When setting the Latency parameter on one side of the converter, set
it also on the other size. We should actually implement propagating
the latency through all the elements of the converter later.
Implement latency handling on fmtconvert.
merger and splitter change latency on all ports when on port changes.
All this makes the configured and exposed latencies visible on all
ports from adapter.
Fixes a number of warnings that look like this:
In file included from ../spa/include/spa/utils/result.h:37,
from ../spa/plugins/alsa/alsa-seq.c:35:
In function ‘set_timers’,
inlined from ‘do_reassign_follower’ at ../spa/plugins/alsa/alsa-seq.c:909:2:
../spa/include/spa/utils/defs.h:191:39: warning: ‘now.tv_sec’ may be used uninitialized [-Wmaybe-uninitialized]
191 | #define SPA_TIMESPEC_TO_NSEC(ts) ((ts)->tv_sec * SPA_NSEC_PER_SEC + (ts)->tv_nsec)
| ~~~~^~~~~~~~
../spa/plugins/alsa/alsa-seq.c:840:28: note: in expansion of macro ‘SPA_TIMESPEC_TO_NSEC’
840 | state->next_time = SPA_TIMESPEC_TO_NSEC(&now);
| ^~~~~~~~~~~~~~~~~~~~
../spa/plugins/alsa/alsa-seq.c: In function ‘do_reassign_follower’:
../spa/plugins/alsa/alsa-seq.c:836:25: note: ‘now’ declared here
836 | struct timespec now;
| ^~~
The reason for these warnings is that spa_system_clock_gettime() may
fail if a version check fails, but the code in question didn't check for
the possible fail. If it failed, then execution would continue, and the
arguments that were passed to the macro will be used uninitialized.
Fix this by checking whether function succeeded.
Use the quirks database to check whether to enable MSBC codec for each
device.
If quirks don't allow ALT1 mode for an USB adapter, check whether the
adapter has an usable ALT6 mode and disable MSBC if not.
It seems few devices support the Device Id via bluez.
Try to figure out vendor/product ids for usb devices also via sysfs.
Also try to figure out the adapter bus type.
Keep all types of devices, only emit device info if device has audio profiles.
Heuristically add profiles based on bluez actions so device can still be connected
even without initial UUIDs info from signal InterfaceAdded for org.bluez.Device1.
Fixes#1330
SPA_PLUGIN_DIR is exported in pkgconfig as 'plugindir'
PIPEWIRE_MODULE_DIR is exported as 'moduledir'
PIPEWIRE_CONFIG_DIR is exported only in uninstalled environments
as 'confdatadir' (not making this public due to the possible upcoming
configuration changes in pipewire)
All variables are also exported on the meson dependency objects,
so that subprojects can find them.
Wireplumber can then find them like this:
pipewire_moduledir = pipewire_dep.get_variable(
pkgconfig: 'moduledir', internal: 'moduledir', default_value: '')
... and this works regardless of whether wireplumber is being
configured as a subproject or using the uninstalled pkgconfig files
or using the system installation of pipewire.
This is required in order to run wireplumber tests in the
uninstalled environment with 'meson test'
This allows meson subprojects (or projects using pipewire as a meson
subproject) to be able to use dependency('libpipewire-0.3') and
dependency('libspa-0.2') to find the uninstalled versions of these
libraries directly from the build dir instead of going through pkg-config
Always set the HAVE_OUTPUT flag because we always consume the
input and produce output, either to a buffer or an error.
This makes sure processing never stalls when something is wrong
on the output side.
See #1305
Follow the rate of the _io_position area and adjust the resampler
to match. This ensures that we always process at the DSP samplerate
to the target negotiated fixed rate of the device/stream.
The merger and splitter use the samplerate from the _io_position
for the DSP formats so set the samplerate to 0 to make sure we
don't use it to negotiate a format with the peer.
Move the code to check the position duration for changes to one
new method.
Also check for samplerate changes and adjust the resampler state
accordingly.
impl_add_listener() could be called more than one time, ensure that we always emit node info
so that session manager(bluez-monitor) can receives it.
Fixes#1308
Previously, the configured test file would be named like the following:
spa-include-test-spa_control_control_h..cpp
fix that by removing one of the dots.
Furthermore, use the already existing `find` object instead of
calling `find_program` one more time.
Strip the _alibpref from the device name, it contains a local counter
to identify the ucm card that should remain internal. We set a flag on
the device to notify of this.
Re-add the _alibpref of the local card to the device name if the
device was flagged.
See #1286
The _alibpref of the device was created in the session manager and
does not match our local _alibpref. Patch the device name with
the local _alibpref to make things match.
See #1286
The alibpref fallback does not contain the card number but it is
a local counter instead. Just check if it starts with something in
case the alsa library is not patched to return _alibpref.
Move the spa tests to the pwtest framework. The pod tests have only been
wrapped in the function callers, they don't use the variuos pwtest helpers -
too much work for very little gain here. Can be done incrementally if needed.
Note that this removes the spa tests from the installed tests. Arguably,
installing those tests was unnecessary anyway since they are static binaries
and don't load anything. So having them installed runs the same tests as
having them run in the source tree.
Goal for the pwtest framework is to allow for installed tests, just not there
yet.
Heavily inspired by libinput's litest framework (built around check), this is
a from-scratch framework that simplifies adding tests for various parts of
pipewire. See the pwtest.h documentation for details but the basics are:
- PW_TEST() and PWTEST_SUITE() specify the tests to be run
- Test are run in forked processes, any errors/signals are caught and printed
to the log
- Tests have a custom pipewire daemon started on demand to talk to [1]. The
daemon's log is available in the test output.
- Output is YAML to be processed into whatever format needed
[1] There are limits here, since we can't emulate devices yet there is only
so much we can rely on with the daemon.
If we have a C++ compiler, compile all the #include tests with that - it'll
pick up any issues that a C compiler will pick up anyway. This saves us from
having a separate C++ compiler test and it'll test each header separately for
C++ compatibility..