Since `spa/utils/cleanup.h` is not a private header anymore, there is
no need for a separate `pipewire/cleanup.h` since the definitions of
the cleanup routines can now be moved into the respective headers.
This makes it possible to discover a local RAOP, pulse or RTP services
and connect to them.
IPv6 addresses need the interface appended to local addresses to
make the connection work.
Add capture.props and playback.props to configure the created streams
with arbitrary properties.
Improve format parsing, make it possible to have different formats peer
stream.
Improve some of the property handling.
This can now also be used to upload a stream to a snapcast server, add
an example of this to the docs.
Websites like squig.link or https://www.autoeq.app/ generate a file for
parametric equalization for a given target, but this is not a format
that can be directly given to filter chain module.
This module translates the file to filter chain module arguments and
then loads the filter chain module with these arguments.
Don't spam the warning about kernel missing features required for snap
on every pulseaudio connection, but instead show it only once, as the
situation is not going to improve.
Change the GenericFd data type to SyncObj. It's probably better to
explicitly state the data type than to make something generic. Otherwise
we would need to transfer the specific fd type somewhere else and there
is no room for that in the buffer and the the metadata is not a good idea
either because it can be modified and corrupted at runtime.
Add the SyncTimeline metadata. This contains 2 points on two timelines
(SyncObj datas in the buffer). The buffer can be accessed when the
acquire_point is signaled on the timeline and when the buffer
can be released, the release_point on the timeline should be signaled.
Expose the acquire_loop/release_loop functions and use them in the
modules.
Make sure the nodes created from the module use the same data loop as
the module. We need to ensure this because otherwise, the nodes might
be scheduled on different data loops and the invoke or timer logic will
fail.
Since we don't follow updates of the params on the mixer but only on the
port, we might get out of sync and fail to negotiate.
Going through the mixers for everything needs some more work.
Fixes#3971
When resample.disabled=true, which is now the default, Format has zero
rate, so latency buffers get zero size. The rate in this case is the
graph rate.
Fix by just using the delay in samples, as all streams must in any case
run at same rate for the combining to work.
Fixes: bff252ce60 ("combine-stream: actually make use of resample.disable")
When node.async is set, make the node async.
Advertize SPA_IO_AsyncBuffers on mixer ports when supported. Set a new
port flag when AsyncBuffer is supported on the port.
When making a link and if one of the nodes is async and the linked ports
support AsyncBuffer, make the link async and set this as a property on
the link. For async nodes we will use SPA_IO_AsyncBuffers on the mixer
ports.
Nodes that are async will not increment the peer required counters. This
ensures that the peer can start immediately before the async node is
ready.
On an async link, writers will write to the (cycle+1 & 1) async buffers
entry and readers will read from (cycle & 1). This makes the readers read
from the previously filled area.
We need to have two very controlled areas with specific rules for who
reads and who writes where because the two nodes will run concurrently
and no special synchronization is possible otherwise.
These async nodes can be paused and blocked without blocking or xrunning
the rest of graph. If the node didn't produce anything when the next
cycle starts, the graph will run with silence.
See #3509
Go through the mixers of the port to get the params.
This makes it possible to let the mixer decide on formats, buffers and
io areas.
Currently, the format is the same on all mixer input and output ports
and the buffers are shared on the output port but the idea is to make it
possible to have different formats and buffers per link.
PulseAudio's property list can store arbitrary data, but
pw_properties can only store null-terminated strings.
So for the time being, ignore those values that don't
have null-terminators or have zero bytes inside.
The length of the value for each value in a property list is serialized
twice. Both the reference implementation and pipewire-pulse send
the same length, so be stricter and only accept a property list
if both lengths are the same.
resample.disable was made to default to true, but copying it to stream
properties was forgotten so it didn't have any effect. Make sure to copy
it.
This will also prevent different input/output streams from negotiating
to different rates, which would result to broken audio since we are just
passing sample data through.
Change the flag from MAPPABLE to UNMAPPABLE to ease compatibility.
Older servers with newer client will not set the flag and so memory is
mappable for the client.
Newer server will set the flag but the client will ignore it and act
like before.
Implement pw_impl_node_set_io() and do all the things that need to be
done in it, such as taking the clock.id, checking for driver etc.
We can then remove some code that tries to reimplement this, most
notably in the remote-node (where it was missing updates to the
target_rate and target_quantum and maybe related to #3845.
This flags means that the fd can be mmaped without special handling. It
is the equivalent of the SPA_DATA_FLAG_MAPPABLE. Refuse to map memory
that is not mappable.
Make sure we make all allocated MemFd memory MAPPABLE by default. We can
then remove the stream and filter special handling for MemFd types and
just check the more generic MAPPABLE flag.
Make one exception when a client uploads MemFd buffer memory. We must
manually set the MAPPABLE flag for MemFd to make things backwards
compatible.
