process_latency of the filter-chain, which will then update the latency
on the filter-chain ports.
Fixes#4678
Some ports can have latency information about the plugin, mark those
ports with the LATENCY HINT.
Also decouple the LADSPA hint flags from the SPA ones.
This allows to use the library in projects that use `-Wswitch-default`
without any
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wswitch-default"
#pragma GCC diagnostic pop
This is useful as as the header is being pulled in via
pipewire/wireplumber headers into projects that might have this warning
enabled and would otherwise fail to build with -Werror.
Signed-off-by: Guido Günther <agx@sigxcpu.org>
3-way incoming calls are created in waiting state. When those calls are
hang-up before being active, the +CIEV: (callsetup = 0) should also be
managed for waiting calls.
One of the ideas behind retrying the sending of a failed packet with the
poll callback was to make sure that we do not end up with missing seqnums
by missing received credit due to some jitter.
However, the rate matching behaviour for ASHA is not clear and we do not
seem to face problems in local testing by just dropping the packet.
The two sides of a ASHA pair rarely if ever start together and the
sequence number was always a bit off due to the stateful nature of
reset_buffer and ASHA needing the sequence number to be matched to
the other side.
Simplify this by setting the sequence number for ASHA just before
flushing.
Rework the function a little so that it can take a list of formats and
only add the supported formats from that list and only once. It can
optionally select only the DSP formats.
Make a new PeerFormats param that can be set on ports to let it know
about the possible peer formats. This can be used by converters to calculate
an optimum conversion.
make the videoadpter query the follower formats, simplify them and then
set them as PeerFormats on the converter.
Implement peerformats in videoconvert. This makes EnumFormat on the port
depend on the negotiated format of the peer. It will suggest a Format
that most closely matches the current negotiated format with the available
PeerFormats. This then makes it possible to negotiate to the format that
would require the least amount of conversions.
Make the converter format a higher priority in all cases. The converter
has been negotiated first and is able to make a better suggestion for
the ideal format in all cases.
Make a function to create a filter. This is a pod that has all valid
defaults fixated and the invalid ones left unfixated.
Use this filter is a first attempt to negotiate a link format. The
effect is that a format will be chosen first that matches all the valid
defaults as much as possible instead of negotiating to the first thing
that matches.
Suppose we have a higher priority port with the format:
foo/bar
key: { default:1024, min:1, max:2048 }
And another port with two params:
foo/bar
key: 512
rate: 2/1
foo/bar
key: 1024
rate: 30/1
By first trying key: 1024 we negotiate to the more specific second property
with the higher rate.
Set different icons for A2DP & HFP output routes, so that they look
different (in Gnome).
Don't call the non-HFP output route as "headset" or "handsfree" in this
case, to be less ambiguous about microphone availability.
Also set device.icon-name for the device too.
While ASHA does not really use the D-Bus device set interface
but since ASHA has a device-wide HiSyncId and needs to handle
left and right side via a combine sink, use the device set
notion for ASHA as well.
Let's just directly use the next timer value from the other side
directly, and the reference time as well to calculate the expected next
sample position we want to send from on this side.
For ASHA stereo, the timer for flushing packets on both sides of a
pair should be as closed to each other as possible.
Also set seqnum before first flush so other side sends the correct
packets at the start.
In ASHA, we might need to sync sequence numbers between
left and right side media sink. If the sequence number
is added in start encode, it becomes difficult to set
the sequence number again when a call to reset_buffer
in media sink might have happened already.
This effectively reverts commit ab5f81b9a.
ASHA devices with the same HiSyncId are a pair and this
will be used later on to set them up together with a
combine sink like device set for BAP. Side information
is required for channel information when setting up the
combine sink.
The +BCS event may interrupt any of the initialization commands after
SLC is established and by changing the state here we may lose track
of the initialization sequence.
There is no reason to have the hfp_hf_bcs state anyway. If the
initialization sequence is over, we can remain in the hfp_hf_vgm state.
Some devices have a hardware volume control, but not a dedicated
hardware mute control. In some of these cases, the volume control is
described as having a hardware mute when volume is 0. This is described
in the TLV information of the volume control, when the
SNDRV_CTL_TLVD_DB_SCALE_MUTE flag is set in the TLV structure.
If set, alsa-lib will set the minimum dB value to -99999.99dB, which
can be detected inside PipeWire.
PipeWire can then use this hardware volume control to apply hardware
mute, when set.
In order to be able to set volumes and mutes separately, changing the
volume whilst muted will save the value, but not write it to the
hardware. When the device is unmuted, the saved value will be restored.
Signed-off-by: Stefan Binding <sbinding@opensource.cirrus.com>
