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@ -1171,15 +1171,6 @@ in a platform-specific way. See `tests/examples/bt-pinephone.lua` in WirePlumber
Do not enable this setting if you don't know what all this means, as it won't work. Do not enable this setting if you don't know what all this means, as it won't work.
\endparblock \endparblock
@PAR@ monitor-prop bluez5.hw-offload-datapath # integer
\parblock
HFP/HSP hardware offload data path ID (default: 0).
This feature configures the SCO hardwareoffload data path for HFP/HSP using the Bluetooth
SIGspecified procedure. It is intended for advanced setups and vendor integrations. Do not
edit this unless required; incorrect values can disable SCO offload.
\endparblock
@PAR@ monitor-prop bluez5.a2dp.opus.pro.channels = 3 # integer @PAR@ monitor-prop bluez5.a2dp.opus.pro.channels = 3 # integer
PipeWire Opus Pro audio profile channel count. PipeWire Opus Pro audio profile channel count.
@ -1211,7 +1202,6 @@ PipeWire Opus Pro audio profile duplex max bitrate.
PipeWire Opus Pro audio profile duplex frame duration (1/10 ms). PipeWire Opus Pro audio profile duplex frame duration (1/10 ms).
@PAR@ monitor-prop bluez5.bcast_source.config = [] # JSON @PAR@ monitor-prop bluez5.bcast_source.config = [] # JSON
For a per-adapter configuration of multiple BIGs use an "adapter" entry in the BIG with the HCI device name (e.g. hci0).
\parblock \parblock
Example: Example:
``` ```
@ -1373,12 +1363,6 @@ BAP QoS framing that needs to be applied for vendor defined preset
This property is experimental. This property is experimental.
Default: as per QoS preset. Default: as per QoS preset.
@PAR@ device-prop bluez5.bap.force-target-latency = "balanced" # string
BAP QoS target latency profile forced for QoS configuration selection.
If not set or set to "balanced", both low-latency and high-reliabilty QoS configuration table are used.
This property is experimental.
Available: low-latency, high-reliabilty, balanced
## Node properties ## Node properties
@PAR@ node-prop bluez5.media-source-role # string @PAR@ node-prop bluez5.media-source-role # string

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@ -313,13 +313,12 @@ performed.
Device ID negotiation needs explicit support by both end points of a stream, thus, the Device ID negotiation needs explicit support by both end points of a stream, thus, the
first step of negotiation is discovering whether other peer has support for it. This is first step of negotiation is discovering whether other peer has support for it. This is
done by advertising a \ref SPA_PARAM_Capability with the key \ref done by advertising a \ref SPA_PARAM_Capability with the key \ref
PW_CAPABILITY_DEVICE_ID_NEGOTIATION and value `1` which corresponds to the PW_CAPABILITY_DEVICE_ID_NEGOTIATION and value `true`
current negotiation API version.
``` ```
spa_param_dict_build_dict(&b, SPA_PARAM_Capability, spa_param_dict_build_dict(&b, SPA_PARAM_Capability,
&SPA_DICT_ITEMS( &SPA_DICT_ITEMS(
SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "1"))); SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "true")));
``` ```
To do this, when connecting to the stream, the \ref PW_STREAM_FLAG_INACTIVE flag must be To do this, when connecting to the stream, the \ref PW_STREAM_FLAG_INACTIVE flag must be
@ -365,15 +364,12 @@ with. This can be used to reduce the amount of devices that are queried for form
metadata, which can be a time consuming task, if devices needs to be woken up. metadata, which can be a time consuming task, if devices needs to be woken up.
To achieve this, the consumer adds another \ref SPA_PARAM_PeerCapability item with the key To achieve this, the consumer adds another \ref SPA_PARAM_PeerCapability item with the key
\ref PW_CAPABILITY_DEVICE_IDS set to a JSON object describing what device IDs are supported. \ref PW_CAPABILITY_DEVICE_IDS set to a string of base 64 encoded `dev_t` device IDs.
This JSON object as of version 1 contains a single key "available-devices" that contain
a list of hexadecimal encoded `dev_t` device IDs.
``` ```
char *device_ids = "{\"available-devices\": [\"6464000000000000\",\"c8c8000000000000\"]}"; char *device_ids = ...; /* Base 64 encoding of a dev_t. */.
&SPA_DICT_ITEMS( &SPA_DICT_ITEMS(
SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "1"), SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "true"),
SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_IDS, device_ids))); SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_IDS, device_ids)));
``` ```

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@ -32,11 +32,8 @@ updated as follows:
- \ref spa_io_clock::nsec : Must be set to the time (according to the monotonic - \ref spa_io_clock::nsec : Must be set to the time (according to the monotonic
system clock) when the cycle that the driver is about to trigger started. To system clock) when the cycle that the driver is about to trigger started. To
minimize jitter, it is usually a good idea to increment this by a computed minimize jitter, it is usually a good idea to increment this by a fixed amount
amount (instead of sampling a timestamp from the monotonic system clock)
except for when the driver starts and when discontinuities occur in its clock. except for when the driver starts and when discontinuities occur in its clock.
The computed amount can be fixed, or varying over time, for example due to
adjustments made by a DLL (more on that below).
- \ref spa_io_clock::rate : Set to a value that can translate samples to nanoseconds. - \ref spa_io_clock::rate : Set to a value that can translate samples to nanoseconds.
- \ref spa_io_clock::position : Current cycle position, in samples. This is the - \ref spa_io_clock::position : Current cycle position, in samples. This is the
ideal position of the graph cycle (this is explained in greater detail further below). ideal position of the graph cycle (this is explained in greater detail further below).
@ -55,7 +52,7 @@ updated as follows:
some cases, this may actually be in the past relative to nsec, for example, when some cases, this may actually be in the past relative to nsec, for example, when
some internal driver clock experienced a discontinuity. Consider setting the some internal driver clock experienced a discontinuity. Consider setting the
\ref SPA_IO_CLOCK_FLAG_DISCONT flag in such a case. Just like with nsec, to \ref SPA_IO_CLOCK_FLAG_DISCONT flag in such a case. Just like with nsec, to
minimize jitter, it is usually a good idea to increment this by a computed amount minimize jitter, it is usually a good idea to increment this by a fixed amount
except for when the driver starts and when discontinuities occur in its clock. except for when the driver starts and when discontinuities occur in its clock.
The driver node signals the start of the graph cycle by calling \ref spa_node_call_ready The driver node signals the start of the graph cycle by calling \ref spa_node_call_ready
@ -63,11 +60,6 @@ with the \ref SPA_STATUS_HAVE_DATA and \ref SPA_STATUS_NEED_DATA flags passed
to that function call. That call must happen inside the thread that runs the to that function call. That call must happen inside the thread that runs the
data loop assigned to the driver node. data loop assigned to the driver node.
Drivers must make sure that the next cycle is started at the time indicated by
the \ref spa_io_clock::next_nsec timestamp. They do not have to use the monotonic
clock itself for scheduling the next cycle. If for example the internal clock
can directly be used with \c timerfd , the next cycle can be triggered that way.
As mentioned above, the \ref spa_io_clock::position field is the _ideal_ position As mentioned above, the \ref spa_io_clock::position field is the _ideal_ position
of the graph cycle, in samples. This contrasts with \ref spa_io_clock::nsec, which of the graph cycle, in samples. This contrasts with \ref spa_io_clock::nsec, which
is the moment in monotonic clock time when the cycle _actually_ happens. This is an is the moment in monotonic clock time when the cycle _actually_ happens. This is an
@ -111,12 +103,11 @@ expected position (in samples) and the actual position (derived from the current
of the driver's internal clock), passes the delta between these two quantities into the of the driver's internal clock), passes the delta between these two quantities into the
DLL, and the DLL computes a correction factor (2.0 in the above example) which is used DLL, and the DLL computes a correction factor (2.0 in the above example) which is used
for scaling durations between \c timerfd timeouts. This forms a control loop, since the for scaling durations between \c timerfd timeouts. This forms a control loop, since the
correction factor causes the \ref spa_io_clock::next_nsec increments (that is, the correction factor causes the durations between the timeouts to be adjusted such that the
durations between the timerfd timeouts) to be adjusted such that, over time, the difference difference between the expected position and the actual position reaches zero. Keep in
between the expected position and the actual position reaches zero. Keep in mind the mind the notes above about \ref spa_io_clock::position being the ideal position of the
notes above about \ref spa_io_clock::position being the ideal position of the graph graph cycle, meaning that even in this case, the duration it is incremented by is
cycle, meaning that even in this case, the duration it is incremented by is _not_ _not_ scaled by the correction factor; the duration in samples remains unchanged.
scaled by the correction factor; the duration in samples remains unchanged.
(Other popular control loop mechanisms that are suitable alternatives to the DLL are (Other popular control loop mechanisms that are suitable alternatives to the DLL are
PID controllers and Kalman filters.) PID controllers and Kalman filters.)

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@ -24,9 +24,9 @@ Play and record media with PipeWire
**pw-cat** is a simple tool for playing back or capturing raw or encoded **pw-cat** is a simple tool for playing back or capturing raw or encoded
media files on a PipeWire server. It understands all audio file formats media files on a PipeWire server. It understands all audio file formats
supported by `libsndfile` for PCM capture and playback. When no container supported by `libsndfile` for PCM capture and playback. When capturing
is specified for capturing PCM, the filename extension is used to guess PCM, the filename extension is used to guess the file format with the
the file format with the WAV file format as the default. WAV file format as the default.
It understands standard MIDI files and MIDI 2.0 clip files for playback It understands standard MIDI files and MIDI 2.0 clip files for playback
and recording. This tool will not render MIDI files, it will simply make and recording. This tool will not render MIDI files, it will simply make
@ -37,15 +37,8 @@ DSD playback is supported with the DSF file format. This tool will only
work with native DSD capable hardware and will produce an error when no work with native DSD capable hardware and will produce an error when no
such hardware was found. such hardware was found.
When the *FILE* is - input will be from STDIN. If no format is specified, When the *FILE* is - input and output will be raw data from STDIN and
libsndfile will attempt to parse and stream the format from STDIN. For STDOUT respectively.
some formats, this is not possible and libsndfile will give an error.
Raw, MIDI and DSD formats are all streamable from STDIN.
When the *FILE* is - output will be to STDOUT. If no format is specified,
libsndfile is instructed to output the .au format, which is streamble and
preserves the format, rate and channels.
Raw and DSD formats are all streamable to STDOUT.
# OPTIONS # OPTIONS
@ -94,11 +87,6 @@ DSD mode. *FILE* is a DSF file. If the tool is called under the name
render the DSD audio. You need a DSD capable device to play DSD content render the DSD audio. You need a DSD capable device to play DSD content
or this program will exit with an error. or this program will exit with an error.
\par -s | \--sysex
SysEx mode. *FILE* is a File that contains a raw SysEx MIDI message.
If the tool is called under the name **pw-sysex** this is the default.
The File is read and sent as a MIDI control message into the graph.
\par \--media-type=VALUE \par \--media-type=VALUE
Set the media type property (default Audio/Midi depending on mode). The Set the media type property (default Audio/Midi depending on mode). The
media type is used by the session manager to select a suitable target to media type is used by the session manager to select a suitable target to
@ -150,17 +138,6 @@ does not match the samplerate of the server, the data will be resampled.
Higher quality uses more CPU. Values between 0 and 15 are allowed, the Higher quality uses more CPU. Values between 0 and 15 are allowed, the
default quality is 4. default quality is 4.
\par -a | \--raw
Raw samples will be read or written. The \--rate, \--format, \--channels
and \--channelmap can be used to specify the raw format.
\par -M | \--force-midi
Force midi format, one of "midi" or "ump", (default ump).
When reading or writing midi, for one of midi or UMP.
\par -n | \--sample-count=COUNT
Stop after COUNT samples.
\par \--rate=VALUE \par \--rate=VALUE
The sample rate, default 48000. The sample rate, default 48000.
@ -168,38 +145,19 @@ The sample rate, default 48000.
The number of channels, default 2. The number of channels, default 2.
\par \--channel-map=VALUE \par \--channel-map=VALUE
The channelmap. Possible values include are either a channel layout The channelmap. Possible values include: **mono**, **stereo**,
such as **mono**, **stereo**,
**surround-21**, **quad**, **surround-22**, **surround-40**, **surround-21**, **quad**, **surround-22**, **surround-40**,
or comma separated array of channel names such as **FL,FR**. **surround-31**, **surround-41**, **surround-50**, **surround-51**,
See \--list-layouts and \--list-channel-names to get a complete **surround-51r**, **surround-70**, **surround-71** or a comma separated
list of possible values. list of channel names: **FL**, **FR**, **FC**, **LFE**, **SL**, **SR**,
**FLC**, **FRC**, **RC**, **RL**, **RR**, **TC**, **TFL**, **TFC**,
\par \--list-layouts **TFR**, **TRL**, **TRC**, **TRR**, **RLC**, **RRC**, **FLW**, **FRW**,
List all known channel layouts. One of these can be used as the **LFE2**, **FLH**, **FCH**, **FRH**, **TFLC**, **TFRC**, **TSL**,
\--channel-map value. **TSR**, **LLFR**, **RLFE**, **BC**, **BLC**, **BRC**
\par \--list-channel-names
List all known channel names. An array of these can be used as the
\--channel-map value.
\par \--format=VALUE \par \--format=VALUE
The sample format to use. Some possible values include: **u8**, **s8**, The sample format to use. One of: **u8**, **s8**, **s16** (default),
**s16** (default), **s24**, **s32**, **f32**, **f64**. See **s24**, **s32**, **f32**, **f64**.
\--list-formats to get a complete list of values.
\par \--list-formats
List all known format values.
\par \--container=VALUE
Specify the container to use when saving. This is usually guessed from
the filename extension but can be specified explicitly. When using
STDOUT and no container is specified, the AU container will be used.
Then using a filename and the container was not specified and it could
not be derived from the filename, the WAV container is used.
\par \--list-containers
List all known container values.
\par \--volume=VALUE \par \--volume=VALUE
The stream volume, default 1.000. Depending on the locale you have The stream volume, default 1.000. Depending on the locale you have

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@ -82,7 +82,6 @@ common_flags = [
'-fvisibility=hidden', '-fvisibility=hidden',
'-fno-strict-aliasing', '-fno-strict-aliasing',
'-fno-strict-overflow', '-fno-strict-overflow',
'-DSPA_AUDIO_MAX_CHANNELS=128u',
'-Werror=suggest-attribute=format', '-Werror=suggest-attribute=format',
'-Wsign-compare', '-Wsign-compare',
'-Wpointer-arith', '-Wpointer-arith',
@ -116,6 +115,7 @@ cc_flags = common_flags + [
'-Werror=old-style-definition', '-Werror=old-style-definition',
'-Werror=missing-parameter-type', '-Werror=missing-parameter-type',
'-Werror=strict-prototypes', '-Werror=strict-prototypes',
'-DSPA_AUDIO_MAX_CHANNELS=128u',
] ]
add_project_arguments(cc.get_supported_arguments(cc_flags), language: 'c') add_project_arguments(cc.get_supported_arguments(cc_flags), language: 'c')
add_project_arguments(cc_native.get_supported_arguments(cc_flags), add_project_arguments(cc_native.get_supported_arguments(cc_flags),

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@ -187,11 +187,6 @@ ATTRS{idVendor}=="1395", ATTRS{idProduct}=="0300", ENV{ACP_PROFILE_SET}="usb-gam
# Sennheiser GSP 670 USB headset # Sennheiser GSP 670 USB headset
ATTRS{idVendor}=="1395", ATTRS{idProduct}=="008a", ENV{ACP_PROFILE_SET}="usb-gaming-headset.conf" ATTRS{idVendor}=="1395", ATTRS{idProduct}=="008a", ENV{ACP_PROFILE_SET}="usb-gaming-headset.conf"
# JBL Quantum One
ATTRS{idVendor}=="0ecb", ATTRS{idProduct}=="203a", ENV{ACP_PROFILE_SET}="usb-gaming-headset-gamefirst.conf"
# JBL Quantum 810 Wireless
ATTRS{idVendor}=="0ecb", ATTRS{idProduct}=="2069", ENV{ACP_PROFILE_SET}="usb-gaming-headset-gamefirst.conf"
# Audioengine HD3 powered speakers support IEC958 but don't actually # Audioengine HD3 powered speakers support IEC958 but don't actually
# have any digital outputs. # have any digital outputs.
ATTRS{idVendor}=="0a12", ATTRS{idProduct}=="4007", ENV{ACP_PROFILE_SET}="analog-only.conf" ATTRS{idVendor}=="0a12", ATTRS{idProduct}=="4007", ENV{ACP_PROFILE_SET}="analog-only.conf"

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@ -3040,17 +3040,10 @@ static int update_time(struct state *state, uint64_t current_time, snd_pcm_sfram
} }
if (state->rate_match) { if (state->rate_match) {
/* Only set rate_match rate when matching is active. When not matching, if (state->stream == SND_PCM_STREAM_PLAYBACK)
* set it to 1.0 to indicate no rate adjustment needed, even though DLL state->rate_match->rate = corr;
* may still be running for buffer level management. */ else
if (state->matching) { state->rate_match->rate = 1.0/corr;
if (state->stream == SND_PCM_STREAM_PLAYBACK)
state->rate_match->rate = corr;
else
state->rate_match->rate = 1.0/corr;
} else {
state->rate_match->rate = 1.0;
}
if (state->pitch_elem && state->matching) if (state->pitch_elem && state->matching)
spa_alsa_update_rate_match(state); spa_alsa_update_rate_match(state);

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@ -1,70 +0,0 @@
# This file is part of PulseAudio.
#
# PulseAudio is free software; you can redistribute it and/or modify
# it under the terms of the GNU Lesser General Public License as
# published by the Free Software Foundation; either version 2.1 of the
# License, or (at your option) any later version.
#
# PulseAudio is distributed in the hope that it will be useful, but
# WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
# General Public License for more details.
#
# You should have received a copy of the GNU Lesser General Public License
# along with PulseAudio; if not, see <http://www.gnu.org/licenses/>.
; USB gaming headset.
; These headsets usually have two output devices. The first one is meant
; for general audio, and the second one is meant for chat. There is also
; a single input device for chat.
; The purpose of this unusual design is to provide separate volume
; controls for voice and other audio, which can be useful in gaming.
;
; Works with:
; JBL Quantum 810 Wireless
; JBL Quantum One
;
; Based on usb-gaming-headset.conf.
;
; See default.conf for an explanation on the directives used here.
[General]
auto-profiles = yes
[Mapping mono-chat-output]
description-key = gaming-headset-chat
device-strings = hw:%f,1,0
channel-map = mono
paths-output = usb-gaming-headset-output-mono
intended-roles = phone
[Mapping stereo-chat-output]
description-key = gaming-headset-chat
device-strings = hw:%f,1,0
channel-map = left,right
paths-output = usb-gaming-headset-output-stereo
intended-roles = phone
[Mapping mono-chat-input]
description-key = gaming-headset-chat
device-strings = hw:%f,0,0
channel-map = mono
paths-input = usb-gaming-headset-input
intended-roles = phone
[Mapping stereo-game-output]
description-key = gaming-headset-game
device-strings = hw:%f,0,0
channel-map = left,right
paths-output = usb-gaming-headset-output-stereo
direction = output
[Profile output:mono-chat+output:stereo-game+input:mono-chat]
output-mappings = mono-chat-output stereo-game-output
input-mappings = mono-chat-input
priority = 5100
[Profile output:stereo-game+output:stereo-chat+input:mono-chat]
output-mappings = stereo-game-output stereo-chat-output
input-mappings = mono-chat-input
priority = 5100

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@ -63,9 +63,6 @@ SPA_LOG_TOPIC_DEFINE_STATIC(log_topic, "spa.bluez5.native");
#define RFCOMM_MESSAGE_MAX_LENGTH 256 #define RFCOMM_MESSAGE_MAX_LENGTH 256
#define BT_CODEC_CVSD 0x02
#define BT_CODEC_MSBC 0x05
enum { enum {
HFP_AG_INITIAL_CODEC_SETUP_NONE = 0, HFP_AG_INITIAL_CODEC_SETUP_NONE = 0,
HFP_AG_INITIAL_CODEC_SETUP_SEND, HFP_AG_INITIAL_CODEC_SETUP_SEND,
@ -115,7 +112,6 @@ struct impl {
int hfp_default_speaker_volume; int hfp_default_speaker_volume;
struct spa_source sco; struct spa_source sco;
unsigned int hfphsp_sco_datapath;
const struct spa_bt_quirks *quirks; const struct spa_bt_quirks *quirks;
@ -301,33 +297,6 @@ static const struct media_codec *codec_list_best(struct impl *backend, struct sp
return NULL; return NULL;
} }
static void sco_offload_btcodec(struct impl *backend, int sock, bool msbc)
{
int err;
char buffer[255];
struct bt_codecs *codecs;
if (backend->hfphsp_sco_datapath == HFP_SCO_DEFAULT_DATAPATH)
return;
spa_log_info(backend->log, "sock(%d) msbc(%d)", sock, msbc);
memset(buffer, 0, sizeof(buffer));
codecs = (void *)buffer;
if (msbc)
codecs->codecs[0].id = BT_CODEC_MSBC;
else
codecs->codecs[0].id = BT_CODEC_CVSD;
codecs->num_codecs = 1;
codecs->codecs[0].data_path_id = backend->hfphsp_sco_datapath;
err = setsockopt(sock, SOL_BLUETOOTH, BT_CODEC, codecs, sizeof(buffer));
if (err < 0)
spa_log_error(backend->log, "ERROR: %s (%d)", strerror(errno), errno);
else
spa_log_info(backend->log, "set offload codec succeeded");
}
static DBusHandlerResult profile_release(DBusConnection *conn, DBusMessage *m, void *userdata) static DBusHandlerResult profile_release(DBusConnection *conn, DBusMessage *m, void *userdata)
{ {
if (!reply_with_error(conn, m, BLUEZ_PROFILE_INTERFACE ".Error.NotImplemented", "Method not implemented")) if (!reply_with_error(conn, m, BLUEZ_PROFILE_INTERFACE ".Error.NotImplemented", "Method not implemented"))
@ -2626,8 +2595,6 @@ static int sco_create_socket(struct impl *backend, struct spa_bt_adapter *adapte
} }
} }
sco_offload_btcodec(backend, sock, transparent);
return spa_steal_fd(sock); return spa_steal_fd(sock);
} }
@ -4134,14 +4101,6 @@ static void parse_hfp_default_volumes(struct impl *backend, const struct spa_dic
backend->hfp_default_speaker_volume = SPA_BT_VOLUME_HS_MAX; backend->hfp_default_speaker_volume = SPA_BT_VOLUME_HS_MAX;
} }
static void parse_sco_datapath(struct impl *backend, const struct spa_dict *info)
{
backend->hfphsp_sco_datapath = HFP_SCO_DEFAULT_DATAPATH;
spa_atou32(spa_dict_lookup(info, "bluez5.hw-offload-datapath"),
&backend->hfphsp_sco_datapath, 10);
}
static const struct spa_bt_backend_implementation backend_impl = { static const struct spa_bt_backend_implementation backend_impl = {
SPA_VERSION_BT_BACKEND_IMPLEMENTATION, SPA_VERSION_BT_BACKEND_IMPLEMENTATION,
.free = backend_native_free, .free = backend_native_free,
@ -4204,7 +4163,6 @@ struct spa_bt_backend *backend_native_new(struct spa_bt_monitor *monitor,
parse_hfp_disable_nrec(backend, info); parse_hfp_disable_nrec(backend, info);
parse_hfp_default_volumes(backend, info); parse_hfp_default_volumes(backend, info);
parse_hfp_pts(backend, info); parse_hfp_pts(backend, info);
parse_sco_datapath(backend, info);
#ifdef HAVE_BLUEZ_5_BACKEND_HSP_NATIVE #ifdef HAVE_BLUEZ_5_BACKEND_HSP_NATIVE
if (!dbus_connection_register_object_path(backend->conn, if (!dbus_connection_register_object_path(backend->conn,

View file

@ -55,7 +55,6 @@ struct settings {
int latency; int latency;
int64_t delay; int64_t delay;
int framing; int framing;
char *force_target_latency;
}; };
struct pac_data { struct pac_data {
@ -77,7 +76,6 @@ struct bap_qos {
uint16_t latency; uint16_t latency;
uint32_t delay; uint32_t delay;
unsigned int priority; unsigned int priority;
char *tag;
}; };
typedef struct { typedef struct {
@ -98,50 +96,50 @@ struct config_data {
struct settings settings; struct settings settings;
}; };
#define BAP_QOS(name_, rate_, duration_, framing_, framelen_, rtn_, latency_, delay_, priority_, tag_) \ #define BAP_QOS(name_, rate_, duration_, framing_, framelen_, rtn_, latency_, delay_, priority_) \
((struct bap_qos){ .name = (name_), .rate = (rate_), .frame_duration = (duration_), .framing = (framing_), \ ((struct bap_qos){ .name = (name_), .rate = (rate_), .frame_duration = (duration_), .framing = (framing_), \
.framelen = (framelen_), .retransmission = (rtn_), .latency = (latency_), \ .framelen = (framelen_), .retransmission = (rtn_), .latency = (latency_), \
.delay = (delay_), .priority = (priority_), .tag = (tag_) }) .delay = (delay_), .priority = (priority_) })
static const struct bap_qos bap_qos_configs[] = { static const struct bap_qos bap_qos_configs[] = {
/* Priority: low-latency > high-reliability, 7.5ms > 10ms, /* Priority: low-latency > high-reliability, 7.5ms > 10ms,
* bigger frequency and sdu better */ * bigger frequency and sdu better */
/* BAP v1.0.1 Table 5.2; low-latency */ /* BAP v1.0.1 Table 5.2; low-latency */
BAP_QOS("8_1_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 2, 8, 40000, 30, "low-latency"), /* 8_1_1 */ BAP_QOS("8_1_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 2, 8, 40000, 30), /* 8_1_1 */
BAP_QOS("8_2_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 2, 10, 40000, 20, "low-latency"), /* 8_2_1 */ BAP_QOS("8_2_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 2, 10, 40000, 20), /* 8_2_1 */
BAP_QOS("16_1_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 2, 8, 40000, 31, "low-latency"), /* 16_1_1 */ BAP_QOS("16_1_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 2, 8, 40000, 31), /* 16_1_1 */
BAP_QOS("16_2_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 2, 10, 40000, 21, "low-latency"), /* 16_2_1 (mandatory) */ BAP_QOS("16_2_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 2, 10, 40000, 21), /* 16_2_1 (mandatory) */
BAP_QOS("24_1_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 2, 8, 40000, 32, "low-latency"), /* 24_1_1 */ BAP_QOS("24_1_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 2, 8, 40000, 32), /* 24_1_1 */
BAP_QOS("24_2_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 2, 10, 40000, 22, "low-latency"), /* 24_2_1 */ BAP_QOS("24_2_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 2, 10, 40000, 22), /* 24_2_1 */
BAP_QOS("32_1_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 2, 8, 40000, 33, "low-latency"), /* 32_1_1 */ BAP_QOS("32_1_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 2, 8, 40000, 33), /* 32_1_1 */
BAP_QOS("32_2_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 2, 10, 40000, 23, "low-latency"), /* 32_2_1 */ BAP_QOS("32_2_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 2, 10, 40000, 23), /* 32_2_1 */
BAP_QOS("441_1_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 5, 24, 40000, 34, "low-latency"), /* 441_1_1 */ BAP_QOS("441_1_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 5, 24, 40000, 34), /* 441_1_1 */
BAP_QOS("441_2_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 5, 31, 40000, 24, "low-latency"), /* 441_2_1 */ BAP_QOS("441_2_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 5, 31, 40000, 24), /* 441_2_1 */
BAP_QOS("48_1_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 5, 15, 40000, 35, "low-latency"), /* 48_1_1 */ BAP_QOS("48_1_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 5, 15, 40000, 35), /* 48_1_1 */
BAP_QOS("48_2_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 5, 20, 40000, 25, "low-latency"), /* 48_2_1 */ BAP_QOS("48_2_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 5, 20, 40000, 25), /* 48_2_1 */
BAP_QOS("48_3_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 5, 15, 40000, 36, "low-latency"), /* 48_3_1 */ BAP_QOS("48_3_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 5, 15, 40000, 36), /* 48_3_1 */
BAP_QOS("48_4_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 5, 20, 40000, 26, "low-latency"), /* 48_4_1 */ BAP_QOS("48_4_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 5, 20, 40000, 26), /* 48_4_1 */
BAP_QOS("48_5_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 5, 15, 40000, 37, "low-latency"), /* 48_5_1 */ BAP_QOS("48_5_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 5, 15, 40000, 37), /* 48_5_1 */
BAP_QOS("48_6_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 5, 20, 40000, 27, "low-latency"), /* 48_6_1 */ BAP_QOS("48_6_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 5, 20, 40000, 27), /* 48_6_1 */
/* BAP v1.0.1 Table 5.2; high-reliability */ /* BAP v1.0.1 Table 5.2; high-reliability */
BAP_QOS("8_1_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 13, 75, 40000, 10, "high-reliabilty"), /* 8_1_2 */ BAP_QOS("8_1_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 13, 75, 40000, 10), /* 8_1_2 */
BAP_QOS("8_2_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 13, 95, 40000, 0, "high-reliabilty"), /* 8_2_2 */ BAP_QOS("8_2_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 13, 95, 40000, 0), /* 8_2_2 */
BAP_QOS("16_1_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 13, 75, 40000, 11, "high-reliabilty"), /* 16_1_2 */ BAP_QOS("16_1_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 13, 75, 40000, 11), /* 16_1_2 */
BAP_QOS("16_2_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 13, 95, 40000, 1, "high-reliabilty"), /* 16_2_2 */ BAP_QOS("16_2_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 13, 95, 40000, 1), /* 16_2_2 */
BAP_QOS("24_1_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 13, 75, 40000, 12, "high-reliabilty"), /* 24_1_2 */ BAP_QOS("24_1_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 13, 75, 40000, 12), /* 24_1_2 */
BAP_QOS("24_2_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 13, 95, 40000, 2, "high-reliabilty"), /* 24_2_2 */ BAP_QOS("24_2_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 13, 95, 40000, 2), /* 24_2_2 */
BAP_QOS("32_1_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 13, 75, 40000, 13, "high-reliabilty"), /* 32_1_2 */ BAP_QOS("32_1_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 13, 75, 40000, 13), /* 32_1_2 */
BAP_QOS("32_2_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 13, 95, 40000, 3, "high-reliabilty"), /* 32_2_2 */ BAP_QOS("32_2_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 13, 95, 40000, 3), /* 32_2_2 */
BAP_QOS("441_1_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 13, 80, 40000, 54, "high-reliabilty"), /* 441_1_2 */ BAP_QOS("441_1_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 13, 80, 40000, 14), /* 441_1_2 */
BAP_QOS("441_2_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 13, 85, 40000, 44, "high-reliabilty"), /* 441_2_2 */ BAP_QOS("441_2_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 13, 85, 40000, 4), /* 441_2_2 */
BAP_QOS("48_1_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 13, 75, 40000, 55, "high-reliabilty"), /* 48_1_2 */ BAP_QOS("48_1_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 13, 75, 40000, 15), /* 48_1_2 */
BAP_QOS("48_2_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 13, 95, 40000, 45, "high-reliabilty"), /* 48_2_2 */ BAP_QOS("48_2_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 13, 95, 40000, 5), /* 48_2_2 */
BAP_QOS("48_3_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 13, 75, 40000, 56, "high-reliabilty"), /* 48_3_2 */ BAP_QOS("48_3_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 13, 75, 40000, 16), /* 48_3_2 */
BAP_QOS("48_4_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 13, 100, 40000, 46, "high-reliabilty"), /* 48_4_2 */ BAP_QOS("48_4_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 13, 100, 40000, 6), /* 48_4_2 */
BAP_QOS("48_5_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 13, 75, 40000, 57, "high-reliabilty"), /* 48_5_2 */ BAP_QOS("48_5_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 13, 75, 40000, 17), /* 48_5_2 */
BAP_QOS("48_6_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 13, 100, 40000, 47, "high-reliabilty"), /* 48_6_2 */ BAP_QOS("48_6_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 13, 100, 40000, 7), /* 48_6_2 */
}; };
static const struct bap_qos bap_bcast_qos_configs[] = { static const struct bap_qos bap_bcast_qos_configs[] = {
@ -149,40 +147,40 @@ static const struct bap_qos bap_bcast_qos_configs[] = {
* bigger frequency and sdu better */ * bigger frequency and sdu better */
/* BAP v1.0.1 Table 6.4; low-latency */ /* BAP v1.0.1 Table 6.4; low-latency */
BAP_QOS("8_1_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 2, 8, 40000, 30, "low-latency"), /* 8_1_1 */ BAP_QOS("8_1_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 2, 8, 40000, 30), /* 8_1_1 */
BAP_QOS("8_2_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 2, 10, 40000, 20, "low-latency"), /* 8_2_1 */ BAP_QOS("8_2_1", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 2, 10, 40000, 20), /* 8_2_1 */
BAP_QOS("16_1_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 2, 8, 40000, 31, "low-latency"), /* 16_1_1 */ BAP_QOS("16_1_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 2, 8, 40000, 31), /* 16_1_1 */
BAP_QOS("16_2_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 2, 10, 40000, 21, "low-latency"), /* 16_2_1 (mandatory) */ BAP_QOS("16_2_1", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 2, 10, 40000, 21), /* 16_2_1 (mandatory) */
BAP_QOS("24_1_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 2, 8, 40000, 32, "low-latency"), /* 24_1_1 */ BAP_QOS("24_1_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 2, 8, 40000, 32), /* 24_1_1 */
BAP_QOS("24_2_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 2, 10, 40000, 22, "low-latency"), /* 24_2_1 */ BAP_QOS("24_2_1", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 2, 10, 40000, 22), /* 24_2_1 */
BAP_QOS("32_1_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 2, 8, 40000, 33, "low-latency"), /* 32_1_1 */ BAP_QOS("32_1_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 2, 8, 40000, 33), /* 32_1_1 */
BAP_QOS("32_2_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 2, 10, 40000, 23, "low-latency"), /* 32_2_1 */ BAP_QOS("32_2_1", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 2, 10, 40000, 23), /* 32_2_1 */
BAP_QOS("441_1_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 4, 24, 40000, 34, "low-latency"), /* 441_1_1 */ BAP_QOS("441_1_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 4, 24, 40000, 34), /* 441_1_1 */
BAP_QOS("441_2_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 4, 31, 40000, 24, "low-latency"), /* 441_2_1 */ BAP_QOS("441_2_1", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 4, 31, 40000, 24), /* 441_2_1 */
BAP_QOS("48_1_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 4, 15, 40000, 35, "low-latency"), /* 48_1_1 */ BAP_QOS("48_1_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 4, 15, 40000, 35), /* 48_1_1 */
BAP_QOS("48_2_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 4, 20, 40000, 25, "low-latency"), /* 48_2_1 */ BAP_QOS("48_2_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 4, 20, 40000, 25), /* 48_2_1 */
BAP_QOS("48_3_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 4, 15, 40000, 36, "low-latency"), /* 48_3_1 */ BAP_QOS("48_3_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 4, 15, 40000, 36), /* 48_3_1 */
BAP_QOS("48_4_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 4, 20, 40000, 26, "low-latency"), /* 48_4_1 */ BAP_QOS("48_4_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 4, 20, 40000, 26), /* 48_4_1 */
BAP_QOS("48_5_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 4, 15, 40000, 37, "low-latency"), /* 48_5_1 */ BAP_QOS("48_5_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 4, 15, 40000, 37), /* 48_5_1 */
BAP_QOS("48_6_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 4, 20, 40000, 27, "low-latency"), /* 48_6_1 */ BAP_QOS("48_6_1", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 4, 20, 40000, 27), /* 48_6_1 */
/* BAP v1.0.1 Table 6.4; high-reliability */ /* BAP v1.0.1 Table 6.4; high-reliability */
BAP_QOS("8_1_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 4, 45, 40000, 10, "high-reliabilty"), /* 8_1_2 */ BAP_QOS("8_1_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_7_5, false, 26, 4, 45, 40000, 10), /* 8_1_2 */
BAP_QOS("8_2_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 4, 60, 40000, 0, "high-reliabilty"), /* 8_2_2 */ BAP_QOS("8_2_2", LC3_CONFIG_FREQ_8KHZ, LC3_CONFIG_DURATION_10, false, 30, 4, 60, 40000, 0), /* 8_2_2 */
BAP_QOS("16_1_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 4, 45, 40000, 11, "high-reliabilty"), /* 16_1_2 */ BAP_QOS("16_1_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_7_5, false, 30, 4, 45, 40000, 11), /* 16_1_2 */
BAP_QOS("16_2_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 4, 60, 40000, 1, "high-reliabilty"), /* 16_2_2 */ BAP_QOS("16_2_2", LC3_CONFIG_FREQ_16KHZ, LC3_CONFIG_DURATION_10, false, 40, 4, 60, 40000, 1), /* 16_2_2 */
BAP_QOS("24_1_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 4, 45, 40000, 12, "high-reliabilty"), /* 24_1_2 */ BAP_QOS("24_1_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_7_5, false, 45, 4, 45, 40000, 12), /* 24_1_2 */
BAP_QOS("24_2_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 4, 60, 40000, 2, "high-reliabilty"), /* 24_2_2 */ BAP_QOS("24_2_2", LC3_CONFIG_FREQ_24KHZ, LC3_CONFIG_DURATION_10, false, 60, 4, 60, 40000, 2), /* 24_2_2 */
BAP_QOS("32_1_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 4, 45, 40000, 13, "high-reliabilty"), /* 32_1_2 */ BAP_QOS("32_1_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_7_5, false, 60, 4, 45, 40000, 13), /* 32_1_2 */
BAP_QOS("32_2_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 4, 60, 40000, 3, "high-reliabilty"), /* 32_2_2 */ BAP_QOS("32_2_2", LC3_CONFIG_FREQ_32KHZ, LC3_CONFIG_DURATION_10, false, 80, 4, 60, 40000, 3), /* 32_2_2 */
BAP_QOS("441_1_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 4, 54, 40000, 14, "high-reliabilty"), /* 441_1_2 */ BAP_QOS("441_1_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_7_5, true, 97, 4, 54, 40000, 14), /* 441_1_2 */
BAP_QOS("441_2_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 4, 60, 40000, 4, "high-reliabilty"), /* 441_2_2 */ BAP_QOS("441_2_2", LC3_CONFIG_FREQ_44KHZ, LC3_CONFIG_DURATION_10, true, 130, 4, 60, 40000, 4), /* 441_2_2 */
BAP_QOS("48_1_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 4, 50, 40000, 15, "high-reliabilty"), /* 48_1_2 */ BAP_QOS("48_1_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 75, 4, 50, 40000, 15), /* 48_1_2 */
BAP_QOS("48_2_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 4, 65, 40000, 5, "high-reliabilty"), /* 48_2_2 */ BAP_QOS("48_2_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 100, 4, 65, 40000, 5), /* 48_2_2 */
BAP_QOS("48_3_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 4, 50, 40000, 16, "high-reliabilty"), /* 48_3_2 */ BAP_QOS("48_3_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 90, 4, 50, 40000, 16), /* 48_3_2 */
BAP_QOS("48_4_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 4, 65, 40000, 6, "high-reliabilty"), /* 48_4_2 */ BAP_QOS("48_4_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 120, 4, 65, 40000, 6), /* 48_4_2 */
BAP_QOS("48_5_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 4, 50, 40000, 17, "high-reliabilty"), /* 48_5_2 */ BAP_QOS("48_5_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_7_5, false, 117, 4, 50, 40000, 17), /* 48_5_2 */
BAP_QOS("48_6_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 4, 65, 40000, 7, "high-reliabilty"), /* 48_6_2 */ BAP_QOS("48_6_2", LC3_CONFIG_FREQ_48KHZ, LC3_CONFIG_DURATION_10, false, 155, 4, 65, 40000, 7), /* 48_6_2 */
}; };
static unsigned int get_rate_mask(uint8_t rate) { static unsigned int get_rate_mask(uint8_t rate) {
@ -478,9 +476,6 @@ static bool select_bap_qos(struct bap_qos *conf,
else if (c.priority < conf->priority) else if (c.priority < conf->priority)
continue; continue;
if (s->force_target_latency && !spa_streq(s->force_target_latency, c.tag))
continue;
if (s->retransmission >= 0) if (s->retransmission >= 0)
c.retransmission = s->retransmission; c.retransmission = s->retransmission;
if (s->latency >= 0) if (s->latency >= 0)
@ -849,9 +844,6 @@ static void parse_settings(struct settings *s, const struct spa_dict *settings,
if ((str = spa_dict_lookup(settings, "bluez5.bap.preset"))) if ((str = spa_dict_lookup(settings, "bluez5.bap.preset")))
s->qos_name = strdup(str); s->qos_name = strdup(str);
if ((str = spa_dict_lookup(settings, "bluez5.bap.force-target-latency")))
s->force_target_latency = strdup(str);
if (spa_atou32(spa_dict_lookup(settings, "bluez5.bap.rtn"), &value, 0)) if (spa_atou32(spa_dict_lookup(settings, "bluez5.bap.rtn"), &value, 0))
s->retransmission = value; s->retransmission = value;
@ -889,11 +881,11 @@ static void parse_settings(struct settings *s, const struct spa_dict *settings,
spa_debugc(&debug_ctx->ctx, spa_debugc(&debug_ctx->ctx,
"BAP LC3 settings: preset:%s rtn:%d latency:%d delay:%d framing:%d " "BAP LC3 settings: preset:%s rtn:%d latency:%d delay:%d framing:%d "
"locations:%x chnalloc:%x sink:%d duplex:%d force-target-latency:%s", "locations:%x chnalloc:%x sink:%d duplex:%d",
s->qos_name ? s->qos_name : "auto", s->qos_name ? s->qos_name : "auto",
s->retransmission, s->latency, (int)s->delay, s->framing, s->retransmission, s->latency, (int)s->delay, s->framing,
(unsigned int)s->locations, (unsigned int)s->channel_allocation, (unsigned int)s->locations, (unsigned int)s->channel_allocation,
(int)s->sink, (int)s->duplex, s->force_target_latency); (int)s->sink, (int)s->duplex);
} }
static void free_config_data(struct config_data *d) static void free_config_data(struct config_data *d)
@ -901,7 +893,6 @@ static void free_config_data(struct config_data *d)
if (!d) if (!d)
return; return;
free(d->settings.qos_name); free(d->settings.qos_name);
free(d->settings.force_target_latency);
free(d); free(d);
} }

View file

@ -194,7 +194,6 @@ struct spa_bt_bis {
}; };
#define BROADCAST_CODE_LEN 16 #define BROADCAST_CODE_LEN 16
#define HCI_DEV_NAME_LEN 8
struct spa_bt_big { struct spa_bt_big {
struct spa_list link; struct spa_list link;
@ -203,7 +202,6 @@ struct spa_bt_big {
struct spa_list bis_list; struct spa_list bis_list;
int big_id; int big_id;
int sync_factor; int sync_factor;
char adapter[HCI_DEV_NAME_LEN];
}; };
/* /*
@ -736,11 +734,6 @@ static void bap_features_clear(struct bap_features *feat)
spa_zero(*feat); spa_zero(*feat);
} }
const struct spa_dict *get_device_codec_settings(struct spa_bt_device *device, bool bap)
{
return bap ? device->settings : &device->monitor->global_settings;
}
static DBusHandlerResult endpoint_select_configuration(DBusConnection *conn, DBusMessage *m, void *userdata) static DBusHandlerResult endpoint_select_configuration(DBusConnection *conn, DBusMessage *m, void *userdata)
{ {
struct spa_bt_monitor *monitor = userdata; struct spa_bt_monitor *monitor = userdata;
@ -2765,7 +2758,6 @@ bool spa_bt_device_supports_media_codec(struct spa_bt_device *device, const stru
{ SPA_BLUETOOTH_AUDIO_CODEC_FASTSTREAM_DUPLEX, SPA_BT_FEATURE_A2DP_DUPLEX }, { SPA_BLUETOOTH_AUDIO_CODEC_FASTSTREAM_DUPLEX, SPA_BT_FEATURE_A2DP_DUPLEX },
}; };
bool is_a2dp = codec->kind == MEDIA_CODEC_A2DP; bool is_a2dp = codec->kind == MEDIA_CODEC_A2DP;
bool is_bap = codec->kind == MEDIA_CODEC_BAP;
size_t i; size_t i;
codec_target_profile = get_codec_target_profile(monitor, codec); codec_target_profile = get_codec_target_profile(monitor, codec);
@ -2807,8 +2799,7 @@ bool spa_bt_device_supports_media_codec(struct spa_bt_device *device, const stru
continue; continue;
if (media_codec_check_caps(codec, ep->codec, ep->capabilities, ep->capabilities_len, if (media_codec_check_caps(codec, ep->codec, ep->capabilities, ep->capabilities_len,
&ep->monitor->default_audio_info, &ep->monitor->default_audio_info, &monitor->global_settings))
get_device_codec_settings(device, is_bap)))
return true; return true;
} }
@ -3111,13 +3102,11 @@ static int remote_endpoint_update_props(struct spa_bt_remote_endpoint *remote_en
spa_log_debug(monitor->log, "remote_endpoint %p: %s=%"PRIu64, remote_endpoint, key, remote_endpoint->hisyncid); spa_log_debug(monitor->log, "remote_endpoint %p: %s=%"PRIu64, remote_endpoint, key, remote_endpoint->hisyncid);
} else if (spa_streq(key, "SupportedFeatures")) { } else if (spa_streq(key, "SupportedFeatures")) {
DBusMessageIter iter;
if (!check_iter_signature(&it[1], "a{sv}")) if (!check_iter_signature(&it[1], "a{sv}"))
goto next; goto next;
dbus_message_iter_recurse(&it[1], &iter); dbus_message_iter_recurse(&it[1], &it[2]);
parse_supported_features(monitor, &iter, &remote_endpoint->bap_features); parse_supported_features(monitor, &it[2], &remote_endpoint->bap_features);
} else { } else {
unhandled: unhandled:
spa_log_debug(monitor->log, "remote_endpoint %p: unhandled key %s", remote_endpoint, key); spa_log_debug(monitor->log, "remote_endpoint %p: unhandled key %s", remote_endpoint, key);
@ -4662,7 +4651,7 @@ static bool codec_switch_check_endpoint(struct spa_bt_remote_endpoint *ep,
if (!media_codec_check_caps(codec, ep->codec, ep->capabilities, ep->capabilities_len, if (!media_codec_check_caps(codec, ep->codec, ep->capabilities, ep->capabilities_len,
&ep->device->monitor->default_audio_info, &ep->device->monitor->default_audio_info,
get_device_codec_settings(ep->device, codec->kind == MEDIA_CODEC_BAP))) &ep->device->monitor->global_settings))
return false; return false;
if (ep_profile & (SPA_BT_PROFILE_A2DP_SINK | SPA_BT_PROFILE_BAP_SINK)) { if (ep_profile & (SPA_BT_PROFILE_A2DP_SINK | SPA_BT_PROFILE_BAP_SINK)) {
@ -6253,20 +6242,8 @@ static void configure_bcast_source(struct spa_bt_monitor *monitor,
{ {
struct spa_bt_big *big; struct spa_bt_big *big;
struct spa_bt_bis *bis; struct spa_bt_bis *bis;
char *pos;
/* Configure each BIS from a BIG */ /* Configure each BIS from a BIG */
spa_list_for_each(big, &monitor->bcast_source_config_list, link) { spa_list_for_each(big, &monitor->bcast_source_config_list, link) {
/* Apply per adapter configuration if BIG has an adapter value stated,
* otherwise apply the BIG config angnostically to each adapter
*/
if (strlen(big->adapter) > 0) {
pos = strstr(object_path, big->adapter);
if (pos == NULL)
continue;
spa_log_debug(monitor->log, "configuring BIG for adapter=%s", big->adapter);
}
spa_list_for_each(bis, &big->bis_list, link) { spa_list_for_each(bis, &big->bis_list, link) {
configure_bis(monitor, codec, conn, object_path, interface_name, configure_bis(monitor, codec, conn, object_path, interface_name,
big, bis, local_endpoint); big, bis, local_endpoint);
@ -7010,7 +6987,6 @@ static void parse_broadcast_source_config(struct spa_bt_monitor *monitor, const
char bis_key[256]; char bis_key[256];
char qos_key[256]; char qos_key[256];
char bcode[BROADCAST_CODE_LEN + 3]; char bcode[BROADCAST_CODE_LEN + 3];
char adapter[HCI_DEV_NAME_LEN + 3];
int cursor; int cursor;
int big_id = 0; int big_id = 0;
struct spa_json it[3], it_array[4]; struct spa_json it[3], it_array[4];
@ -7046,13 +7022,6 @@ static void parse_broadcast_source_config(struct spa_bt_monitor *monitor, const
goto parse_failed; goto parse_failed;
memcpy(big_entry->broadcast_code, bcode, strlen(bcode)); memcpy(big_entry->broadcast_code, bcode, strlen(bcode));
spa_log_debug(monitor->log, "big_entry->broadcast_code %s", big_entry->broadcast_code); spa_log_debug(monitor->log, "big_entry->broadcast_code %s", big_entry->broadcast_code);
} else if (spa_streq(key, "adapter")) {
if (spa_json_get_string(&it[1], adapter, sizeof(adapter)) <= 0)
goto parse_failed;
if (strlen(adapter) > HCI_DEV_NAME_LEN)
goto parse_failed;
memcpy(big_entry->adapter, adapter, strlen(adapter));
spa_log_debug(monitor->log, "big_entry->adapter %s", big_entry->adapter);
} else if (spa_streq(key, "encryption")) { } else if (spa_streq(key, "encryption")) {
if (spa_json_get_bool(&it[0], &big_entry->encryption) <= 0) if (spa_json_get_bool(&it[0], &big_entry->encryption) <= 0)
goto parse_failed; goto parse_failed;

View file

@ -135,8 +135,7 @@ extern "C" {
#define PROFILE_HFP_AG "/Profile/HFPAG" #define PROFILE_HFP_AG "/Profile/HFPAG"
#define PROFILE_HFP_HF "/Profile/HFPHF" #define PROFILE_HFP_HF "/Profile/HFPHF"
#define HSP_HS_DEFAULT_CHANNEL 3 #define HSP_HS_DEFAULT_CHANNEL 3
#define HFP_SCO_DEFAULT_DATAPATH 0
#define SOURCE_ID_BLUETOOTH 0x1 /* Bluetooth SIG */ #define SOURCE_ID_BLUETOOTH 0x1 /* Bluetooth SIG */
#define SOURCE_ID_USB 0x2 /* USB Implementer's Forum */ #define SOURCE_ID_USB 0x2 /* USB Implementer's Forum */

View file

@ -80,6 +80,7 @@ struct descriptor {
unsigned long *output; unsigned long *output;
unsigned long *control; unsigned long *control;
unsigned long *notify; unsigned long *notify;
float *default_control;
}; };
struct port { struct port {
@ -93,9 +94,6 @@ struct port {
uint32_t n_links; uint32_t n_links;
uint32_t external; uint32_t external;
bool control_initialized;
float control_current;
float control_data[MAX_HNDL]; float control_data[MAX_HNDL];
float *audio_data[MAX_HNDL]; float *audio_data[MAX_HNDL];
void *audio_mem[MAX_HNDL]; void *audio_mem[MAX_HNDL];
@ -195,9 +193,6 @@ struct graph {
struct volume volume[2]; struct volume volume[2];
uint32_t default_inputs;
uint32_t default_outputs;
uint32_t n_inputs; uint32_t n_inputs;
uint32_t n_outputs; uint32_t n_outputs;
uint32_t inputs_position[MAX_CHANNELS]; uint32_t inputs_position[MAX_CHANNELS];
@ -262,23 +257,16 @@ static void emit_filter_graph_info(struct impl *impl, bool full)
impl->info.change_mask = impl->info_all; impl->info.change_mask = impl->info_all;
if (impl->info.change_mask || full) { if (impl->info.change_mask || full) {
char n_inputs[64], n_outputs[64], latency[64]; char n_inputs[64], n_outputs[64], latency[64];
char n_default_inputs[64], n_default_outputs[64];
struct spa_dict_item items[6]; struct spa_dict_item items[6];
struct spa_dict dict = SPA_DICT(items, 0); struct spa_dict dict = SPA_DICT(items, 0);
char in_pos[MAX_CHANNELS * 8]; char in_pos[MAX_CHANNELS * 8];
char out_pos[MAX_CHANNELS * 8]; char out_pos[MAX_CHANNELS * 8];
/* these are the current graph inputs/outputs */
snprintf(n_inputs, sizeof(n_inputs), "%d", impl->graph.n_inputs); snprintf(n_inputs, sizeof(n_inputs), "%d", impl->graph.n_inputs);
snprintf(n_outputs, sizeof(n_outputs), "%d", impl->graph.n_outputs); snprintf(n_outputs, sizeof(n_outputs), "%d", impl->graph.n_outputs);
/* these are the default number of graph inputs/outputs */
snprintf(n_default_inputs, sizeof(n_default_inputs), "%d", impl->graph.default_inputs);
snprintf(n_default_outputs, sizeof(n_default_outputs), "%d", impl->graph.default_outputs);
items[dict.n_items++] = SPA_DICT_ITEM("n_inputs", n_inputs); items[dict.n_items++] = SPA_DICT_ITEM("n_inputs", n_inputs);
items[dict.n_items++] = SPA_DICT_ITEM("n_outputs", n_outputs); items[dict.n_items++] = SPA_DICT_ITEM("n_outputs", n_outputs);
items[dict.n_items++] = SPA_DICT_ITEM("n_default_inputs", n_default_inputs);
items[dict.n_items++] = SPA_DICT_ITEM("n_default_outputs", n_default_outputs);
if (graph->n_inputs_position) { if (graph->n_inputs_position) {
print_channels(in_pos, sizeof(in_pos), print_channels(in_pos, sizeof(in_pos),
graph->n_inputs_position, graph->inputs_position); graph->n_inputs_position, graph->inputs_position);
@ -351,6 +339,12 @@ static int impl_process(void *object,
return 0; return 0;
} }
static float get_default(struct impl *impl, struct descriptor *desc, uint32_t p)
{
struct spa_fga_port *port = &desc->desc->ports[p];
return port->def;
}
static struct node *find_node(struct graph *graph, const char *name) static struct node *find_node(struct graph *graph, const char *name)
{ {
struct node *node; struct node *node;
@ -439,20 +433,6 @@ static struct port *find_port(struct node *node, const char *name, int descripto
return NULL; return NULL;
} }
static void get_ranges(struct impl *impl, struct spa_fga_port *p,
float *def, float *min, float *max)
{
uint32_t rate = impl->rate ? impl->rate : DEFAULT_RATE;
*def = p->def;
*min = p->min;
*max = p->max;
if (p->hint & SPA_FGA_HINT_SAMPLE_RATE) {
*def *= rate;
*min *= rate;
*max *= rate;
}
}
static int impl_enum_prop_info(void *object, uint32_t idx, struct spa_pod_builder *b, static int impl_enum_prop_info(void *object, uint32_t idx, struct spa_pod_builder *b,
struct spa_pod **param) struct spa_pod **param)
{ {
@ -467,6 +447,7 @@ static int impl_enum_prop_info(void *object, uint32_t idx, struct spa_pod_builde
struct spa_fga_port *p; struct spa_fga_port *p;
float def, min, max; float def, min, max;
char name[512]; char name[512];
uint32_t rate = impl->rate ? impl->rate : DEFAULT_RATE;
if (idx >= graph->n_control) if (idx >= graph->n_control)
return 0; return 0;
@ -477,7 +458,15 @@ static int impl_enum_prop_info(void *object, uint32_t idx, struct spa_pod_builde
d = desc->desc; d = desc->desc;
p = &d->ports[port->p]; p = &d->ports[port->p];
get_ranges(impl, p, &def, &min, &max); if (p->hint & SPA_FGA_HINT_SAMPLE_RATE) {
def = p->def * rate;
min = p->min * rate;
max = p->max * rate;
} else {
def = p->def;
min = p->min;
max = p->max;
}
if (node->name[0] != '\0') if (node->name[0] != '\0')
snprintf(name, sizeof(name), "%s:%s", node->name, p->name); snprintf(name, sizeof(name), "%s:%s", node->name, p->name);
@ -576,58 +565,41 @@ static int impl_get_props(void *object, struct spa_pod_builder *b, struct spa_po
return 1; return 1;
} }
static int port_id_set_control_value(struct port *port, uint32_t id, float value) static int port_set_control_value(struct port *port, float *value, uint32_t id)
{ {
struct node *node = port->node; struct node *node = port->node;
struct impl *impl = node->graph->impl; struct impl *impl = node->graph->impl;
struct descriptor *desc = node->desc; struct descriptor *desc = node->desc;
struct spa_fga_port *p = &desc->desc->ports[port->p];
float old; float old;
bool changed; bool changed;
old = port->control_data[id]; old = port->control_data[id];
port->control_data[id] = value; port->control_data[id] = value ? *value : desc->default_control[port->idx];
spa_log_info(impl->log, "control %d %d ('%s') from %f to %f", port->idx, id, spa_log_info(impl->log, "control %d %d ('%s') from %f to %f", port->idx, id,
p->name, old, value); desc->desc->ports[port->p].name, old, port->control_data[id]);
changed = old != port->control_data[id]; changed = old != port->control_data[id];
node->control_changed |= changed; node->control_changed |= changed;
return changed ? 1 : 0; return changed ? 1 : 0;
} }
static int port_set_control_value(struct port *port, float *value)
{
struct node *node = port->node;
struct impl *impl = node->graph->impl;
struct spa_fga_port *p;
float v, def, min, max;
uint32_t i;
int count = 0;
p = &node->desc->desc->ports[port->p];
get_ranges(impl, p, &def, &min, &max);
v = SPA_CLAMP(value ? *value : def, min, max);
port->control_current = v;
port->control_initialized = true;
for (i = 0; i < node->n_hndl; i++)
count += port_id_set_control_value(port, i, v);
return count;
}
static int set_control_value(struct node *node, const char *name, float *value) static int set_control_value(struct node *node, const char *name, float *value)
{ {
struct port *port; struct port *port;
int count = 0;
uint32_t i, n_hndl;
port = find_port(node, name, SPA_FGA_PORT_INPUT | SPA_FGA_PORT_CONTROL); port = find_port(node, name, SPA_FGA_PORT_INPUT | SPA_FGA_PORT_CONTROL);
if (port == NULL) if (port == NULL)
return -ENOENT; return -ENOENT;
return port_set_control_value(port, value); /* if we don't have any instances yet, set the first control value, we will
* copy to other instances later */
n_hndl = SPA_MAX(1u, port->node->n_hndl);
for (i = 0; i < n_hndl; i++)
count += port_set_control_value(port, value, i);
return count;
} }
static int parse_params(struct graph *graph, const struct spa_pod *pod) static int parse_params(struct graph *graph, const struct spa_pod *pod)
@ -734,7 +706,7 @@ static int sync_volume(struct graph *graph, struct volume *vol)
v = v * (vol->max[n_port] - vol->min[n_port]) + vol->min[n_port]; v = v * (vol->max[n_port] - vol->min[n_port]) + vol->min[n_port];
n_hndl = SPA_MAX(1u, p->node->n_hndl); n_hndl = SPA_MAX(1u, p->node->n_hndl);
res += port_id_set_control_value(p, i % n_hndl, v); res += port_set_control_value(p, &v, i % n_hndl);
} }
return res; return res;
} }
@ -953,6 +925,7 @@ static void descriptor_unref(struct descriptor *desc)
free(desc->input); free(desc->input);
free(desc->output); free(desc->output);
free(desc->control); free(desc->control);
free(desc->default_control);
free(desc->notify); free(desc->notify);
free(desc); free(desc);
} }
@ -963,7 +936,7 @@ static struct descriptor *descriptor_load(struct impl *impl, const char *type,
struct plugin *pl; struct plugin *pl;
struct descriptor *desc; struct descriptor *desc;
const struct spa_fga_descriptor *d; const struct spa_fga_descriptor *d;
uint32_t n_input, n_output, n_control, n_notify; uint32_t i, n_input, n_output, n_control, n_notify;
unsigned long p; unsigned long p;
int res; int res;
@ -1017,6 +990,7 @@ static struct descriptor *descriptor_load(struct impl *impl, const char *type,
desc->input = calloc(n_input, sizeof(unsigned long)); desc->input = calloc(n_input, sizeof(unsigned long));
desc->output = calloc(n_output, sizeof(unsigned long)); desc->output = calloc(n_output, sizeof(unsigned long));
desc->control = calloc(n_control, sizeof(unsigned long)); desc->control = calloc(n_control, sizeof(unsigned long));
desc->default_control = calloc(n_control, sizeof(float));
desc->notify = calloc(n_notify, sizeof(unsigned long)); desc->notify = calloc(n_notify, sizeof(unsigned long));
for (p = 0; p < d->n_ports; p++) { for (p = 0; p < d->n_ports; p++) {
@ -1046,6 +1020,17 @@ static struct descriptor *descriptor_load(struct impl *impl, const char *type,
} }
} }
} }
if (desc->n_input == 0 && desc->n_output == 0 && desc->n_control == 0 && desc->n_notify == 0) {
spa_log_error(impl->log, "plugin has no input and no output ports");
res = -ENOTSUP;
goto exit;
}
for (i = 0; i < desc->n_control; i++) {
p = desc->control[i];
desc->default_control[i] = get_default(impl, desc, p);
spa_log_info(impl->log, "control %d ('%s') default to %f", i,
d->ports[p].name, desc->default_control[i]);
}
spa_list_append(&pl->descriptor_list, &desc->link); spa_list_append(&pl->descriptor_list, &desc->link);
return desc; return desc;
@ -1425,6 +1410,7 @@ static int load_node(struct graph *graph, struct spa_json *json)
port->external = SPA_ID_INVALID; port->external = SPA_ID_INVALID;
port->p = desc->control[i]; port->p = desc->control[i];
spa_list_init(&port->link_list); spa_list_init(&port->link_list);
port->control_data[0] = desc->default_control[i];
} }
for (i = 0; i < desc->n_notify; i++) { for (i = 0; i < desc->n_notify; i++) {
struct port *port = &node->notify_port[i]; struct port *port = &node->notify_port[i];
@ -1798,7 +1784,7 @@ static int setup_graph(struct graph *graph)
struct port *port; struct port *port;
struct graph_port *gp; struct graph_port *gp;
struct graph_hndl *gh; struct graph_hndl *gh;
uint32_t i, j, n, n_input, n_output, n_hndl = 0, n_out_hndl; uint32_t i, j, n, n_input, n_output, n_hndl = 0;
int res; int res;
struct descriptor *desc; struct descriptor *desc;
const struct spa_fga_descriptor *d; const struct spa_fga_descriptor *d;
@ -1810,8 +1796,19 @@ static int setup_graph(struct graph *graph)
first = spa_list_first(&graph->node_list, struct node, link); first = spa_list_first(&graph->node_list, struct node, link);
last = spa_list_last(&graph->node_list, struct node, link); last = spa_list_last(&graph->node_list, struct node, link);
n_input = graph->default_inputs; /* calculate the number of inputs and outputs into the graph.
n_output = graph->default_outputs; * If we have a list of inputs/outputs, just use them. Otherwise
* we count all input ports of the first node and all output
* ports of the last node */
if (graph->n_input_names != 0)
n_input = graph->n_input_names;
else
n_input = first->desc->n_input;
if (graph->n_output_names != 0)
n_output = graph->n_output_names;
else
n_output = last->desc->n_output;
/* we allow unconnected ports when not explicitly given and the nodes support /* we allow unconnected ports when not explicitly given and the nodes support
* NULL data */ * NULL data */
@ -1819,11 +1816,16 @@ static int setup_graph(struct graph *graph)
SPA_FLAG_IS_SET(first->desc->desc->flags, SPA_FGA_DESCRIPTOR_SUPPORTS_NULL_DATA) && SPA_FLAG_IS_SET(first->desc->desc->flags, SPA_FGA_DESCRIPTOR_SUPPORTS_NULL_DATA) &&
SPA_FLAG_IS_SET(last->desc->desc->flags, SPA_FGA_DESCRIPTOR_SUPPORTS_NULL_DATA); SPA_FLAG_IS_SET(last->desc->desc->flags, SPA_FGA_DESCRIPTOR_SUPPORTS_NULL_DATA);
if (n_input == 0) if (n_input == 0) {
n_input = n_output; spa_log_error(impl->log, "no inputs");
if (n_output == 0) res = -EINVAL;
n_output = n_input; goto error;
}
if (n_output == 0) {
spa_log_error(impl->log, "no outputs");
res = -EINVAL;
goto error;
}
if (graph->n_inputs == 0) if (graph->n_inputs == 0)
graph->n_inputs = impl->info.n_inputs; graph->n_inputs = impl->info.n_inputs;
if (graph->n_inputs == 0) if (graph->n_inputs == 0)
@ -1834,14 +1836,12 @@ static int setup_graph(struct graph *graph)
/* compare to the requested number of inputs and duplicate the /* compare to the requested number of inputs and duplicate the
* graph n_hndl times when needed. */ * graph n_hndl times when needed. */
n_hndl = n_input ? graph->n_inputs / n_input : 1; n_hndl = graph->n_inputs / n_input;
if (graph->n_outputs == 0) if (graph->n_outputs == 0)
graph->n_outputs = n_output * n_hndl; graph->n_outputs = n_output * n_hndl;
n_out_hndl = n_output ? graph->n_outputs / n_output : 1; if (n_hndl != graph->n_outputs / n_output) {
if (n_hndl != n_out_hndl) {
spa_log_error(impl->log, "invalid ports. The input stream has %1$d ports and " spa_log_error(impl->log, "invalid ports. The input stream has %1$d ports and "
"the filter has %2$d inputs. The output stream has %3$d ports " "the filter has %2$d inputs. The output stream has %3$d ports "
"and the filter has %4$d outputs. input:%1$d / input:%2$d != " "and the filter has %4$d outputs. input:%1$d / input:%2$d != "
@ -2029,9 +2029,11 @@ static int setup_graph(struct graph *graph)
} }
} }
for (i = 0; i < desc->n_control; i++) { for (i = 0; i < desc->n_control; i++) {
/* any default values for the controls are set in the first instance
* of the control data. Duplicate this to the other instances now. */
struct port *port = &node->control_port[i]; struct port *port = &node->control_port[i];
port_set_control_value(port, for (j = 1; j < n_hndl; j++)
port->control_initialized ? &port->control_current : NULL); port->control_data[j] = port->control_data[0];
} }
} }
res = 0; res = 0;
@ -2081,7 +2083,6 @@ static int load_graph(struct graph *graph, const struct spa_dict *props)
struct spa_json inputs, outputs, *pinputs = NULL, *poutputs = NULL; struct spa_json inputs, outputs, *pinputs = NULL, *poutputs = NULL;
struct spa_json ivolumes, ovolumes, *pivolumes = NULL, *povolumes = NULL; struct spa_json ivolumes, ovolumes, *pivolumes = NULL, *povolumes = NULL;
struct spa_json nodes, *pnodes = NULL, links, *plinks = NULL; struct spa_json nodes, *pnodes = NULL, links, *plinks = NULL;
struct node *first, *last;
const char *json, *val; const char *json, *val;
char key[256]; char key[256];
int res, len; int res, len;
@ -2231,25 +2232,6 @@ static int load_graph(struct graph *graph, const struct spa_dict *props)
} }
if ((res = setup_graph_controls(graph)) < 0) if ((res = setup_graph_controls(graph)) < 0)
return res; return res;
first = spa_list_first(&graph->node_list, struct node, link);
last = spa_list_last(&graph->node_list, struct node, link);
/* calculate the number of inputs and outputs into the graph.
* If we have a list of inputs/outputs, just use them. Otherwise
* we count all input ports of the first node and all output
* ports of the last node */
if (graph->n_input_names != 0)
graph->default_inputs = graph->n_input_names;
else
graph->default_inputs = first->desc->n_input;
if (graph->n_output_names != 0)
graph->default_outputs = graph->n_output_names;
else
graph->default_outputs = last->desc->n_output;
return 0; return 0;
} }

View file

@ -14,7 +14,6 @@
#include <sys/wait.h> #include <sys/wait.h>
#include <sys/socket.h> #include <sys/socket.h>
#include <fcntl.h> #include <fcntl.h>
#include <time.h>
#include <spa/utils/json.h> #include <spa/utils/json.h>
#include <spa/utils/result.h> #include <spa/utils/result.h>
@ -3116,136 +3115,6 @@ static const struct spa_fga_descriptor noisegate_desc = {
.cleanup = builtin_cleanup, .cleanup = builtin_cleanup,
}; };
/* busy */
struct busy_impl {
struct plugin *plugin;
struct spa_fga_dsp *dsp;
struct spa_log *log;
unsigned long rate;
float wait_scale;
float cpu_scale;
};
static void *busy_instantiate(const struct spa_fga_plugin *plugin, const struct spa_fga_descriptor * Descriptor,
unsigned long SampleRate, int index, const char *config)
{
struct plugin *pl = SPA_CONTAINER_OF(plugin, struct plugin, plugin);
struct busy_impl *impl;
struct spa_json it[1];
const char *val;
char key[256];
float wait_percent = 0.0f, cpu_percent = 0.0f;
int len;
if (config != NULL) {
if (spa_json_begin_object(&it[0], config, strlen(config)) <= 0) {
spa_log_error(pl->log, "busy:config must be an object");
return NULL;
}
while ((len = spa_json_object_next(&it[0], key, sizeof(key), &val)) > 0) {
if (spa_streq(key, "wait-percent")) {
if (spa_json_parse_float(val, len, &wait_percent) <= 0) {
spa_log_error(pl->log, "busy:wait-percent requires a number");
return NULL;
}
} else if (spa_streq(key, "cpu-percent")) {
if (spa_json_parse_float(val, len, &cpu_percent) <= 0) {
spa_log_error(pl->log, "busy:cpu-percent requires a number");
return NULL;
}
} else {
spa_log_warn(pl->log, "busy: ignoring config key: '%s'", key);
}
}
if (wait_percent <= 0.0f)
wait_percent = 0.0f;
if (cpu_percent <= 0.0f)
cpu_percent = 0.0f;
}
impl = calloc(1, sizeof(*impl));
if (impl == NULL)
return NULL;
impl->plugin = pl;
impl->dsp = pl->dsp;
impl->log = pl->log;
impl->rate = SampleRate;
impl->wait_scale = wait_percent * SPA_NSEC_PER_SEC / (100.0f * SampleRate);
impl->cpu_scale = cpu_percent * SPA_NSEC_PER_SEC / (100.0f * SampleRate);
spa_log_info(impl->log, "wait-percent:%f cpu-percent:%f", wait_percent, cpu_percent);
return impl;
}
static void busy_run(void * Instance, unsigned long SampleCount)
{
struct busy_impl *impl = Instance;
struct timespec ts;
uint64_t busy_nsec;
if (impl->wait_scale > 0.0f) {
busy_nsec = (uint64_t)(impl->wait_scale * SampleCount);
ts.tv_sec = busy_nsec / SPA_NSEC_PER_SEC;
ts.tv_nsec = busy_nsec % SPA_NSEC_PER_SEC;
clock_nanosleep(CLOCK_MONOTONIC, 0, &ts, NULL);
}
if (impl->cpu_scale > 0.0f) {
clock_gettime(CLOCK_MONOTONIC, &ts);
busy_nsec = SPA_TIMESPEC_TO_NSEC(&ts);
busy_nsec += (uint64_t)(impl->cpu_scale * SampleCount);
do {
clock_gettime(CLOCK_MONOTONIC, &ts);
} while ((uint64_t)SPA_TIMESPEC_TO_NSEC(&ts) < busy_nsec);
}
}
static const struct spa_fga_descriptor busy_desc = {
.name = "busy",
.flags = SPA_FGA_DESCRIPTOR_SUPPORTS_NULL_DATA,
.n_ports = 0,
.ports = NULL,
.instantiate = busy_instantiate,
.connect_port = builtin_connect_port,
.run = busy_run,
.cleanup = builtin_cleanup,
};
/* null */
static void null_run(void * Instance, unsigned long SampleCount)
{
}
static struct spa_fga_port null_ports[] = {
{ .index = 0,
.name = "In",
.flags = SPA_FGA_PORT_INPUT | SPA_FGA_PORT_AUDIO,
},
{ .index = 1,
.name = "Control",
.flags = SPA_FGA_PORT_INPUT | SPA_FGA_PORT_CONTROL,
},
};
static const struct spa_fga_descriptor null_desc = {
.name = "null",
.flags = SPA_FGA_DESCRIPTOR_SUPPORTS_NULL_DATA,
.n_ports = SPA_N_ELEMENTS(null_ports),
.ports = null_ports,
.instantiate = builtin_instantiate,
.connect_port = builtin_connect_port,
.run = null_run,
.cleanup = builtin_cleanup,
};
static const struct spa_fga_descriptor * builtin_descriptor(unsigned long Index) static const struct spa_fga_descriptor * builtin_descriptor(unsigned long Index)
{ {
switch(Index) { switch(Index) {
@ -3311,10 +3180,6 @@ static const struct spa_fga_descriptor * builtin_descriptor(unsigned long Index)
return &zeroramp_desc; return &zeroramp_desc;
case 30: case 30:
return &noisegate_desc; return &noisegate_desc;
case 31:
return &busy_desc;
case 32:
return &null_desc;
} }
return NULL; return NULL;
} }

View file

@ -32,7 +32,6 @@ struct spatializer_impl {
unsigned long rate; unsigned long rate;
float *port[7]; float *port[7];
int n_samples, blocksize, tailsize; int n_samples, blocksize, tailsize;
float gain;
float *tmp[2]; float *tmp[2];
struct MYSOFA_EASY *sofa; struct MYSOFA_EASY *sofa;
@ -72,7 +71,6 @@ static void * spatializer_instantiate(const struct spa_fga_plugin *plugin, const
impl->plugin = pl; impl->plugin = pl;
impl->dsp = pl->dsp; impl->dsp = pl->dsp;
impl->log = pl->log; impl->log = pl->log;
impl->gain = 1.0f;
while ((len = spa_json_object_next(&it[0], key, sizeof(key), &val)) > 0) { while ((len = spa_json_object_next(&it[0], key, sizeof(key), &val)) > 0) {
if (spa_streq(key, "blocksize")) { if (spa_streq(key, "blocksize")) {
@ -96,13 +94,6 @@ static void * spatializer_instantiate(const struct spa_fga_plugin *plugin, const
goto error; goto error;
} }
} }
else if (spa_streq(key, "gain")) {
if (spa_json_parse_float(val, len, &impl->gain) <= 0) {
spa_log_error(impl->log, "spatializer:gain requires a number");
errno = EINVAL;
goto error;
}
}
} }
if (!filename[0]) { if (!filename[0]) {
spa_log_error(impl->log, "spatializer:filename was not given"); spa_log_error(impl->log, "spatializer:filename was not given");
@ -177,14 +168,11 @@ static void * spatializer_instantiate(const struct spa_fga_plugin *plugin, const
reason = "Only sources with MC supported"; reason = "Only sources with MC supported";
errno = ENOTSUP; errno = ENOTSUP;
break; break;
default:
case MYSOFA_INTERNAL_ERROR: case MYSOFA_INTERNAL_ERROR:
errno = EIO; errno = EIO;
reason = "Internal error"; reason = "Internal error";
break; break;
default:
errno = ret;
reason = strerror(errno);
break;
} }
spa_log_error(impl->log, "Unable to load HRTF from %s: %s (%d)", filename, reason, ret); spa_log_error(impl->log, "Unable to load HRTF from %s: %s (%d)", filename, reason, ret);
goto error; goto error;
@ -195,8 +183,8 @@ static void * spatializer_instantiate(const struct spa_fga_plugin *plugin, const
if (impl->tailsize <= 0) if (impl->tailsize <= 0)
impl->tailsize = SPA_CLAMP(4096, impl->blocksize, 32768); impl->tailsize = SPA_CLAMP(4096, impl->blocksize, 32768);
spa_log_info(impl->log, "using n_samples:%u %d:%d blocksize gain:%f sofa:%s", impl->n_samples, spa_log_info(impl->log, "using n_samples:%u %d:%d blocksize sofa:%s", impl->n_samples,
impl->blocksize, impl->tailsize, impl->gain, filename); impl->blocksize, impl->tailsize, filename);
impl->tmp[0] = calloc(impl->plugin->quantum_limit, sizeof(float)); impl->tmp[0] = calloc(impl->plugin->quantum_limit, sizeof(float));
impl->tmp[1] = calloc(impl->plugin->quantum_limit, sizeof(float)); impl->tmp[1] = calloc(impl->plugin->quantum_limit, sizeof(float));
@ -262,13 +250,6 @@ static void spatializer_reload(void * Instance)
if (impl->r_conv[2]) if (impl->r_conv[2])
convolver_free(impl->r_conv[2]); convolver_free(impl->r_conv[2]);
if (impl->gain != 1.0f) {
for (int i = 0; i < impl->n_samples; i++) {
left_ir[i] *= impl->gain;
right_ir[i] *= impl->gain;
}
}
impl->l_conv[2] = convolver_new(impl->dsp, impl->blocksize, impl->tailsize, impl->l_conv[2] = convolver_new(impl->dsp, impl->blocksize, impl->tailsize,
left_ir, impl->n_samples); left_ir, impl->n_samples);
impl->r_conv[2] = convolver_new(impl->dsp, impl->blocksize, impl->tailsize, impl->r_conv[2] = convolver_new(impl->dsp, impl->blocksize, impl->tailsize,

View file

@ -19,8 +19,6 @@ context.modules = [
name = spFL name = spFL
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
# The gain depends on the .sofa file in use
gain = 0.5
} }
control = { control = {
"Azimuth" = 30.0 "Azimuth" = 30.0
@ -34,7 +32,6 @@ context.modules = [
name = spFR name = spFR
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 330.0 "Azimuth" = 330.0
@ -48,7 +45,6 @@ context.modules = [
name = spFC name = spFC
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 0.0 "Azimuth" = 0.0
@ -62,7 +58,6 @@ context.modules = [
name = spRL name = spRL
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 150.0 "Azimuth" = 150.0
@ -76,7 +71,6 @@ context.modules = [
name = spRR name = spRR
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 210.0 "Azimuth" = 210.0
@ -90,7 +84,6 @@ context.modules = [
name = spSL name = spSL
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 90.0 "Azimuth" = 90.0
@ -104,7 +97,6 @@ context.modules = [
name = spSR name = spSR
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 270.0 "Azimuth" = 270.0
@ -118,7 +110,6 @@ context.modules = [
name = spLFE name = spLFE
config = { config = {
filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa" filename = "~/.config/hrtf-sofa/hrtf b_nh724.sofa"
gain = 0.5
} }
control = { control = {
"Azimuth" = 0.0 "Azimuth" = 0.0
@ -127,32 +118,8 @@ context.modules = [
} }
} }
{ type = builtin label = mixer name = mixL { type = builtin label = mixer name = mixL }
control = { { type = builtin label = mixer name = mixR }
# Set individual left mixer gain if needed
#"Gain 1" = 1.0
#"Gain 2" = 1.0
#"Gain 3" = 1.0
#"Gain 4" = 1.0
#"Gain 5" = 1.0
#"Gain 6" = 1.0
#"Gain 7" = 1.0
#"Gain 8" = 1.0
}
}
{ type = builtin label = mixer name = mixR
control = {
# Set individual right mixer gain if needed
#"Gain 1" = 1.0
#"Gain 2" = 1.0
#"Gain 3" = 1.0
#"Gain 4" = 1.0
#"Gain 5" = 1.0
#"Gain 6" = 1.0
#"Gain 7" = 1.0
#"Gain 8" = 1.0
}
}
] ]
links = [ links = [
# output # output

46
src/examples/base64.h Normal file
View file

@ -0,0 +1,46 @@
/* PipeWire */
/* SPDX-FileCopyrightText: Copyright © 2021 Wim Taymans */
/* SPDX-License-Identifier: MIT */
static inline void base64_encode(const uint8_t *data, size_t len, char *enc, char pad)
{
static const char tab[] =
"ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789+/";
size_t i;
for (i = 0; i < len; i += 3) {
uint32_t v;
v = data[i+0] << 16;
v |= (i+1 < len ? data[i+1] : 0) << 8;
v |= (i+2 < len ? data[i+2] : 0);
*enc++ = tab[(v >> (3*6)) & 0x3f];
*enc++ = tab[(v >> (2*6)) & 0x3f];
*enc++ = i+1 < len ? tab[(v >> (1*6)) & 0x3f] : pad;
*enc++ = i+2 < len ? tab[(v >> (0*6)) & 0x3f] : pad;
}
*enc = '\0';
}
static inline size_t base64_decode(const char *data, size_t len, uint8_t *dec)
{
uint8_t tab[] = {
62, -1, -1, -1, 63, 52, 53, 54, 55, 56,
57, 58, 59, 60, 61, -1, -1, -1, -1, -1,
-1, -1, 0, 1, 2, 3, 4, 5, 6, 7,
8, 9, 10, 11, 12, 13, 14, 15, 16, 17,
18, 19, 20, 21, 22, 23, 24, 25, -1, -1,
-1, -1, -1, -1, 26, 27, 28, 29, 30, 31,
32, 33, 34, 35, 36, 37, 38, 39, 40, 41,
42, 43, 44, 45, 46, 47, 48, 49, 50, 51 };
size_t i, j;
for (i = 0, j = 0; i < len; i += 4) {
uint32_t v;
v = tab[data[i+0]-43] << (3*6);
v |= tab[data[i+1]-43] << (2*6);
v |= (data[i+2] == '=' ? 0 : tab[data[i+2]-43]) << (1*6);
v |= (data[i+3] == '=' ? 0 : tab[data[i+3]-43]);
dec[j++] = (v >> 16) & 0xff;
if (data[i+2] != '=') dec[j++] = (v >> 8) & 0xff;
if (data[i+3] != '=') dec[j++] = v & 0xff;
}
return j;
}

View file

@ -1,60 +0,0 @@
/* PipeWire */
/* SPDX-FileCopyrightText: Copyright © 2026 Red Hat */
/* SPDX-License-Identifier: MIT */
static inline char *
encode_hex(const uint8_t *data, size_t size)
{
FILE *ms;
char *encoded = NULL;
size_t encoded_size = 0;
size_t i;
ms = open_memstream(&encoded, &encoded_size);
for (i = 0; i < size; i++) {
fprintf(ms, "%02x", data[i]);
}
fclose(ms);
return encoded;
}
static inline int8_t
ascii_hex_to_hex(uint8_t ascii_hex)
{
if (ascii_hex >= '0' && ascii_hex <= '9')
return ascii_hex - '0';
else if (ascii_hex >= 'a' && ascii_hex <= 'f')
return ascii_hex - 'a' + 10;
else if (ascii_hex >= 'A' && ascii_hex <= 'F')
return ascii_hex - 'A' + 10;
else
return -1;
}
static inline int
decode_hex(const char *encoded, uint8_t *data, size_t size)
{
size_t length;
size_t i;
length = strlen(encoded);
if (size < (length / 2) * sizeof(uint8_t))
return -1;
i = 0;
while (i < length) {
int8_t top = ascii_hex_to_hex(encoded[i]);
int8_t bottom = ascii_hex_to_hex(encoded[i + 1]);
if (top == -1 || bottom == -1)
return -1;
uint8_t el = top << 4 | bottom;
data[i / 2] = el;
i += 2;
}
return 1;
}

View file

@ -29,7 +29,7 @@
#include <pipewire/pipewire.h> #include <pipewire/pipewire.h>
#include <pipewire/capabilities.h> #include <pipewire/capabilities.h>
#include "utils.h" #include "base64.h"
/* Comment out to test device ID negotation backward compatibility. */ /* Comment out to test device ID negotation backward compatibility. */
#define SUPPORT_DEVICE_ID_NEGOTIATION 1 #define SUPPORT_DEVICE_ID_NEGOTIATION 1
@ -372,56 +372,46 @@ collect_device_ids(struct data *data, const char *json)
int len; int len;
const char *value; const char *value;
struct spa_json sub; struct spa_json sub;
char key[1024];
if ((len = spa_json_begin(&it, json, strlen(json), &value)) <= 0) { if ((len = spa_json_begin(&it, json, strlen(json), &value)) <= 0) {
fprintf(stderr, "invalid device IDs value\n"); fprintf(stderr, "invalid device IDs value\n");
return; return;
} }
if (!spa_json_is_object(value, len)) { if (!spa_json_is_array(value, len)) {
fprintf(stderr, "device IDs not object\n"); fprintf(stderr, "device IDs not array\n");
return; return;
} }
spa_json_enter(&it, &sub); spa_json_enter(&it, &sub);
while ((len = spa_json_object_next(&sub, key, sizeof(key), &value)) > 0) { while ((len = spa_json_next(&sub, &value)) > 0) {
struct spa_json devices_sub; char *string;
union {
dev_t device_id;
uint8_t buffer[1024];
} dec;
if (!spa_json_is_array(value, len)) { string = alloca(len + 1);
fprintf(stderr, "available-devices not array\n");
if (!spa_json_is_string(value, len)) {
fprintf(stderr, "device ID not string\n");
return; return;
} }
spa_json_enter(&sub, &devices_sub); if (spa_json_parse_string(value, len, string) <= 0) {
while ((len = spa_json_next(&devices_sub, &value)) > 0) { fprintf(stderr, "invalid device ID string\n");
char *string; return;
union {
dev_t device_id;
uint8_t buffer[1024];
} dec;
string = alloca(len + 1);
if (!spa_json_is_string(value, len)) {
fprintf(stderr, "device ID not string\n");
return;
}
if (spa_json_parse_string(value, len, string) <= 0) {
fprintf(stderr, "invalid device ID string\n");
return;
}
if (decode_hex(string, dec.buffer, sizeof (dec.buffer)) < 0) {
fprintf(stderr, "invalid device ID string\n");
return;
}
fprintf(stderr, "discovered device ID %u:%u\n",
major(dec.device_id), minor(dec.device_id));
data->device_ids[data->n_device_ids++] = dec.device_id;
} }
if (base64_decode(string, strlen(string),
(uint8_t *)&dec.device_id) < sizeof(dev_t)) {
fprintf(stderr, "invalid device ID\n");
return;
}
fprintf(stderr, "discovered device ID %u:%u\n",
major(dec.device_id), minor(dec.device_id));
data->device_ids[data->n_device_ids++] = dec.device_id;
} }
} }
@ -448,9 +438,8 @@ discover_capabilities(struct data *data, const struct spa_pod *param)
return; return;
spa_dict_for_each(it, &dict) { spa_dict_for_each(it, &dict) {
if (spa_streq(it->key, PW_CAPABILITY_DEVICE_ID_NEGOTIATION)) { if (spa_streq(it->key, PW_CAPABILITY_DEVICE_ID_NEGOTIATION) &&
int version = atoi(it->value); spa_streq(it->value, "true")) {
if (version >= 1)
data->device_negotiation_supported = true; data->device_negotiation_supported = true;
} else if (spa_streq(it->key, PW_CAPABILITY_DEVICE_IDS)) { } else if (spa_streq(it->key, PW_CAPABILITY_DEVICE_IDS)) {
collect_device_ids(data, it->value); collect_device_ids(data, it->value);
@ -798,7 +787,7 @@ int main(int argc, char *argv[])
params[n_params++] = params[n_params++] =
spa_param_dict_build_dict(&b, SPA_PARAM_Capability, spa_param_dict_build_dict(&b, SPA_PARAM_Capability,
&SPA_DICT_ITEMS( &SPA_DICT_ITEMS(
SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "1"))); SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "true")));
#endif #endif
/* now connect the stream, we need a direction (input/output), /* now connect the stream, we need a direction (input/output),

View file

@ -30,7 +30,7 @@
#include <pipewire/pipewire.h> #include <pipewire/pipewire.h>
#include <pipewire/capabilities.h> #include <pipewire/capabilities.h>
#include "utils.h" #include "base64.h"
/* Comment out to test device ID negotation backward compatibility. */ /* Comment out to test device ID negotation backward compatibility. */
#define SUPPORT_DEVICE_ID_NEGOTIATION 1 #define SUPPORT_DEVICE_ID_NEGOTIATION 1
@ -450,9 +450,8 @@ discover_capabilities(struct data *data, const struct spa_pod *param)
return; return;
spa_dict_for_each(it, &dict) { spa_dict_for_each(it, &dict) {
if (spa_streq(it->key, PW_CAPABILITY_DEVICE_ID_NEGOTIATION)) { if (spa_streq(it->key, PW_CAPABILITY_DEVICE_ID_NEGOTIATION) &&
int version = atoi(it->value); spa_streq(it->value, "true")) {
if (version >= 1)
data->device_negotiation_supported = true; data->device_negotiation_supported = true;
} }
} }
@ -784,26 +783,23 @@ int main(int argc, char *argv[])
size_t i; size_t i;
ms = open_memstream(&device_ids, &device_ids_size); ms = open_memstream(&device_ids, &device_ids_size);
fprintf(ms, "{\"available-devices\": ["); fprintf(ms, "[");
for (i = 0; i < SPA_N_ELEMENTS(devices); i++) { for (i = 0; i < SPA_N_ELEMENTS(devices); i++) {
dev_t device_id = makedev(devices[i].major, devices[i].minor); dev_t device_id = makedev(devices[i].major, devices[i].minor);
char *device_id_encoded; char device_id_encoded[256];
device_id_encoded = encode_hex((const uint8_t *) &device_id, sizeof (device_id));
base64_encode((const uint8_t *) &device_id, sizeof (device_id), device_id_encoded, '\0');
if (i > 0) if (i > 0)
fprintf(ms, ","); fprintf(ms, ",");
fprintf(ms, "\"%s\"", device_id_encoded); fprintf(ms, "\"%s\"", device_id_encoded);
free(device_id_encoded);
} }
fprintf(ms, "]}"); fprintf(ms, "]");
fclose(ms); fclose(ms);
#endif /* SUPPORT_DEVICE_IDS_LIST */ #endif /* SUPPORT_DEVICE_IDS_LIST */
params[n_params++] = params[n_params++] =
spa_param_dict_build_dict(&b, SPA_PARAM_Capability, spa_param_dict_build_dict(&b, SPA_PARAM_Capability,
&SPA_DICT_ITEMS(SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "1"), &SPA_DICT_ITEMS(SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_ID_NEGOTIATION, "true"),
#ifdef SUPPORT_DEVICE_IDS_LIST #ifdef SUPPORT_DEVICE_IDS_LIST
SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_IDS, device_ids) SPA_DICT_ITEM(PW_CAPABILITY_DEVICE_IDS, device_ids)
#endif /* SUPPORT_DEVICE_IDS_LIST */ #endif /* SUPPORT_DEVICE_IDS_LIST */

View file

@ -209,6 +209,8 @@ void gst_pipewire_pool_wrap_buffer (GstPipeWirePool *pool, struct pw_buffer *b)
data->b = b; data->b = b;
data->buf = buf; data->buf = buf;
data->crop = spa_buffer_find_meta_data (b->buffer, SPA_META_VideoCrop, sizeof(*data->crop)); data->crop = spa_buffer_find_meta_data (b->buffer, SPA_META_VideoCrop, sizeof(*data->crop));
if (data->crop)
gst_buffer_add_video_crop_meta(buf);
data->videotransform = data->videotransform =
spa_buffer_find_meta_data (b->buffer, SPA_META_VideoTransform, sizeof(*data->videotransform)); spa_buffer_find_meta_data (b->buffer, SPA_META_VideoTransform, sizeof(*data->videotransform));
data->cursor = spa_buffer_find_meta_data (b->buffer, SPA_META_Cursor, sizeof(*data->cursor)); data->cursor = spa_buffer_find_meta_data (b->buffer, SPA_META_Cursor, sizeof(*data->cursor));
@ -432,25 +434,26 @@ release_buffer (GstBufferPool * pool, GstBuffer *buffer)
GST_LOG_OBJECT (pool, "release buffer %p", buffer); GST_LOG_OBJECT (pool, "release buffer %p", buffer);
GstPipeWirePoolData *data = gst_pipewire_pool_get_data(buffer); GstPipeWirePoolData *data = gst_pipewire_pool_get_data(buffer);
GstPipeWirePool *p = GST_PIPEWIRE_POOL (pool);
g_autoptr (GstPipeWireStream) s = g_weak_ref_get (&p->stream);
GST_OBJECT_LOCK (pool); GST_OBJECT_LOCK (pool);
pw_thread_loop_lock (s->core->loop);
if (!data->queued && data->b != NULL) if (!data->queued && data->b != NULL)
{ {
GstPipeWirePool *p = GST_PIPEWIRE_POOL (pool);
g_autoptr (GstPipeWireStream) s = g_weak_ref_get (&p->stream);
int res; int res;
pw_thread_loop_lock (s->core->loop);
if ((res = pw_stream_return_buffer (s->pwstream, data->b)) < 0) { if ((res = pw_stream_return_buffer (s->pwstream, data->b)) < 0) {
GST_ERROR_OBJECT (pool,"can't return buffer %p; gstbuffer : %p, %s",data->b, buffer, spa_strerror(res)); GST_ERROR_OBJECT (pool,"can't return buffer %p; gstbuffer : %p, %s",data->b, buffer, spa_strerror(res));
} else { } else {
data->queued = TRUE; data->queued = TRUE;
GST_DEBUG_OBJECT (pool, "returned buffer %p; gstbuffer:%p", data->b, buffer); GST_DEBUG_OBJECT (pool, "returned buffer %p; gstbuffer:%p", data->b, buffer);
} }
}
pw_thread_loop_unlock (s->core->loop); pw_thread_loop_unlock (s->core->loop);
}
GST_OBJECT_UNLOCK (pool); GST_OBJECT_UNLOCK (pool);
} }

View file

@ -781,7 +781,7 @@ static GstBuffer *dequeue_buffer(GstPipeWireSrc *pwsrc)
crop = data->crop; crop = data->crop;
if (crop) { if (crop) {
GstVideoCropMeta *meta = gst_buffer_add_video_crop_meta(buf); GstVideoCropMeta *meta = gst_buffer_get_video_crop_meta(buf);
if (meta) { if (meta) {
meta->x = crop->region.position.x; meta->x = crop->region.position.x;
meta->y = crop->region.position.y; meta->y = crop->region.position.y;

View file

@ -276,6 +276,10 @@ pipewire_module_link_factory = shared_library('pipewire-module-link-factory',
pipewire_module_protocol_deps = [mathlib, dl_lib, pipewire_dep] pipewire_module_protocol_deps = [mathlib, dl_lib, pipewire_dep]
if systemd_dep.found()
pipewire_module_protocol_deps += systemd_dep
endif
if selinux_dep.found() if selinux_dep.found()
pipewire_module_protocol_deps += selinux_dep pipewire_module_protocol_deps += selinux_dep
endif endif
@ -569,22 +573,6 @@ if build_module_zeroconf_discover
endif endif
summary({'zeroconf-discover': build_module_zeroconf_discover}, bool_yn: true, section: 'Optional Modules') summary({'zeroconf-discover': build_module_zeroconf_discover}, bool_yn: true, section: 'Optional Modules')
# Several modules (rtp-sink, rtp-source, raop-sink) use the same code
# for actual RTP transport. To not have to recompile the same code
# multiple times, and to make the build script a little more robust
# (by avoiding build script code duplication), create a static library
# that contains that common code.
pipewire_module_rtp_common_lib = static_library('pipewire-module-rtp-common-lib',
[ 'module-rtp/stream.c' ],
include_directories : [configinc],
install : false,
dependencies : [mathlib, dl_lib, rt_lib, pipewire_dep, opus_dep],
)
pipewire_module_rtp_common_dep = declare_dependency(
link_with: pipewire_module_rtp_common_lib,
dependencies : [mathlib, dl_lib, rt_lib, pipewire_dep, opus_dep],
)
build_module_raop_discover = avahi_dep.found() build_module_raop_discover = avahi_dep.found()
if build_module_raop_discover if build_module_raop_discover
pipewire_module_raop_discover = shared_library('pipewire-module-raop-discover', pipewire_module_raop_discover = shared_library('pipewire-module-raop-discover',
@ -617,12 +605,13 @@ build_module_raop = openssl_lib.found()
if build_module_raop if build_module_raop
pipewire_module_raop_sink = shared_library('pipewire-module-raop-sink', pipewire_module_raop_sink = shared_library('pipewire-module-raop-sink',
[ 'module-raop-sink.c', [ 'module-raop-sink.c',
'module-raop/rtsp-client.c' ], 'module-raop/rtsp-client.c',
'module-rtp/stream.c' ],
include_directories : [configinc], include_directories : [configinc],
install : true, install : true,
install_dir : modules_install_dir, install_dir : modules_install_dir,
install_rpath: modules_install_dir, install_rpath: modules_install_dir,
dependencies : [pipewire_module_rtp_common_dep, openssl_lib], dependencies : [mathlib, dl_lib, rt_lib, pipewire_dep, opus_dep, openssl_lib],
) )
endif endif
summary({'raop-sink (requires OpenSSL)': build_module_raop}, bool_yn: true, section: 'Optional Modules') summary({'raop-sink (requires OpenSSL)': build_module_raop}, bool_yn: true, section: 'Optional Modules')
@ -631,33 +620,36 @@ roc_dep = dependency('roc', version: '>= 0.4.0', required: get_option('roc'))
summary({'ROC': roc_dep.found()}, bool_yn: true, section: 'Streaming between daemons') summary({'ROC': roc_dep.found()}, bool_yn: true, section: 'Streaming between daemons')
pipewire_module_rtp_source = shared_library('pipewire-module-rtp-source', pipewire_module_rtp_source = shared_library('pipewire-module-rtp-source',
[ 'module-rtp-source.c' ], [ 'module-rtp-source.c',
'module-rtp/stream.c' ],
include_directories : [configinc], include_directories : [configinc],
install : true, install : true,
install_dir : modules_install_dir, install_dir : modules_install_dir,
install_rpath: modules_install_dir, install_rpath: modules_install_dir,
dependencies : [pipewire_module_rtp_common_dep], dependencies : [mathlib, dl_lib, rt_lib, pipewire_dep, opus_dep],
) )
pipewire_module_rtp_sink = shared_library('pipewire-module-rtp-sink', pipewire_module_rtp_sink = shared_library('pipewire-module-rtp-sink',
[ 'module-rtp-sink.c' ], [ 'module-rtp-sink.c',
'module-rtp/stream.c' ],
include_directories : [configinc], include_directories : [configinc],
install : true, install : true,
install_dir : modules_install_dir, install_dir : modules_install_dir,
install_rpath: modules_install_dir, install_rpath: modules_install_dir,
dependencies : [pipewire_module_rtp_common_dep], dependencies : [mathlib, dl_lib, rt_lib, pipewire_dep, opus_dep],
) )
build_module_rtp_session = avahi_dep.found() build_module_rtp_session = avahi_dep.found()
if build_module_rtp_session if build_module_rtp_session
pipewire_module_rtp_session = shared_library('pipewire-module-rtp-session', pipewire_module_rtp_session = shared_library('pipewire-module-rtp-session',
[ 'module-zeroconf-discover/avahi-poll.c', [ 'module-rtp/stream.c',
'module-rtp-session.c' ], 'module-zeroconf-discover/avahi-poll.c',
'module-rtp-session.c' ],
include_directories : [configinc], include_directories : [configinc],
install : true, install : true,
install_dir : modules_install_dir, install_dir : modules_install_dir,
install_rpath: modules_install_dir, install_rpath: modules_install_dir,
dependencies : [pipewire_module_rtp_common_dep, avahi_dep], dependencies : [mathlib, dl_lib, rt_lib, pipewire_dep, avahi_dep, opus_dep],
) )
endif endif

View file

@ -193,10 +193,6 @@ extern struct spa_handle_factory spa_filter_graph_factory;
* graph will then be duplicated as many times to match the number of input/output * graph will then be duplicated as many times to match the number of input/output
* channels of the streams. * channels of the streams.
* *
* If the graph has no inputs and the capture channels is set as 0, only the
* playback stream will be created. Likewise, if there are no outputs and the
* playback channels is 0, there will be no capture stream created.
*
* ### Volumes * ### Volumes
* *
* Normally the volume of the sink/source is handled by the stream software volume. * Normally the volume of the sink/source is handled by the stream software volume.
@ -656,40 +652,6 @@ extern struct spa_handle_factory spa_filter_graph_factory;
* of "Attack (s)" seconds. The noise gate stays open for at least "Hold (s)" * of "Attack (s)" seconds. The noise gate stays open for at least "Hold (s)"
* seconds before it can close again. * seconds before it can close again.
* *
* ### Busy
*
* The `busy` plugin has no input or output ports and it can be used to keep the
* CPU or graph busy for the given percent of time.
*
* The node requires a `config` section with extra configuration:
*
*\code{.unparsed}
* filter.graph = {
* nodes = [
* {
* type = builtin
* name = ...
* label = busy
* config = {
* wait-percent = 0.0
* cpu-percent = 50.0
* }
* ...
* }
* }
* ...
* }
*\endcode
*
* - `wait-percent` the percentage of time to wait. This keeps the graph busy but
* not the CPU. Default 0.0
* - `cpu-percent` the percentage of time to keep the CPU busy. This keeps both the
* graph and CPU busy. Default 0.0
*
* ### Null
*
* The `null` plugin has one data input "In" and one control input "Control" that
* simply discards the data.
* *
* ## SOFA filters * ## SOFA filters
* *
@ -717,7 +679,6 @@ extern struct spa_handle_factory spa_filter_graph_factory;
* blocksize = ... * blocksize = ...
* tailsize = ... * tailsize = ...
* filename = ... * filename = ...
* gain = ...
* } * }
* control = { * control = {
* "Azimuth" = ... * "Azimuth" = ...
@ -734,10 +695,9 @@ extern struct spa_handle_factory spa_filter_graph_factory;
* - `blocksize` specifies the size of the blocks to use in the FFT. It is a value * - `blocksize` specifies the size of the blocks to use in the FFT. It is a value
* between 64 and 256. When not specified, this value is * between 64 and 256. When not specified, this value is
* computed automatically from the number of samples in the file. * computed automatically from the number of samples in the file.
* - `tailsize` specifies the size of the tail blocks to use in the FFT. * - `tailsize` specifies the size of the tail blocks to use in the FFT.
* - `filename` The SOFA file to load. SOFA files usually end in the .sofa extension * - `filename` The SOFA file to load. SOFA files usually end in the .sofa extension
* and contain the HRTF for the various spatial positions. * and contain the HRTF for the various spatial positions.
* - `gain` the overall gain to apply to the IR file.
* *
* - `Azimuth` controls the azimuth, this is the direction the sound is coming from * - `Azimuth` controls the azimuth, this is the direction the sound is coming from
* in degrees between 0 and 360. 0 is straight ahead. 90 is left, 180 * in degrees between 0 and 360. 0 is straight ahead. 90 is left, 180
@ -1255,105 +1215,92 @@ static void capture_destroy(void *d)
impl->capture = NULL; impl->capture = NULL;
} }
static void do_process(struct impl *impl)
{
struct pw_buffer *in, *out;
uint32_t i, n_in = 0, n_out = 0, data_size = 0;
struct spa_data *bd;
const void *cin[128];
void *cout[128];
in = out = NULL;
if (impl->capture) {
while (true) {
struct pw_buffer *t;
if ((t = pw_stream_dequeue_buffer(impl->capture)) == NULL)
break;
if (in)
pw_stream_queue_buffer(impl->capture, in);
in = t;
}
if (in == NULL) {
pw_log_debug("%p: out of capture buffers: %m", impl);
} else {
for (i = 0; i < in->buffer->n_datas; i++) {
uint32_t offs, size;
bd = &in->buffer->datas[i];
offs = SPA_MIN(bd->chunk->offset, bd->maxsize);
size = SPA_MIN(bd->chunk->size, bd->maxsize - offs);
cin[n_in++] = SPA_PTROFF(bd->data, offs, void);
data_size = i == 0 ? size : SPA_MIN(data_size, size);
}
}
}
if (impl->playback) {
out = pw_stream_dequeue_buffer(impl->playback);
if (out == NULL) {
pw_log_debug("%p: out of playback buffers: %m", impl);
} else {
if (data_size == 0)
data_size = out->requested * sizeof(float);
for (i = 0; i < out->buffer->n_datas; i++) {
bd = &out->buffer->datas[i];
data_size = SPA_MIN(data_size, bd->maxsize);
cout[n_out++] = bd->data;
bd->chunk->offset = 0;
bd->chunk->size = data_size;
bd->chunk->stride = sizeof(float);
}
}
pw_log_trace_fp("%p: size:%d requested:%"PRIu64, impl,
data_size, out->requested);
}
for (; n_in < impl->n_inputs; i++)
cin[n_in++] = NULL;
for (; n_out < impl->n_outputs; i++)
cout[n_out++] = NULL;
if (impl->graph_active)
spa_filter_graph_process(impl->graph, cin, cout, data_size / sizeof(float));
if (in != NULL)
pw_stream_queue_buffer(impl->capture, in);
if (out != NULL)
pw_stream_queue_buffer(impl->playback, out);
}
static void capture_process(void *d) static void capture_process(void *d)
{ {
struct impl *impl = d; struct impl *impl = d;
int res; int res;
if ((res = pw_stream_trigger_process(impl->playback)) < 0) {
if (impl->playback) { pw_log_debug("playback trigger error: %s", spa_strerror(res));
if ((res = pw_stream_trigger_process(impl->playback)) < 0) { while (true) {
pw_log_debug("playback trigger error: %s", spa_strerror(res)); struct pw_buffer *t;
while (impl->capture) { if ((t = pw_stream_dequeue_buffer(impl->capture)) == NULL)
struct pw_buffer *t; break;
if ((t = pw_stream_dequeue_buffer(impl->capture)) == NULL) /* playback part is not ready, consume, discard and recycle
break; * the capture buffers */
/* playback part is not ready, consume, discard and recycle pw_stream_queue_buffer(impl->capture, t);
* the capture buffers */
pw_stream_queue_buffer(impl->capture, t);
}
} }
} else {
do_process(impl);
} }
} }
static void playback_process(void *d) static void playback_process(void *d)
{ {
struct impl *impl = d; struct impl *impl = d;
do_process(impl); struct pw_buffer *in, *out;
uint32_t i, data_size = 0;
int32_t stride = 0;
struct spa_data *bd;
const void *cin[128];
void *cout[128];
in = NULL;
while (true) {
struct pw_buffer *t;
if ((t = pw_stream_dequeue_buffer(impl->capture)) == NULL)
break;
if (in)
pw_stream_queue_buffer(impl->capture, in);
in = t;
}
if (in == NULL)
pw_log_debug("%p: out of capture buffers: %m", impl);
if ((out = pw_stream_dequeue_buffer(impl->playback)) == NULL)
pw_log_debug("%p: out of playback buffers: %m", impl);
if (in == NULL || out == NULL)
goto done;
for (i = 0; i < in->buffer->n_datas; i++) {
uint32_t offs, size;
bd = &in->buffer->datas[i];
offs = SPA_MIN(bd->chunk->offset, bd->maxsize);
size = SPA_MIN(bd->chunk->size, bd->maxsize - offs);
cin[i] = SPA_PTROFF(bd->data, offs, void);
data_size = i == 0 ? size : SPA_MIN(data_size, size);
stride = SPA_MAX(stride, bd->chunk->stride);
}
for (; i < impl->n_inputs; i++)
cin[i] = NULL;
for (i = 0; i < out->buffer->n_datas; i++) {
bd = &out->buffer->datas[i];
data_size = SPA_MIN(data_size, bd->maxsize);
cout[i] = bd->data;
bd->chunk->offset = 0;
bd->chunk->size = data_size;
bd->chunk->stride = stride;
}
for (; i < impl->n_outputs; i++)
cout[i] = NULL;
pw_log_trace_fp("%p: stride:%d size:%d requested:%"PRIu64" (%"PRIu64")", impl,
stride, data_size, out->requested, out->requested * stride);
if (impl->graph_active)
spa_filter_graph_process(impl->graph, cin, cout, data_size / sizeof(float));
done:
if (in != NULL)
pw_stream_queue_buffer(impl->capture, in);
if (out != NULL)
pw_stream_queue_buffer(impl->playback, out);
} }
static int activate_graph(struct impl *impl) static int activate_graph(struct impl *impl)
@ -1422,9 +1369,6 @@ static void update_latency(struct impl *impl, enum spa_direction direction, bool
struct pw_stream *s = direction == SPA_DIRECTION_OUTPUT ? struct pw_stream *s = direction == SPA_DIRECTION_OUTPUT ?
impl->playback : impl->capture; impl->playback : impl->capture;
if (s == NULL)
return;
spa_pod_builder_init(&b, buffer, sizeof(buffer)); spa_pod_builder_init(&b, buffer, sizeof(buffer));
latency = impl->latency[direction]; latency = impl->latency[direction];
spa_process_latency_info_add(&impl->process_latency, &latency); spa_process_latency_info_add(&impl->process_latency, &latency);
@ -1481,13 +1425,10 @@ static void param_tag_changed(struct impl *impl, const struct spa_pod *param,
if (param == 0 || spa_tag_parse(param, &tag, &state) < 0) if (param == 0 || spa_tag_parse(param, &tag, &state) < 0)
return; return;
if (tag.direction == SPA_DIRECTION_INPUT) { if (tag.direction == SPA_DIRECTION_INPUT)
if (impl->capture) pw_stream_update_params(impl->capture, params, 1);
pw_stream_update_params(impl->capture, params, 1); else
} else { pw_stream_update_params(impl->playback, params, 1);
if (impl->playback)
pw_stream_update_params(impl->playback, params, 1);
}
} }
static void capture_state_changed(void *data, enum pw_stream_state old, static void capture_state_changed(void *data, enum pw_stream_state old,
@ -1564,7 +1505,8 @@ static void param_changed(struct impl *impl, uint32_t id, const struct spa_pod *
return; return;
error: error:
pw_stream_set_error(stream, res, "can't start graph: %s", spa_strerror(res)); pw_stream_set_error(direction == SPA_DIRECTION_INPUT ? impl->capture : impl->playback,
res, "can't start graph: %s", spa_strerror(res));
} }
static void capture_param_changed(void *data, uint32_t id, const struct spa_pod *param) static void capture_param_changed(void *data, uint32_t id, const struct spa_pod *param)
@ -1623,7 +1565,7 @@ static void playback_state_changed(void *data, enum pw_stream_state old,
} }
return; return;
error: error:
pw_stream_set_error(impl->playback, res, "can't start graph: %s", pw_stream_set_error(impl->capture, res, "can't start graph: %s",
spa_strerror(res)); spa_strerror(res));
} }
@ -1652,39 +1594,43 @@ static const struct pw_stream_events out_stream_events = {
static int setup_streams(struct impl *impl) static int setup_streams(struct impl *impl)
{ {
int res; int res;
uint32_t i, n_params, *offs, flags; uint32_t i, n_params, *offs;
struct pw_array offsets; struct pw_array offsets;
const struct spa_pod **params = NULL; const struct spa_pod **params = NULL;
struct spa_pod_dynamic_builder b; struct spa_pod_dynamic_builder b;
struct spa_filter_graph *graph = impl->graph; struct spa_filter_graph *graph = impl->graph;
if (impl->capture_info.channels > 0) { impl->capture = pw_stream_new(impl->core,
impl->capture = pw_stream_new(impl->core, "filter capture", impl->capture_props);
"filter capture", impl->capture_props); impl->capture_props = NULL;
impl->capture_props = NULL; if (impl->capture == NULL)
if (impl->capture == NULL) return -errno;
return -errno;
pw_stream_add_listener(impl->capture, pw_stream_add_listener(impl->capture,
&impl->capture_listener, &impl->capture_listener,
&in_stream_events, impl); &in_stream_events, impl);
}
if (impl->playback_info.channels > 0) { impl->playback = pw_stream_new(impl->core,
impl->playback = pw_stream_new(impl->core, "filter playback", impl->playback_props);
"filter playback", impl->playback_props); impl->playback_props = NULL;
impl->playback_props = NULL; if (impl->playback == NULL)
if (impl->playback == NULL) return -errno;
return -errno;
pw_stream_add_listener(impl->playback, pw_stream_add_listener(impl->playback,
&impl->playback_listener, &impl->playback_listener,
&out_stream_events, impl); &out_stream_events, impl);
}
spa_pod_dynamic_builder_init(&b, NULL, 0, 4096); spa_pod_dynamic_builder_init(&b, NULL, 0, 4096);
pw_array_init(&offsets, 512); pw_array_init(&offsets, 512);
if ((offs = pw_array_add(&offsets, sizeof(uint32_t))) == NULL) {
res = -errno;
goto done;
}
*offs = b.b.state.offset;
spa_format_audio_raw_build(&b.b,
SPA_PARAM_EnumFormat, &impl->capture_info);
for (i = 0;; i++) { for (i = 0;; i++) {
uint32_t save = b.b.state.offset; uint32_t save = b.b.state.offset;
if (spa_filter_graph_enum_prop_info(graph, i, &b.b, NULL) != 1) if (spa_filter_graph_enum_prop_info(graph, i, &b.b, NULL) != 1)
@ -1707,7 +1653,7 @@ static int setup_streams(struct impl *impl)
res = -ENOMEM; res = -ENOMEM;
goto done; goto done;
} }
if ((params = calloc(n_params+1, sizeof(struct spa_pod*))) == NULL) { if ((params = calloc(n_params, sizeof(struct spa_pod*))) == NULL) {
res = -errno; res = -errno;
goto done; goto done;
} }
@ -1716,44 +1662,32 @@ static int setup_streams(struct impl *impl)
for (i = 0; i < n_params; i++) for (i = 0; i < n_params; i++)
params[i] = spa_pod_builder_deref(&b.b, offs[i]); params[i] = spa_pod_builder_deref(&b.b, offs[i]);
if (impl->capture) { res = pw_stream_connect(impl->capture,
params[n_params++] = spa_format_audio_raw_build(&b.b, PW_DIRECTION_INPUT,
SPA_PARAM_EnumFormat, &impl->capture_info); PW_ID_ANY,
flags = PW_STREAM_FLAG_AUTOCONNECT | PW_STREAM_FLAG_AUTOCONNECT |
PW_STREAM_FLAG_MAP_BUFFERS | PW_STREAM_FLAG_MAP_BUFFERS |
PW_STREAM_FLAG_RT_PROCESS; PW_STREAM_FLAG_RT_PROCESS |
if (impl->playback) PW_STREAM_FLAG_ASYNC,
flags |= PW_STREAM_FLAG_ASYNC; params, n_params);
res = pw_stream_connect(impl->capture, spa_pod_dynamic_builder_clean(&b);
PW_DIRECTION_INPUT, if (res < 0)
PW_ID_ANY, goto done;
flags,
params, n_params);
spa_pod_dynamic_builder_clean(&b); n_params = 0;
if (res < 0) spa_pod_dynamic_builder_init(&b, NULL, 0, 4096);
goto done; params[n_params++] = spa_format_audio_raw_build(&b.b,
SPA_PARAM_EnumFormat, &impl->playback_info);
n_params = 0; res = pw_stream_connect(impl->playback,
spa_pod_dynamic_builder_init(&b, NULL, 0, 4096); PW_DIRECTION_OUTPUT,
} PW_ID_ANY,
if (impl->playback) { PW_STREAM_FLAG_AUTOCONNECT |
params[n_params++] = spa_format_audio_raw_build(&b.b,
SPA_PARAM_EnumFormat, &impl->playback_info);
flags = PW_STREAM_FLAG_AUTOCONNECT |
PW_STREAM_FLAG_MAP_BUFFERS | PW_STREAM_FLAG_MAP_BUFFERS |
PW_STREAM_FLAG_RT_PROCESS; PW_STREAM_FLAG_RT_PROCESS |
if (impl->capture) PW_STREAM_FLAG_TRIGGER,
flags |= PW_STREAM_FLAG_TRIGGER; params, n_params);
res = pw_stream_connect(impl->playback,
PW_DIRECTION_OUTPUT,
PW_ID_ANY,
flags,
params, n_params);
}
spa_pod_dynamic_builder_clean(&b); spa_pod_dynamic_builder_clean(&b);
done: done:
@ -1777,11 +1711,20 @@ static void graph_info(void *object, const struct spa_filter_graph_info *info)
{ {
struct impl *impl = object; struct impl *impl = object;
struct spa_dict *props = info->props; struct spa_dict *props = info->props;
uint32_t i, val = 0; uint32_t i;
if (impl->capture_info.channels == 0)
impl->capture_info.channels = info->n_inputs;
if (impl->playback_info.channels == 0)
impl->playback_info.channels = info->n_outputs;
impl->n_inputs = info->n_inputs; impl->n_inputs = info->n_inputs;
impl->n_outputs = info->n_outputs; impl->n_outputs = info->n_outputs;
if (impl->capture_info.channels == impl->playback_info.channels) {
copy_position(&impl->capture_info, &impl->playback_info);
copy_position(&impl->playback_info, &impl->capture_info);
}
for (i = 0; props && i < props->n_items; i++) { for (i = 0; props && i < props->n_items; i++) {
const char *k = props->items[i].key; const char *k = props->items[i].key;
const char *s = props->items[i].value; const char *s = props->items[i].value;
@ -1795,22 +1738,6 @@ static void graph_info(void *object, const struct spa_filter_graph_info *info)
} }
} }
} }
else if (spa_streq(k, "n_default_inputs") &&
impl->capture_info.channels == 0 &&
spa_atou32(s, &val, 0)) {
pw_log_info("using default inputs %d", val);
impl->capture_info.channels = val;
}
else if (spa_streq(k, "n_default_outputs") &&
impl->playback_info.channels == 0 &&
spa_atou32(s, &val, 0)) {
pw_log_info("using default outputs %d", val);
impl->playback_info.channels = val;
}
}
if (impl->capture_info.channels == impl->playback_info.channels) {
copy_position(&impl->capture_info, &impl->playback_info);
copy_position(&impl->playback_info, &impl->capture_info);
} }
} }
@ -1833,11 +1760,7 @@ static void graph_props_changed(void *object, enum spa_direction direction)
spa_pod_dynamic_builder_init(&b, buffer, sizeof(buffer), 4096); spa_pod_dynamic_builder_init(&b, buffer, sizeof(buffer), 4096);
spa_filter_graph_get_props(graph, &b.b, (struct spa_pod **)&params[0]); spa_filter_graph_get_props(graph, &b.b, (struct spa_pod **)&params[0]);
if (impl->capture) pw_stream_update_params(impl->capture, params, 1);
pw_stream_update_params(impl->capture, params, 1);
else if (impl->playback)
pw_stream_update_params(impl->playback, params, 1);
spa_pod_dynamic_builder_clean(&b); spa_pod_dynamic_builder_clean(&b);
} }

View file

@ -34,6 +34,10 @@
#include <spa/utils/json.h> #include <spa/utils/json.h>
#include <spa/debug/log.h> #include <spa/debug/log.h>
#ifdef HAVE_SYSTEMD
#include <systemd/sd-daemon.h>
#endif
#ifdef HAVE_SELINUX #ifdef HAVE_SELINUX
#include <selinux/selinux.h> #include <selinux/selinux.h>
#endif #endif
@ -41,7 +45,6 @@
#include <pipewire/impl.h> #include <pipewire/impl.h>
#include <pipewire/extensions/protocol-native.h> #include <pipewire/extensions/protocol-native.h>
#include "network-utils.h"
#include "pipewire/private.h" #include "pipewire/private.h"
#include "modules/module-protocol-native/connection.h" #include "modules/module-protocol-native/connection.h"
@ -906,12 +909,13 @@ static int add_socket(struct pw_protocol *protocol, struct server *s, struct soc
int fd = -1, res; int fd = -1, res;
bool activated = false; bool activated = false;
#ifdef HAVE_SYSTEMD
{ {
int i, n = listen_fd(); int i, n = sd_listen_fds(0);
for (i = 0; i < n; ++i) { for (i = 0; i < n; ++i) {
if (is_socket_unix(LISTEN_FDS_START + i, SOCK_STREAM, if (sd_is_socket_unix(SD_LISTEN_FDS_START + i, SOCK_STREAM,
s->addr.sun_path) > 0) { 1, s->addr.sun_path, 0) > 0) {
fd = LISTEN_FDS_START + i; fd = SD_LISTEN_FDS_START + i;
activated = true; activated = true;
pw_log_info("server %p: Found socket activation socket for '%s'", pw_log_info("server %p: Found socket activation socket for '%s'",
s, s->addr.sun_path); s, s->addr.sun_path);
@ -919,6 +923,7 @@ static int add_socket(struct pw_protocol *protocol, struct server *s, struct soc
} }
} }
} }
#endif
if (fd < 0) { if (fd < 0) {
struct stat socket_stat; struct stat socket_stat;

View file

@ -62,12 +62,8 @@ struct client {
struct pw_manager_object *metadata_schema_sm_settings; struct pw_manager_object *metadata_schema_sm_settings;
bool have_force_mono_audio; bool have_force_mono_audio;
bool default_force_mono_audio;
bool have_bluetooth_headset_autoswitch;
bool default_bluetooth_headset_autoswitch;
struct pw_manager_object *metadata_sm_settings; struct pw_manager_object *metadata_sm_settings;
bool force_mono_audio; bool force_mono_audio;
bool bluetooth_headset_autoswitch;
uint32_t connect_tag; uint32_t connect_tag;

View file

@ -39,8 +39,6 @@
#define MODULE_INDEX_MASK 0xfffffffu #define MODULE_INDEX_MASK 0xfffffffu
#define MODULE_FLAG (1u << 29) #define MODULE_FLAG (1u << 29)
#define STREAM_CREATE_TIMEOUT (35 * SPA_NSEC_PER_SEC)
#define DEFAULT_SINK "@DEFAULT_SINK@" #define DEFAULT_SINK "@DEFAULT_SINK@"
#define DEFAULT_SOURCE "@DEFAULT_SOURCE@" #define DEFAULT_SOURCE "@DEFAULT_SOURCE@"
#define DEFAULT_MONITOR "@DEFAULT_MONITOR@" #define DEFAULT_MONITOR "@DEFAULT_MONITOR@"
@ -326,6 +324,5 @@ static inline uint32_t port_type_value(const char *port_type)
#define METADATA_TARGET_NODE "target.node" #define METADATA_TARGET_NODE "target.node"
#define METADATA_TARGET_OBJECT "target.object" #define METADATA_TARGET_OBJECT "target.object"
#define METADATA_FEATURES_AUDIO_MONO "node.features.audio.mono" #define METADATA_FEATURES_AUDIO_MONO "node.features.audio.mono"
#define METADATA_BLUETOOTH_HEADSET_AUTOSWITCH "bluetooth.autoswitch-to-headset-profile"
#endif /* PULSE_SERVER_DEFS_H */ #endif /* PULSE_SERVER_DEFS_H */

View file

@ -718,7 +718,7 @@ static void on_core_error(void *data, uint32_t id, int seq, int res, const char
{ {
struct manager *m = data; struct manager *m = data;
if (id == PW_ID_CORE && (res == -EPIPE || res == -EPROTO)) { if (id == PW_ID_CORE && res == -EPIPE) {
pw_log_debug("connection error: %d, %s", res, message); pw_log_debug("connection error: %d, %s", res, message);
manager_emit_disconnect(m); manager_emit_disconnect(m);
} }

View file

@ -110,59 +110,14 @@ static int core_object_force_mono_output(struct client *client, const char *para
if (spa_streq(params, "true")) { if (spa_streq(params, "true")) {
ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE, ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE,
METADATA_FEATURES_AUDIO_MONO, "Spa:String:JSON", "true"); METADATA_FEATURES_AUDIO_MONO, "Spa:String:JSON", "true");
client->force_mono_audio = true;
} else if (spa_streq(params, "false")) { } else if (spa_streq(params, "false")) {
ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE, ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE,
METADATA_FEATURES_AUDIO_MONO, "Spa:String:JSON", "false"); METADATA_FEATURES_AUDIO_MONO, "Spa:String:JSON", "false");
client->force_mono_audio = false;
} else if (spa_streq(params, "null")) { } else if (spa_streq(params, "null")) {
ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE, ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE,
METADATA_FEATURES_AUDIO_MONO, NULL, NULL); METADATA_FEATURES_AUDIO_MONO, NULL, NULL);
client->force_mono_audio = client->default_force_mono_audio;
} else { } else {
fprintf(response, "Value must be true, false, or null"); fprintf(response, "Value must be true, false, or clear");
return -EINVAL;
}
if (ret < 0)
fprintf(response, "Could not set metadata: %s", spa_strerror(ret));
else
fprintf(response, "%s", params);
return ret;
}
}
static int core_object_bluetooth_headset_autoswitch(struct client *client, const char *params, FILE *response)
{
if (!client->have_bluetooth_headset_autoswitch) {
/* Not supported, return a null value to indicate that */
fprintf(response, "null");
return 0;
}
if (!params || params[0] == '\0') {
/* No parameter => query the current value */
fprintf(response, "%s", client->bluetooth_headset_autoswitch ? "true" : "false");
return 0;
} else {
/* The caller is trying to set a value or clear with a null */
int ret;
if (spa_streq(params, "true")) {
ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE,
METADATA_BLUETOOTH_HEADSET_AUTOSWITCH, "Spa:String:JSON", "true");
client->bluetooth_headset_autoswitch = true;
} else if (spa_streq(params, "false")) {
ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE,
METADATA_BLUETOOTH_HEADSET_AUTOSWITCH, "Spa:String:JSON", "false");
client->bluetooth_headset_autoswitch = false;
} else if (spa_streq(params, "null")) {
ret = pw_manager_set_metadata(client->manager, client->metadata_sm_settings, PW_ID_CORE,
METADATA_BLUETOOTH_HEADSET_AUTOSWITCH, NULL, NULL);
client->bluetooth_headset_autoswitch = client->default_bluetooth_headset_autoswitch;
} else {
fprintf(response, "Value must be true, false, or null");
return -EINVAL; return -EINVAL;
} }
@ -183,15 +138,14 @@ static int core_object_message_handler(struct client *client, struct pw_manager_
fprintf(response, fprintf(response,
"/core <command> [<params>]\n" "/core <command> [<params>]\n"
"available commands:\n" "available commands:\n"
" help this help\n" " help this help\n"
" list-handlers show available object handlers\n" " list-handlers show available object handlers\n"
" pipewire-pulse:malloc-info show malloc_info\n" " pipewire-pulse:malloc-info show malloc_info\n"
" pipewire-pulse:malloc-trim run malloc_trim\n" " pipewire-pulse:malloc-trim run malloc_trim\n"
" pipewire-pulse:log-level update log level with <params>\n" " pipewire-pulse:log-level update log level with <params>\n"
" pipewire-pulse:list-modules list all module names\n" " pipewire-pulse:list-modules list all module names\n"
" pipewire-pulse:describe-module describe module info for <params>\n" " pipewire-pulse:describe-module describe module info for <params>\n"
" pipewire-pulse:force-mono-output force mono mixdown on all hardware outputs\n" " pipewire-pulse:force-mono-output force mono mixdown on all hardware outputs"
" pipewire-pulse:bluetooth-headset-autoswitch use bluetooth headset mic if available"
); );
} else if (spa_streq(message, "list-handlers")) { } else if (spa_streq(message, "list-handlers")) {
bool first = true; bool first = true;
@ -254,8 +208,6 @@ static int core_object_message_handler(struct client *client, struct pw_manager_
} }
} else if (spa_streq(message, "pipewire-pulse:force-mono-output")) { } else if (spa_streq(message, "pipewire-pulse:force-mono-output")) {
return core_object_force_mono_output(client, params, response); return core_object_force_mono_output(client, params, response);
} else if (spa_streq(message, "pipewire-pulse:bluetooth-headset-autoswitch")) {
return core_object_bluetooth_headset_autoswitch(client, params, response);
} else { } else {
return -ENOSYS; return -ENOSYS;
} }

View file

@ -973,33 +973,12 @@ static void manager_metadata(void *data, struct pw_manager_object *o,
if (subject == PW_ID_CORE && o == client->metadata_routes) if (subject == PW_ID_CORE && o == client->metadata_routes)
client_update_routes(client, key, value); client_update_routes(client, key, value);
if (subject == PW_ID_CORE && o == client->metadata_schema_sm_settings) { if (subject == PW_ID_CORE && o == client->metadata_schema_sm_settings) {
char default_[16]; if (spa_streq(key, METADATA_FEATURES_AUDIO_MONO))
if (spa_streq(key, METADATA_FEATURES_AUDIO_MONO)) {
client->have_force_mono_audio = true; client->have_force_mono_audio = true;
if (spa_json_str_object_find(value, strlen(value),
"default", default_, sizeof(default_)) < 0)
client->default_force_mono_audio = false;
else
client->default_force_mono_audio = spa_streq(default_, "true");
}
if (spa_streq(key, METADATA_BLUETOOTH_HEADSET_AUTOSWITCH)) {
client->have_bluetooth_headset_autoswitch = true;
if (spa_json_str_object_find(value, strlen(value),
"default", default_, sizeof(default_)) < 0)
client->default_bluetooth_headset_autoswitch = false;
else
client->default_bluetooth_headset_autoswitch = spa_streq(default_, "true");
}
} }
if (subject == PW_ID_CORE && o == client->metadata_sm_settings) { if (subject == PW_ID_CORE && o == client->metadata_sm_settings) {
if (spa_streq(key, METADATA_FEATURES_AUDIO_MONO)) if (spa_streq(key, METADATA_FEATURES_AUDIO_MONO))
client->force_mono_audio = spa_streq(value, "true"); client->force_mono_audio = spa_streq(value, "true");
if (spa_streq(key, METADATA_BLUETOOTH_HEADSET_AUTOSWITCH))
client->bluetooth_headset_autoswitch = spa_streq(value, "true");
} }
} }

View file

@ -17,12 +17,10 @@
#include <pipewire/properties.h> #include <pipewire/properties.h>
#include <pipewire/stream.h> #include <pipewire/stream.h>
#include "defs.h"
#include "format.h" #include "format.h"
#include "log.h" #include "log.h"
#include "sample.h" #include "sample.h"
#include "sample-play.h" #include "sample-play.h"
#include "internal.h"
static void sample_play_stream_state_changed(void *data, enum pw_stream_state old, static void sample_play_stream_state_changed(void *data, enum pw_stream_state old,
enum pw_stream_state state, const char *error) enum pw_stream_state state, const char *error)
@ -32,32 +30,17 @@ static void sample_play_stream_state_changed(void *data, enum pw_stream_state ol
switch (state) { switch (state) {
case PW_STREAM_STATE_UNCONNECTED: case PW_STREAM_STATE_UNCONNECTED:
case PW_STREAM_STATE_ERROR: case PW_STREAM_STATE_ERROR:
pw_timer_queue_cancel(&p->timer);
sample_play_emit_done(p, -EIO); sample_play_emit_done(p, -EIO);
break; break;
case PW_STREAM_STATE_PAUSED: case PW_STREAM_STATE_PAUSED:
p->id = pw_stream_get_node_id(p->stream); p->id = pw_stream_get_node_id(p->stream);
sample_play_emit_ready(p, p->id); sample_play_emit_ready(p, p->id);
break; break;
case PW_STREAM_STATE_STREAMING:
pw_timer_queue_cancel(&p->timer);
break;
default: default:
break; break;
} }
} }
static void sample_play_start_timeout(void *user_data)
{
struct sample_play *p = user_data;
pw_log_info("timeout on sample %s", p->sample->name);
if (p->stream)
pw_stream_set_active(p->stream, false);
sample_play_emit_done(p, -ETIMEDOUT);
}
static void sample_play_stream_destroy(void *data) static void sample_play_stream_destroy(void *data)
{ {
struct sample_play *p = data; struct sample_play *p = data;
@ -180,10 +163,6 @@ struct sample_play *sample_play_new(struct pw_core *core,
if (res < 0) if (res < 0)
goto error_cleanup; goto error_cleanup;
/* Time out if we don't get a link; same timeout as for normal streams */
pw_timer_queue_add(sample->impl->timer_queue, &p->timer, NULL,
STREAM_CREATE_TIMEOUT, sample_play_start_timeout, p);
return p; return p;
error_cleanup: error_cleanup:
@ -202,8 +181,6 @@ void sample_play_destroy(struct sample_play *p)
spa_hook_list_clean(&p->hooks); spa_hook_list_clean(&p->hooks);
pw_timer_queue_cancel(&p->timer);
free(p); free(p);
} }

View file

@ -11,8 +11,6 @@
#include <spa/utils/list.h> #include <spa/utils/list.h>
#include <spa/utils/hook.h> #include <spa/utils/hook.h>
#include <pipewire/pipewire.h>
struct sample; struct sample;
struct pw_core; struct pw_core;
struct pw_loop; struct pw_loop;
@ -43,7 +41,6 @@ struct sample_play {
uint32_t offset; uint32_t offset;
uint32_t stride; uint32_t stride;
struct spa_hook_list hooks; struct spa_hook_list hooks;
struct pw_timer timer;
void *user_data; void *user_data;
}; };

View file

@ -21,6 +21,9 @@
#include <netinet/ip.h> #include <netinet/ip.h>
#include <unistd.h> #include <unistd.h>
#ifdef HAVE_SYSTEMD
#include <systemd/sd-daemon.h>
#endif
#include <spa/utils/cleanup.h> #include <spa/utils/cleanup.h>
#include <spa/utils/defs.h> #include <spa/utils/defs.h>
@ -574,19 +577,26 @@ static bool is_stale_socket(int fd, const struct sockaddr_un *addr_un)
return false; return false;
} }
static int check_socket_activation(const char *path) #ifdef HAVE_SYSTEMD
static int check_systemd_activation(const char *path)
{ {
const int n = listen_fd(); const int n = sd_listen_fds(0);
for (int i = 0; i < n; i++) { for (int i = 0; i < n; i++) {
const int fd = LISTEN_FDS_START + i; const int fd = SD_LISTEN_FDS_START + i;
if (is_socket_unix(fd, SOCK_STREAM, path) > 0) if (sd_is_socket_unix(fd, SOCK_STREAM, 1, path, 0) > 0)
return fd; return fd;
} }
return -1; return -1;
} }
#else
static inline int check_systemd_activation(SPA_UNUSED const char *path)
{
return -1;
}
#endif
static int start_unix_server(struct server *server, const struct sockaddr_storage *addr) static int start_unix_server(struct server *server, const struct sockaddr_storage *addr)
{ {
@ -596,10 +606,10 @@ static int start_unix_server(struct server *server, const struct sockaddr_storag
spa_assert(addr_un->sun_family == AF_UNIX); spa_assert(addr_un->sun_family == AF_UNIX);
fd = check_socket_activation(addr_un->sun_path); fd = check_systemd_activation(addr_un->sun_path);
if (fd >= 0) { if (fd >= 0) {
server->activated = true; server->activated = true;
pw_log_info("server %p: found socket activation socket for '%s'", pw_log_info("server %p: found systemd socket activation socket for '%s'",
server, addr_un->sun_path); server, addr_un->sun_path);
goto done; goto done;
} }

View file

@ -107,7 +107,7 @@ struct stream *stream_new(struct client *client, enum stream_type type, uint32_t
/* Time out if we don't get a link and can't send a reply to create in 35s. Client will time out in /* Time out if we don't get a link and can't send a reply to create in 35s. Client will time out in
* 30s and clean up its stream anyway. */ * 30s and clean up its stream anyway. */
pw_timer_queue_add(stream->impl->timer_queue, &stream->timer, NULL, pw_timer_queue_add(stream->impl->timer_queue, &stream->timer, NULL,
STREAM_CREATE_TIMEOUT, create_stream_timeout, stream); 35 * SPA_NSEC_PER_SEC, create_stream_timeout, stream);
return stream; return stream;

View file

@ -22,15 +22,6 @@ static void ringbuffer_clear(struct spa_ringbuffer *rbuf SPA_UNUSED,
memset(iov[1].iov_base, 0, iov[1].iov_len); memset(iov[1].iov_base, 0, iov[1].iov_len);
} }
static inline uint64_t scale_u64(uint64_t val, uint32_t num, uint32_t denom)
{
#if 0
return ((__uint128_t)val * num) / denom;
#else
return (uint64_t)((double)val / denom * num);
#endif
}
static void rtp_audio_process_playback(void *data) static void rtp_audio_process_playback(void *data)
{ {
struct impl *impl = data; struct impl *impl = data;
@ -70,9 +61,6 @@ static void rtp_audio_process_playback(void *data)
* read or write index itself.) */ * read or write index itself.) */
if (impl->direct_timestamp) { if (impl->direct_timestamp) {
uint32_t num_samples_to_read;
uint32_t read_index;
/* In direct timestamp mode, the focus lies on synchronized playback, not /* In direct timestamp mode, the focus lies on synchronized playback, not
* on a constant latency. The ring buffer fill level is not of interest * on a constant latency. The ring buffer fill level is not of interest
* here. The code in rtp_audio_receive() writes to the ring buffer at * here. The code in rtp_audio_receive() writes to the ring buffer at
@ -101,32 +89,22 @@ static void rtp_audio_process_playback(void *data)
* timestamp mode, since all of them shift the timestamp by the same * timestamp mode, since all of them shift the timestamp by the same
* `sess.latency.msec` into the future. * `sess.latency.msec` into the future.
* *
* Since in this mode, a constant latency is not important, tracking * "Fill level" makes no sense in this mode, since a constant latency
* the fill level to keep it steady makes no sense. Consequently, * is not important in this mode, so no DLL is needed. Also, matching
* no DLL is needed. Also, matching the pace of the synchronized clock * the pace of the synchronized clock is done by having the graph
* is done by having the graph driver be synchronized to that clock, * driver be synchronized to that clock, which will in turn cause
* which will in turn cause any output sinks to adjust their DLLs * any output sinks to adjust their DLLs (or similar control loop
* (or similar control loop mechanisms) to match the pace of their * mechanisms) to match the pace of their data consumption with the
* data consumption with the pace of the driver. * pace of the driver. */
*
* The fill level is still important though to correctly handle corner
* cases where the ring buffer is (almost) empty. If fewer samples
* are available than what the read operation wants, the deficit
* has to be compensated with nullbytes. To that end, the "avail"
* quantity tracks how many samples are actually available. */
if (impl->io_position) { if (impl->io_position) {
uint32_t clock_rate = impl->io_position->clock.rate.denom; /* Use the clock position directly as the read index.
* Do NOT add device_delay here - the sink's DLL handles
/* Translate the clock position to an RTP timestamp and * matching its hardware clock to the driver pace. Adding
* shift it to compensate for device delay and ASRC delay. * device_delay would create a feedback loop since rate
* The device delay is scaled along with the clock position, * adjustments affect both ringbuffer and device buffer. */
* since both are expressed in clock sample units, while timestamp = impl->io_position->clock.position;
* pwt.buffered is expressed in stream time. */
timestamp = scale_u64(impl->io_position->clock.position + device_delay,
impl->rate, clock_rate) + pwt.buffered;
spa_ringbuffer_read_update(&impl->ring, timestamp); spa_ringbuffer_read_update(&impl->ring, timestamp);
avail = spa_ringbuffer_get_read_index(&impl->ring, &read_index);
} else { } else {
/* In the unlikely case that no spa_io_position pointer /* In the unlikely case that no spa_io_position pointer
* was passed yet by PipeWire to this node, resort to a * was passed yet by PipeWire to this node, resort to a
@ -134,72 +112,26 @@ static void rtp_audio_process_playback(void *data)
* This most likely is not in sync with other nodes, * This most likely is not in sync with other nodes,
* but _something_ is needed as read index until the * but _something_ is needed as read index until the
* spa_io_position is available. */ * spa_io_position is available. */
avail = spa_ringbuffer_get_read_index(&impl->ring, &timestamp); spa_ringbuffer_get_read_index(&impl->ring, &timestamp);
read_index = timestamp;
} }
/* If avail is 0, it means that the ring buffer is empty. <0 means spa_ringbuffer_read_data(&impl->ring,
* that there is an underrun, typically because the PTP time now impl->buffer,
* is ahead of the RTP data (this can happen when the PTP master impl->actual_max_buffer_size,
* changes for example). And in cases where only a little bit of ((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
* data is left, it is important to not try to use more than what d[0].data, wanted * stride);
* is actually available.
* Overruns would happen if the write pointer is further ahead than
* what the ringbuffer size actually allows. This too can happen
* if the PTP time jumps. No actual buffer overflow would happen
* then, since the write operations always apply modulo to the
* timestamps to wrap around the ringbuffer borders.
*/
bool has_underrun = (avail < 0);
bool has_overrun = !has_underrun && ((uint32_t)avail) > impl->actual_max_buffer_size;
num_samples_to_read = has_underrun ? 0 : SPA_MIN((uint32_t)avail, wanted);
/* Do some additional logging in the under/overrun cases. */ /* Clear the bytes that were just retrieved. Since the fill level
if (SPA_UNLIKELY(pw_log_topic_enabled(SPA_LOG_LEVEL_TRACE, PW_LOG_TOPIC_DEFAULT))) * is not tracked in this buffer mode, it is possible that as soon
{ * as actual playback ends, the RTP source node re-reads old data.
uint32_t write_index; * Make sure it reads silence when no actual new data is present
int32_t filled = spa_ringbuffer_get_write_index(&impl->ring, &write_index); * and the RTP source node still runs. Do this by filling the
* region of the retrieved data with null bytes. */
if (has_underrun) { ringbuffer_clear(&impl->ring,
pw_log_trace("Direct timestamp mode: Read index underrun: write_index: %" impl->buffer,
PRIu32 ", read_index: %" PRIu32 ", wanted: %u - filled: %" PRIi32, impl->actual_max_buffer_size,
write_index, read_index, wanted, filled); ((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
} else if (has_overrun) { wanted * stride);
pw_log_trace("Direct timestamp mode: Read index overrun: write_index: %"
PRIu32 ", read_index: %" PRIu32 ", wanted: %u - filled: %" PRIi32
", buffer size: %u", write_index, read_index, wanted, filled,
impl->actual_max_buffer_size);
}
}
if (num_samples_to_read > 0) {
spa_ringbuffer_read_data(&impl->ring,
impl->buffer,
impl->actual_max_buffer_size,
((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
d[0].data, num_samples_to_read * stride);
/* Clear the bytes that were just retrieved. Since the fill level
* is not tracked in this buffer mode, it is possible that as soon
* as actual playback ends, the RTP source node re-reads old data.
* Make sure it reads silence when no actual new data is present
* and the RTP source node still runs. Do this by filling the
* region of the retrieved data with null bytes. */
ringbuffer_clear(&impl->ring,
impl->buffer,
impl->actual_max_buffer_size,
((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
num_samples_to_read * stride);
}
if (num_samples_to_read < wanted) {
/* If fewer samples were available than what was wanted,
* fill the remaining space in the destination memory
* with nullsamples. */
void *bytes_to_clear = SPA_PTROFF(d[0].data, num_samples_to_read * stride, void);
size_t num_bytes_to_clear = (wanted - num_samples_to_read) * stride;
spa_memzero(bytes_to_clear, num_bytes_to_clear);
}
if (!impl->io_position) { if (!impl->io_position) {
/* In the unlikely case that no spa_io_position pointer /* In the unlikely case that no spa_io_position pointer
@ -290,25 +222,6 @@ static void rtp_audio_process_playback(void *data)
((uint64_t)timestamp * stride) % impl->actual_max_buffer_size, ((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
d[0].data, wanted * stride); d[0].data, wanted * stride);
/* Clear the bytes that were just retrieved. Unlike in the
* direct timestamp mode, here, bytes are always read out
* of the ring buffer in sequence - the read pointer does
* not "jump around" (which can happen in direct timestamp
* mode if the last iteration has been a while ago and the
* driver clock time advanced significantly, or if the driver
* time experienced a discontinuity). However, should there
* be packet loss, it could lead to segments in the ring
* buffer that should have been written to but weren't written
* to. These segments would then contain old stale data. By
* clearing data out of the ring buffer after reading it, it
* is ensured that no stale data can exist - in the packet loss
* case, the outcome would be a gap made of nullsamples instead. */
ringbuffer_clear(&impl->ring,
impl->buffer,
impl->actual_max_buffer_size,
((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
wanted * stride);
timestamp += wanted; timestamp += wanted;
spa_ringbuffer_read_update(&impl->ring, timestamp); spa_ringbuffer_read_update(&impl->ring, timestamp);
} }
@ -421,43 +334,17 @@ static int rtp_audio_receive(struct impl *impl, uint8_t *buffer, ssize_t len,
* and not _appended_. In this example, `expected_write` would * and not _appended_. In this example, `expected_write` would
* be 100 (since `expected_write` is the current write index), * be 100 (since `expected_write` is the current write index),
* `write` would be 90, `samples` would be 10. In this case, * `write` would be 90, `samples` would be 10. In this case,
* the (expected_write < (write + samples)) inequality does * the inequality below does not hold, so data is being
* not hold, so data is being _inserted_. By contrast, during * _inserted_. By contrast, during normal operation, `write`
* normal operation, `write` and `expected_write` are equal, * and `expected_write` are equal, so the inequality below
* so the aforementioned inequality _does_ hold, meaning that * _does_ hold, meaning that data is being appended.
* data is being appended.
*
* The code below handles this, and also handles a 32-bit
* integer overflow corner case where the comparison has
* to be done differently to account for the wrap-around.
* *
* (Note that this write index update is only important if * (Note that this write index update is only important if
* the constant delay mode is active, or if no spa_io_position * the constant delay mode is active, or if no spa_io_position
* was not provided yet. See the rtp_audio_process_playback() * was not provided yet. See the rtp_audio_process_playback()
* code for more about this.) */ * code for more about this.) */
if (expected_write < (write + samples)) {
/* Compute new_write, handling potential 32-bit overflow. write += samples;
* In unsigned arithmetic, if write + samples exceeds UINT32_MAX,
* it wraps around to a smaller value. We detect this by checking
* if new_write < write (which can only happen on overflow). */
const uint32_t new_write = write + samples;
const bool wrapped_around = new_write < write;
/* Determine if new_write is ahead of expected_write.
* We're appending (ahead) if:
*
* 1. Normal case: new_write > expected_write (forward progress)
* 2. Wrap-around case: new_write wrapped around (wrapped_around == true),
* meaning we've cycled through the 32-bit index space and are
* continuing from the beginning. In this case, we're always ahead.
*
* We're NOT appending (inserting/behind) if:
* - new_write <= expected_write AND no wrap-around occurred
* (we're filling a gap or writing behind the current position) */
const bool is_appending = wrapped_around || (new_write > expected_write);
if (is_appending) {
write = new_write;
spa_ringbuffer_write_update(&impl->ring, write); spa_ringbuffer_write_update(&impl->ring, write);
} }
} }
@ -539,27 +426,20 @@ static void rtp_audio_flush_packets(struct impl *impl, uint32_t num_packets, uin
iov[0].iov_len = sizeof(header); iov[0].iov_len = sizeof(header);
while (num_packets > 0) { while (num_packets > 0) {
uint32_t rtp_timestamp;
if (impl->marker_on_first && impl->first) if (impl->marker_on_first && impl->first)
header.m = 1; header.m = 1;
else else
header.m = 0; header.m = 0;
rtp_timestamp = impl->ts_offset + (set_timestamp ? set_timestamp : timestamp);
header.sequence_number = htons(impl->seq); header.sequence_number = htons(impl->seq);
header.timestamp = htonl(rtp_timestamp); header.timestamp = htonl(impl->ts_offset + (set_timestamp ? set_timestamp : timestamp));
set_iovec(&impl->ring, set_iovec(&impl->ring,
impl->buffer, impl->actual_max_buffer_size, impl->buffer, impl->actual_max_buffer_size,
((uint64_t)timestamp * stride) % impl->actual_max_buffer_size, ((uint64_t)timestamp * stride) % impl->actual_max_buffer_size,
&iov[1], tosend * stride); &iov[1], tosend * stride);
pw_log_trace("sending %d packet:%d ts_offset:%d timestamp:%u (%f s)", pw_log_trace("sending %d packet:%d ts_offset:%d timestamp:%d",
tosend, num_packets, impl->ts_offset, timestamp, tosend, num_packets, impl->ts_offset, timestamp);
(double)timestamp * impl->io_position->clock.rate.num /
impl->io_position->clock.rate.denom);
rtp_stream_emit_send_packet(impl, iov, 3); rtp_stream_emit_send_packet(impl, iov, 3);
@ -620,7 +500,6 @@ static void rtp_audio_process_capture(void *data)
uint32_t pending, num_queued; uint32_t pending, num_queued;
struct spa_io_position *pos; struct spa_io_position *pos;
uint64_t next_nsec, quantum; uint64_t next_nsec, quantum;
struct pw_time pwt;
if (impl->separate_sender) { if (impl->separate_sender) {
/* apply the DLL rate */ /* apply the DLL rate */
@ -638,8 +517,6 @@ static void rtp_audio_process_capture(void *data)
stride = impl->stride; stride = impl->stride;
wanted = size / stride; wanted = size / stride;
pw_stream_get_time_n(impl->stream, &pwt, sizeof(pwt));
filled = spa_ringbuffer_get_write_index(&impl->ring, &expected_timestamp); filled = spa_ringbuffer_get_write_index(&impl->ring, &expected_timestamp);
pos = impl->io_position; pos = impl->io_position;
@ -656,21 +533,6 @@ static void rtp_audio_process_capture(void *data)
impl->sink_resamp_delay = impl->io_rate_match->delay; impl->sink_resamp_delay = impl->io_rate_match->delay;
impl->sink_quantum = (uint64_t)(pos->clock.duration * SPA_NSEC_PER_SEC / rate); impl->sink_quantum = (uint64_t)(pos->clock.duration * SPA_NSEC_PER_SEC / rate);
} }
/* Compensate for the stream resampler's delay. */
actual_timestamp -= pwt.buffered;
/* If we got a request for less than quantum worth of samples, it indicates that there
* is a gap created by the resampler. We have to skip it to avoid timestamp discontinuity. */
if (pwt.buffered > 0) {
int32_t ideal_quantum = (int32_t)scale_u64(pos->clock.duration, impl->rate, rate);
if (wanted < ideal_quantum) {
int32_t num_samples_to_skip = ideal_quantum - wanted;
pw_log_info("wanted: %" PRId32 " < ideal quantum: %" PRId32 " - skipping %"
PRId32" samples", wanted, ideal_quantum, num_samples_to_skip);
actual_timestamp += num_samples_to_skip;
}
}
} else { } else {
actual_timestamp = expected_timestamp; actual_timestamp = expected_timestamp;
next_nsec = 0; next_nsec = 0;
@ -707,8 +569,7 @@ static void rtp_audio_process_capture(void *data)
if (!impl->have_sync) { if (!impl->have_sync) {
pw_log_info("(re)sync to timestamp:%u seq:%u ts_offset:%u SSRC:%u", pw_log_info("(re)sync to timestamp:%u seq:%u ts_offset:%u SSRC:%u",
actual_timestamp, impl->seq, impl->ts_offset, impl->ssrc); actual_timestamp, impl->seq, impl->ts_offset, impl->ssrc);
spa_ringbuffer_read_update(&impl->ring, actual_timestamp); impl->ring.readindex = impl->ring.writeindex = actual_timestamp;
spa_ringbuffer_write_update(&impl->ring, actual_timestamp);
memset(impl->buffer, 0, BUFFER_SIZE); memset(impl->buffer, 0, BUFFER_SIZE);
impl->have_sync = true; impl->have_sync = true;
expected_timestamp = actual_timestamp; expected_timestamp = actual_timestamp;

View file

@ -454,10 +454,6 @@ static int stream_stop(struct impl *impl)
* meaning that the timer was no longer running, and the connection * meaning that the timer was no longer running, and the connection
* could be closed. */ * could be closed. */
if (!timer_running) { if (!timer_running) {
/* Clear the ringbuffer to prevent old invalid packets from being
* sent when processing resumes via rtp_audio_flush_packets() */
if (impl->reset_ringbuffer)
impl->reset_ringbuffer(impl);
set_internal_stream_state(impl, RTP_STREAM_INTERNAL_STATE_STOPPED); set_internal_stream_state(impl, RTP_STREAM_INTERNAL_STATE_STOPPED);
pw_log_info("stream stopped"); pw_log_info("stream stopped");
} }

View file

@ -162,8 +162,7 @@ static const struct spa_dict_item module_props[] = {
{ PW_KEY_MODULE_VERSION, PACKAGE_VERSION }, { PW_KEY_MODULE_VERSION, PACKAGE_VERSION },
}; };
#define SERVICE_TYPE_JSONRPC "_snapcast-jsonrpc._tcp" #define SERVICE_TYPE_CONTROL "_snapcast-jsonrpc._tcp"
#define SERVICE_TYPE_CONTROL "_snapcast-ctrl._tcp"
struct impl { struct impl {
struct pw_context *context; struct pw_context *context;
@ -177,8 +176,7 @@ struct impl {
AvahiPoll *avahi_poll; AvahiPoll *avahi_poll;
AvahiClient *client; AvahiClient *client;
AvahiServiceBrowser *jsonrpc_browser; AvahiServiceBrowser *sink_browser;
AvahiServiceBrowser *ctrl_browser;
struct spa_list tunnel_list; struct spa_list tunnel_list;
uint32_t id; uint32_t id;
@ -254,10 +252,8 @@ static void impl_free(struct impl *impl)
spa_list_consume(t, &impl->tunnel_list, link) spa_list_consume(t, &impl->tunnel_list, link)
free_tunnel(t); free_tunnel(t);
if (impl->jsonrpc_browser) if (impl->sink_browser)
avahi_service_browser_free(impl->jsonrpc_browser); avahi_service_browser_free(impl->sink_browser);
if (impl->ctrl_browser)
avahi_service_browser_free(impl->ctrl_browser);
if (impl->client) if (impl->client)
avahi_client_free(impl->client); avahi_client_free(impl->client);
if (impl->avahi_poll) if (impl->avahi_poll)
@ -822,13 +818,9 @@ static void client_callback(AvahiClient *c, AvahiClientState state, void *userda
case AVAHI_CLIENT_S_REGISTERING: case AVAHI_CLIENT_S_REGISTERING:
case AVAHI_CLIENT_S_RUNNING: case AVAHI_CLIENT_S_RUNNING:
case AVAHI_CLIENT_S_COLLISION: case AVAHI_CLIENT_S_COLLISION:
if (impl->ctrl_browser == NULL) if (impl->sink_browser == NULL)
impl->ctrl_browser = make_browser(impl, SERVICE_TYPE_CONTROL); impl->sink_browser = make_browser(impl, SERVICE_TYPE_CONTROL);
if (impl->ctrl_browser == NULL) if (impl->sink_browser == NULL)
goto error;
if (impl->jsonrpc_browser == NULL)
impl->jsonrpc_browser = make_browser(impl, SERVICE_TYPE_JSONRPC);
if (impl->jsonrpc_browser == NULL)
goto error; goto error;
break; break;
case AVAHI_CLIENT_FAILURE: case AVAHI_CLIENT_FAILURE:
@ -837,13 +829,9 @@ static void client_callback(AvahiClient *c, AvahiClientState state, void *userda
SPA_FALLTHROUGH; SPA_FALLTHROUGH;
case AVAHI_CLIENT_CONNECTING: case AVAHI_CLIENT_CONNECTING:
if (impl->ctrl_browser) { if (impl->sink_browser) {
avahi_service_browser_free(impl->ctrl_browser); avahi_service_browser_free(impl->sink_browser);
impl->ctrl_browser = NULL; impl->sink_browser = NULL;
}
if (impl->jsonrpc_browser) {
avahi_service_browser_free(impl->jsonrpc_browser);
impl->jsonrpc_browser = NULL;
} }
break; break;
default: default:

View file

@ -7,12 +7,6 @@
#include <arpa/inet.h> #include <arpa/inet.h>
#include <net/if.h> #include <net/if.h>
#include <errno.h> #include <errno.h>
#include <fcntl.h>
#include <stdlib.h>
#include <limits.h>
#include <sys/un.h>
#include <spa/utils/string.h>
#ifdef __FreeBSD__ #ifdef __FreeBSD__
#define ifr_ifindex ifr_index #define ifr_ifindex ifr_index
@ -137,70 +131,5 @@ static inline bool pw_net_addr_is_any(struct sockaddr_storage *addr)
return false; return false;
} }
#ifndef LISTEN_FDS_START
#define LISTEN_FDS_START 3
#endif
/* Returns the number of file descriptors passed for socket activation.
* Returns 0 if none, -1 on error. */
static inline int listen_fd(void)
{
uint32_t n;
int i, flags;
if (!spa_atou32(getenv("LISTEN_FDS"), &n, 10) || n > INT_MAX - LISTEN_FDS_START) {
errno = EINVAL;
return -1;
}
for (i = 0; i < (int)n; i++) {
flags = fcntl(LISTEN_FDS_START + i, F_GETFD);
if (flags == -1)
return -1;
if (fcntl(LISTEN_FDS_START + i, F_SETFD, flags | FD_CLOEXEC) == -1)
return -1;
}
unsetenv("LISTEN_FDS");
return (int)n;
}
/* Check if the fd is a listening unix socket of the given type,
* optionally bound to the given path. */
static inline int is_socket_unix(int fd, int type, const char *path)
{
struct sockaddr_un addr;
int val;
socklen_t len = sizeof(val);
if (getsockopt(fd, SOL_SOCKET, SO_TYPE, &val, &len) < 0)
return -errno;
if (val != type)
return 0;
if (getsockopt(fd, SOL_SOCKET, SO_ACCEPTCONN, &val, &len) < 0)
return -errno;
if (!val)
return 0;
if (path) {
len = sizeof(addr);
memset(&addr, 0, sizeof(addr));
if (getsockname(fd, (struct sockaddr *)&addr, &len) < 0)
return -errno;
if (addr.sun_family != AF_UNIX)
return 0;
size_t length = strlen(path);
if (length > 0) {
if (len < offsetof(struct sockaddr_un, sun_path) + length)
return 0;
if (memcmp(addr.sun_path, path, length) != 0)
return 0;
}
}
return 1;
}
#endif /* NETWORK_UTILS_H */ #endif /* NETWORK_UTILS_H */

View file

@ -1595,8 +1595,6 @@ void pw_impl_port_destroy(struct pw_impl_port *port)
pw_param_clear(&impl->pending_list, SPA_ID_INVALID); pw_param_clear(&impl->pending_list, SPA_ID_INVALID);
free(port->tag[SPA_DIRECTION_INPUT]); free(port->tag[SPA_DIRECTION_INPUT]);
free(port->tag[SPA_DIRECTION_OUTPUT]); free(port->tag[SPA_DIRECTION_OUTPUT]);
free(port->cap[SPA_DIRECTION_INPUT]);
free(port->cap[SPA_DIRECTION_OUTPUT]);
pw_map_clear(&port->mix_port_map); pw_map_clear(&port->mix_port_map);

View file

@ -120,7 +120,6 @@ struct data {
const char *media_role; const char *media_role;
const char *channel_map; const char *channel_map;
const char *format; const char *format;
const char *container;
const char *target; const char *target;
const char *latency; const char *latency;
struct pw_properties *props; struct pw_properties *props;
@ -195,6 +194,8 @@ struct data {
uint64_t samples_processed; uint64_t samples_processed;
}; };
#define STR_FMTS "(ulaw|alaw|u8|s8|s16|s32|f32|f64)"
static const struct format_info { static const struct format_info {
const char *name; const char *name;
int sf_format; int sf_format;
@ -210,35 +211,6 @@ static const struct format_info {
{ "s32", SF_FORMAT_PCM_32, SPA_AUDIO_FORMAT_S32, 4 }, { "s32", SF_FORMAT_PCM_32, SPA_AUDIO_FORMAT_S32, 4 },
{ "f32", SF_FORMAT_FLOAT, SPA_AUDIO_FORMAT_F32, 4 }, { "f32", SF_FORMAT_FLOAT, SPA_AUDIO_FORMAT_F32, 4 },
{ "f64", SF_FORMAT_DOUBLE, SPA_AUDIO_FORMAT_F32, 8 }, { "f64", SF_FORMAT_DOUBLE, SPA_AUDIO_FORMAT_F32, 8 },
{ "mp1", SF_FORMAT_MPEG_LAYER_I, SPA_AUDIO_FORMAT_F32, 1 },
{ "mp2", SF_FORMAT_MPEG_LAYER_II, SPA_AUDIO_FORMAT_F32, 1 },
{ "mp3", SF_FORMAT_MPEG_LAYER_III, SPA_AUDIO_FORMAT_F32, 1 },
{ "vorbis", SF_FORMAT_VORBIS, SPA_AUDIO_FORMAT_F32, 1 },
{ "opus", SF_FORMAT_OPUS, SPA_AUDIO_FORMAT_F32, 1 },
{ "ima-adpcm", SF_FORMAT_IMA_ADPCM, SPA_AUDIO_FORMAT_F32, 1 },
{ "ms-adpcm", SF_FORMAT_MS_ADPCM, SPA_AUDIO_FORMAT_F32, 1 },
{ "nms-adpcm-16", SF_FORMAT_NMS_ADPCM_16, SPA_AUDIO_FORMAT_F32, 1 },
{ "nms-adpcm-24", SF_FORMAT_NMS_ADPCM_24, SPA_AUDIO_FORMAT_F32, 1 },
{ "nms-adpcm-32", SF_FORMAT_NMS_ADPCM_32, SPA_AUDIO_FORMAT_F32, 1 },
{ "alac-16", SF_FORMAT_ALAC_16, SPA_AUDIO_FORMAT_F32, 1 },
{ "alac-20", SF_FORMAT_ALAC_20, SPA_AUDIO_FORMAT_F32, 1 },
{ "alac-24", SF_FORMAT_ALAC_24, SPA_AUDIO_FORMAT_F32, 1 },
{ "alac-32", SF_FORMAT_ALAC_32, SPA_AUDIO_FORMAT_F32, 1 },
{ "gsm610", SF_FORMAT_GSM610, SPA_AUDIO_FORMAT_F32, 1 },
{ "g721-32", SF_FORMAT_G721_32, SPA_AUDIO_FORMAT_F32, 1 },
{ "g723-24", SF_FORMAT_G723_24, SPA_AUDIO_FORMAT_F32, 1 },
{ "g723-40", SF_FORMAT_G723_40, SPA_AUDIO_FORMAT_F32, 1 },
{ "dwvw-12", SF_FORMAT_DWVW_12, SPA_AUDIO_FORMAT_F32, 1 },
{ "dwvw-16", SF_FORMAT_DWVW_16, SPA_AUDIO_FORMAT_F32, 1 },
{ "dwvw-24", SF_FORMAT_DWVW_24, SPA_AUDIO_FORMAT_F32, 1 },
{ "vox", SF_FORMAT_VOX_ADPCM, SPA_AUDIO_FORMAT_F32, 1 },
{ "dpcm-16", SF_FORMAT_DPCM_16, SPA_AUDIO_FORMAT_F32, 1 },
{ "dpcm-8", SF_FORMAT_DPCM_8, SPA_AUDIO_FORMAT_F32, 1 },
}; };
static const struct format_info *format_info_by_name(const char *str) static const struct format_info *format_info_by_name(const char *str)
@ -258,14 +230,6 @@ static const struct format_info *format_info_by_sf_format(int format)
return NULL; return NULL;
} }
static void list_formats(struct data *d)
{
fprintf(stdout, _("Supported formats:\n"));
SPA_FOR_EACH_ELEMENT_VAR(format_info, i)
fprintf(stdout, " %s\n", i->name);
}
static int sf_playback_fill_x8(struct data *d, void *dest, unsigned int n_frames, bool *null_frame) static int sf_playback_fill_x8(struct data *d, void *dest, unsigned int n_frames, bool *null_frame)
{ {
sf_count_t rn; sf_count_t rn;
@ -744,34 +708,6 @@ static int parse_channelmap(const char *channel_map, struct spa_audio_layout_inf
return 0; return 0;
} }
static void list_layouts(struct data *d)
{
fprintf(stderr, _("Supported channel layouts:\n"));
SPA_FOR_EACH_ELEMENT_VAR(spa_type_audio_layout_info, i) {
if (i->name == NULL)
break;
fprintf(stdout, " %s: [", i->name);
for (uint32_t j = 0; j < i->layout.n_channels; j++)
fprintf(stdout, "%s%s", j == 0 ? " " : ", ",
spa_type_audio_channel_to_short_name(i->layout.position[j]));
fprintf(stdout, " ]\n");
}
fprintf(stderr, _("Supported channel layout aliases:\n"));
SPA_FOR_EACH_ELEMENT_VAR(maps, m)
fprintf(stdout, _(" %s -> %s\n"), m->name, m->alias);
}
static void list_channel_names(struct data *d)
{
fprintf(stderr, _("Supported channel names:\n"));
SPA_FOR_EACH_ELEMENT_VAR(spa_type_audio_channel, i) {
if (i->name == NULL || SPA_AUDIO_CHANNEL_IS_AUX(i->type))
break;
fprintf(stdout, " %s\n", spa_type_short_name(i->name));
}
fprintf(stderr, " AUX0 ... AUX4095\n");
}
static int channelmap_default(struct spa_audio_layout_info *map, int n_channels) static int channelmap_default(struct spa_audio_layout_info *map, int n_channels)
{ {
switch(n_channels) { switch(n_channels) {
@ -1112,11 +1048,6 @@ enum {
OPT_CHANNELMAP, OPT_CHANNELMAP,
OPT_FORMAT, OPT_FORMAT,
OPT_VOLUME, OPT_VOLUME,
OPT_CONTAINER,
OPT_LISTFORMATS,
OPT_LISTCONTAINERS,
OPT_LISTLAYOUTS,
OPT_LISTCHANNELNAMES,
}; };
#ifdef HAVE_PW_CAT_FFMPEG_INTEGRATION #ifdef HAVE_PW_CAT_FFMPEG_INTEGRATION
@ -1151,18 +1082,13 @@ static const struct option long_options[] = {
{ "rate", required_argument, NULL, OPT_RATE }, { "rate", required_argument, NULL, OPT_RATE },
{ "channels", required_argument, NULL, OPT_CHANNELS }, { "channels", required_argument, NULL, OPT_CHANNELS },
{ "channel-map", required_argument, NULL, OPT_CHANNELMAP }, { "channel-map", required_argument, NULL, OPT_CHANNELMAP },
{ "list-layouts", no_argument, NULL, OPT_LISTLAYOUTS },
{ "list-channel-names", no_argument, NULL, OPT_LISTCHANNELNAMES },
{ "format", required_argument, NULL, OPT_FORMAT }, { "format", required_argument, NULL, OPT_FORMAT },
{ "list-formats", no_argument, NULL, OPT_LISTFORMATS },
{ "container", required_argument, NULL, OPT_CONTAINER },
{ "list-containers", no_argument, NULL, OPT_LISTCONTAINERS },
{ "volume", required_argument, NULL, OPT_VOLUME }, { "volume", required_argument, NULL, OPT_VOLUME },
{ "quality", required_argument, NULL, 'q' }, { "quality", required_argument, NULL, 'q' },
{ "raw", no_argument, NULL, 'a' }, { "raw", no_argument, NULL, 'a' },
{ "force-midi", required_argument, NULL, 'M' }, { "force-midi", required_argument, NULL, 'M' },
{ "sample-count", required_argument, NULL, 'n' }, { "sample-count", required_argument, NULL, 'n' },
{ "midi-clip", no_argument, NULL, 'c' }, { "midi-clip", no_argument, NULL, 'c' },
{ NULL, 0, NULL, 0 } { NULL, 0, NULL, 0 }
}; };
@ -1199,17 +1125,12 @@ static void show_usage(const char *name, bool is_error)
DEFAULT_TARGET, DEFAULT_LATENCY_PLAY); DEFAULT_TARGET, DEFAULT_LATENCY_PLAY);
fprintf(fp, fprintf(fp,
_(" --rate Sample rate (default %u)\n" _(" --rate Sample rate (req. for rec) (default %u)\n"
" --channels Number of channels (default %u)\n" " --channels Number of channels (req. for rec) (default %u)\n"
" --channel-map Channel map\n" " --channel-map Channel map\n"
" a channel layout: \"Stereo\", \"5.1\",... or\n" " one of: \"Stereo\", \"5.1\",... or\n"
" comma separated list of channel names: eg. \"FL,FR\"\n" " comma separated list of channel names: eg. \"FL,FR\"\n"
" --list-layouts List supported channel layouts\n" " --format Sample format %s (req. for rec) (default %s)\n"
" --list-channel-names List supported channel maps\n"
" --format Sample format (default %s)\n"
" --list-formats List supported sample formats\n"
" --container Container format\n"
" --list-containers List supported containers and extensions\n"
" --volume Stream volume 0-1.0 (default %.3f)\n" " --volume Stream volume 0-1.0 (default %.3f)\n"
" -q --quality Resampler quality (0 - 15) (default %d)\n" " -q --quality Resampler quality (0 - 15) (default %d)\n"
" -a, --raw RAW mode\n" " -a, --raw RAW mode\n"
@ -1218,7 +1139,7 @@ static void show_usage(const char *name, bool is_error)
"\n"), "\n"),
DEFAULT_RATE, DEFAULT_RATE,
DEFAULT_CHANNELS, DEFAULT_CHANNELS,
DEFAULT_FORMAT, STR_FMTS, DEFAULT_FORMAT,
DEFAULT_VOLUME, DEFAULT_VOLUME,
DEFAULT_QUALITY); DEFAULT_QUALITY);
@ -1752,20 +1673,17 @@ static int fill_properties(struct data *data)
return 0; return 0;
} }
static void format_from_filename(SF_INFO *info, const char *filename, const char *container) static void format_from_filename(SF_INFO *info, const char *filename)
{ {
int i, count = 0; int i, count = 0;
int format = -1; int format = -1;
const char *extension;
if (spa_streq(filename, "-")) #if __BYTE_ORDER == __BIG_ENDIAN
extension = container ? container : "au"; info->format |= SF_ENDIAN_BIG;
else if (container) #else
extension = container; info->format |= SF_ENDIAN_LITTLE;
else #endif
extension = filename;
fprintf(stderr, "%s\n", filename);
if (sf_command(NULL, SFC_GET_FORMAT_MAJOR_COUNT, &count, sizeof(int)) != 0) if (sf_command(NULL, SFC_GET_FORMAT_MAJOR_COUNT, &count, sizeof(int)) != 0)
count = 0; count = 0;
@ -1777,67 +1695,22 @@ static void format_from_filename(SF_INFO *info, const char *filename, const char
if (sf_command(NULL, SFC_GET_FORMAT_MAJOR, &fi, sizeof(fi)) != 0) if (sf_command(NULL, SFC_GET_FORMAT_MAJOR, &fi, sizeof(fi)) != 0)
continue; continue;
if (spa_strendswith(extension, fi.extension)) { if (spa_strendswith(filename, fi.extension)) {
format = fi.format; format = fi.format;
break; break;
} }
} }
if (format == -1) {
if (sf_command(NULL, SFC_GET_SIMPLE_FORMAT_COUNT, &count, sizeof(int)) != 0)
count = 0;
for (i = 0; i < count; i++) {
SF_FORMAT_INFO fi;
spa_zero(fi);
fi.format = i;
if (sf_command(NULL, SFC_GET_SIMPLE_FORMAT, &fi, sizeof(fi)) != 0)
continue;
if (spa_strendswith(extension, fi.extension)) {
format = fi.format;
info->format = 0;
break;
}
}
}
if (format == -1) if (format == -1)
format = SF_FORMAT_WAV; format = spa_streq(filename, "-") ? SF_FORMAT_AU : SF_FORMAT_WAV;
if (format == SF_FORMAT_WAV && info->channels > 2) if (format == SF_FORMAT_WAV && info->channels > 2)
format = SF_FORMAT_WAVEX; format = SF_FORMAT_WAVEX;
switch (format & SF_FORMAT_TYPEMASK) {
case SF_FORMAT_OGG:
case SF_FORMAT_FLAC:
case SF_FORMAT_MPEG:
case SF_FORMAT_AIFF:
info->format |= SF_ENDIAN_FILE;
break;
default:
info->format |= SF_ENDIAN_CPU;
break;
}
info->format |= format; info->format |= format;
}
static void list_containers(struct data *d) if (format == SF_FORMAT_OGG || format == SF_FORMAT_FLAC)
{ info->format = (info->format & ~SF_FORMAT_ENDMASK) | SF_ENDIAN_FILE;
int i, count = 0; if (format == SF_FORMAT_OGG)
info->format = (info->format & ~SF_FORMAT_SUBMASK) | SF_FORMAT_VORBIS;
fprintf(stderr, _("Supported containers and extensions:\n"));
if (sf_command(NULL, SFC_GET_FORMAT_MAJOR_COUNT, &count, sizeof(int)) != 0)
count = 0;
for (i = 0; i < count; i++) {
SF_FORMAT_INFO fi;
spa_zero(fi);
fi.format = i;
if (sf_command(NULL, SFC_GET_FORMAT_MAJOR, &fi, sizeof(fi)) != 0)
continue;
fprintf(stderr, " %s: %s\n", fi.extension, fi.name);
}
} }
#ifdef HAVE_PW_CAT_FFMPEG_INTEGRATION #ifdef HAVE_PW_CAT_FFMPEG_INTEGRATION
@ -1961,7 +1834,7 @@ static int setup_sndfile(struct data *data)
info.samplerate = data->rate; info.samplerate = data->rate;
info.channels = data->channels; info.channels = data->channels;
info.format = fi->sf_format; info.format = fi->sf_format;
format_from_filename(&info, data->filename, data->container); format_from_filename(&info, data->filename);
} }
data->sndfile.file = sf_open(data->filename, data->sndfile.file = sf_open(data->filename,
@ -2322,9 +2195,6 @@ int main(int argc, char *argv[])
case OPT_FORMAT: case OPT_FORMAT:
data.format = optarg; data.format = optarg;
break; break;
case OPT_CONTAINER:
data.container = optarg;
break;
case OPT_VOLUME: case OPT_VOLUME:
if (!spa_atof(optarg, &data.volume)) if (!spa_atof(optarg, &data.volume))
@ -2336,18 +2206,6 @@ int main(int argc, char *argv[])
case 'c': case 'c':
data.data_type = TYPE_MIDI2; data.data_type = TYPE_MIDI2;
break; break;
case OPT_LISTFORMATS:
list_formats(&data);
return EXIT_SUCCESS;
case OPT_LISTCONTAINERS:
list_containers(&data);
return EXIT_SUCCESS;
case OPT_LISTLAYOUTS:
list_layouts(&data);
return EXIT_SUCCESS;
case OPT_LISTCHANNELNAMES:
list_channel_names(&data);
return EXIT_SUCCESS;
default: default:
goto error_usage; goto error_usage;
} }