blob: f89c898da8a39fd9aa2741e835e90ddcf7bf5886 [file] [log] [blame]
/*
* Copyright (C) 2020 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include <stdio.h>
#include <string.h>
#include <algorithm>
#define LOG_TAG "HidlUtils"
#include <log/log.h>
#include PATH(APM_XSD_ENUMS_H_FILENAME)
#include <common/all-versions/HidlSupport.h>
#include <common/all-versions/VersionUtils.h>
#include "HidlUtils.h"
namespace android {
namespace hardware {
namespace audio {
namespace common {
namespace COMMON_TYPES_CPP_VERSION {
namespace implementation {
namespace xsd {
using namespace ::android::audio::policy::configuration::CPP_VERSION;
}
#define CONVERT_CHECKED(expr, result) \
if (status_t status = (expr); status != NO_ERROR) { \
result = status; \
}
status_t HidlUtils::audioIndexChannelMaskFromHal(audio_channel_mask_t halChannelMask,
AudioChannelMask* channelMask) {
*channelMask = audio_channel_index_mask_to_string(halChannelMask);
if (!channelMask->empty() && !xsd::isUnknownAudioChannelMask(*channelMask)) {
return NO_ERROR;
}
ALOGE("Unknown index channel mask value 0x%X", halChannelMask);
*channelMask = toString(xsd::AudioChannelMask::AUDIO_CHANNEL_NONE);
return BAD_VALUE;
}
status_t HidlUtils::audioInputChannelMaskFromHal(audio_channel_mask_t halChannelMask,
AudioChannelMask* channelMask) {
*channelMask = audio_channel_in_mask_to_string(halChannelMask);
if (!channelMask->empty() && !xsd::isUnknownAudioChannelMask(*channelMask)) {
return NO_ERROR;
}
ALOGE("Unknown input channel mask value 0x%X", halChannelMask);
*channelMask = toString(xsd::AudioChannelMask::AUDIO_CHANNEL_NONE);
return BAD_VALUE;
}
status_t HidlUtils::audioOutputChannelMaskFromHal(audio_channel_mask_t halChannelMask,
AudioChannelMask* channelMask) {
*channelMask = audio_channel_out_mask_to_string(halChannelMask);
if (!channelMask->empty() && !xsd::isUnknownAudioChannelMask(*channelMask)) {
return NO_ERROR;
}
ALOGE("Unknown output channel mask value 0x%X", halChannelMask);
*channelMask = toString(xsd::AudioChannelMask::AUDIO_CHANNEL_NONE);
return BAD_VALUE;
}
status_t HidlUtils::audioChannelMaskFromHal(audio_channel_mask_t halChannelMask, bool isInput,
AudioChannelMask* channelMask) {
if (halChannelMask != AUDIO_CHANNEL_NONE) {
if (audio_channel_mask_is_valid(halChannelMask)) {
switch (audio_channel_mask_get_representation(halChannelMask)) {
case AUDIO_CHANNEL_REPRESENTATION_POSITION:
return isInput ? audioInputChannelMaskFromHal(halChannelMask, channelMask)
: audioOutputChannelMaskFromHal(halChannelMask, channelMask);
case AUDIO_CHANNEL_REPRESENTATION_INDEX:
// Index masks do not have direction.
return audioIndexChannelMaskFromHal(halChannelMask, channelMask);
// no default
}
}
*channelMask = toString(xsd::AudioChannelMask::AUDIO_CHANNEL_NONE);
return BAD_VALUE;
}
*channelMask = toString(xsd::AudioChannelMask::AUDIO_CHANNEL_NONE);
return NO_ERROR;
}
status_t HidlUtils::audioChannelMasksFromHal(const std::vector<std::string>& halChannelMasks,
hidl_vec<AudioChannelMask>* channelMasks) {
hidl_vec<AudioChannelMask> tempChannelMasks;
tempChannelMasks.resize(halChannelMasks.size());
size_t tempPos = 0;
for (const auto& halChannelMask : halChannelMasks) {
if (!halChannelMask.empty() && !xsd::isUnknownAudioChannelMask(halChannelMask)) {
tempChannelMasks[tempPos++] = halChannelMask;
}
}
if (tempPos == tempChannelMasks.size()) {
*channelMasks = std::move(tempChannelMasks);
} else {
*channelMasks = hidl_vec<AudioChannelMask>(tempChannelMasks.begin(),
tempChannelMasks.begin() + tempPos);
}
return halChannelMasks.size() == channelMasks->size() ? NO_ERROR : BAD_VALUE;
}
status_t HidlUtils::audioChannelMaskToHal(const AudioChannelMask& channelMask,
audio_channel_mask_t* halChannelMask) {
if (!xsd::isUnknownAudioChannelMask(channelMask) &&
audio_channel_mask_from_string(channelMask.c_str(), halChannelMask)) {
return NO_ERROR;
}
ALOGE("Unknown channel mask \"%s\"", channelMask.c_str());
*halChannelMask = AUDIO_CHANNEL_NONE;
return BAD_VALUE;
}
status_t HidlUtils::audioConfigBaseFromHal(const audio_config_base_t& halConfigBase, bool isInput,
AudioConfigBase* configBase) {
status_t result = NO_ERROR;
configBase->sampleRateHz = halConfigBase.sample_rate;
CONVERT_CHECKED(
audioChannelMaskFromHal(halConfigBase.channel_mask, isInput, &configBase->channelMask),
result);
CONVERT_CHECKED(audioFormatFromHal(halConfigBase.format, &configBase->format), result);
return result;
}
status_t HidlUtils::audioConfigBaseToHal(const AudioConfigBase& configBase,
audio_config_base_t* halConfigBase) {
status_t result = NO_ERROR;
halConfigBase->sample_rate = configBase.sampleRateHz;
CONVERT_CHECKED(audioChannelMaskToHal(configBase.channelMask, &halConfigBase->channel_mask),
result);
CONVERT_CHECKED(audioFormatToHal(configBase.format, &halConfigBase->format), result);
return result;
}
status_t HidlUtils::audioConfigBaseOptionalFromHal(const audio_config_base_t& halConfigBase,
bool isInput, bool formatSpecified,
bool sampleRateSpecified,
bool channelMaskSpecified,
AudioConfigBaseOptional* configBase) {
status_t result = NO_ERROR;
if (formatSpecified) {
AudioFormat value;
CONVERT_CHECKED(audioFormatFromHal(halConfigBase.format, &value), result);
configBase->format.value(std::move(value));
} else {
configBase->format.unspecified({});
}
if (sampleRateSpecified) {
configBase->sampleRateHz.value(halConfigBase.sample_rate);
} else {
configBase->sampleRateHz.unspecified({});
}
if (channelMaskSpecified) {
AudioChannelMask value;
CONVERT_CHECKED(audioChannelMaskFromHal(halConfigBase.channel_mask, isInput, &value),
result);
configBase->channelMask.value(std::move(value));
}
return result;
}
status_t HidlUtils::audioConfigBaseOptionalToHal(const AudioConfigBaseOptional& configBase,
audio_config_base_t* halConfigBase,
bool* formatSpecified, bool* sampleRateSpecified,
bool* channelMaskSpecified) {
status_t result = NO_ERROR;
*formatSpecified = configBase.format.getDiscriminator() ==
AudioConfigBaseOptional::Format::hidl_discriminator::value;
if (*formatSpecified) {
CONVERT_CHECKED(audioFormatToHal(configBase.format.value(), &halConfigBase->format),
result);
}
*sampleRateSpecified = configBase.sampleRateHz.getDiscriminator() ==
AudioConfigBaseOptional::SampleRate::hidl_discriminator::value;
if (*sampleRateSpecified) {
halConfigBase->sample_rate = configBase.sampleRateHz.value();
}
*channelMaskSpecified = configBase.channelMask.getDiscriminator() ==
AudioConfigBaseOptional::ChannelMask::hidl_discriminator::value;
if (*channelMaskSpecified) {
CONVERT_CHECKED(
audioChannelMaskToHal(configBase.channelMask.value(), &halConfigBase->channel_mask),
result);
}
return result;
}
status_t HidlUtils::audioContentTypeFromHal(const audio_content_type_t halContentType,
AudioContentType* contentType) {
*contentType = audio_content_type_to_string(halContentType);
if (!contentType->empty() && !xsd::isUnknownAudioContentType(*contentType)) {
return NO_ERROR;
}
ALOGE("Unknown audio content type value 0x%X", halContentType);
*contentType = toString(xsd::AudioContentType::AUDIO_CONTENT_TYPE_UNKNOWN);
return BAD_VALUE;
}
status_t HidlUtils::audioContentTypeToHal(const AudioContentType& contentType,
audio_content_type_t* halContentType) {
if (!xsd::isUnknownAudioContentType(contentType) &&
audio_content_type_from_string(contentType.c_str(), halContentType)) {
return NO_ERROR;
}
ALOGE("Unknown audio content type \"%s\"", contentType.c_str());
*halContentType = AUDIO_CONTENT_TYPE_UNKNOWN;
return BAD_VALUE;
}
status_t HidlUtils::audioDeviceTypeFromHal(audio_devices_t halDevice, AudioDevice* device) {
*device = audio_device_to_string(halDevice);
if (!device->empty() && !xsd::isUnknownAudioDevice(*device)) {
return NO_ERROR;
}
ALOGE("Unknown audio device value 0x%X", halDevice);
*device = toString(xsd::AudioDevice::AUDIO_DEVICE_NONE);
return BAD_VALUE;
}
status_t HidlUtils::audioDeviceTypeToHal(const AudioDevice& device, audio_devices_t* halDevice) {
if (!xsd::isUnknownAudioDevice(device) && audio_device_from_string(device.c_str(), halDevice)) {
return NO_ERROR;
}
ALOGE("Unknown audio device \"%s\"", device.c_str());
*halDevice = AUDIO_DEVICE_NONE;
return BAD_VALUE;
}
status_t HidlUtils::audioFormatFromHal(audio_format_t halFormat, AudioFormat* format) {
*format = audio_format_to_string(halFormat);
if (!format->empty() && !xsd::isUnknownAudioFormat(*format)) {
return NO_ERROR;
}
ALOGE("Unknown audio format value 0x%X", halFormat);
return BAD_VALUE;
}
status_t HidlUtils::audioFormatsFromHal(const std::vector<std::string>& halFormats,
hidl_vec<AudioFormat>* formats) {
hidl_vec<AudioFormat> tempFormats;
tempFormats.resize(halFormats.size());
size_t tempPos = 0;
for (const auto& halFormat : halFormats) {
if (!halFormat.empty() && !xsd::isUnknownAudioFormat(halFormat)) {
tempFormats[tempPos++] = halFormat;
}
}
if (tempPos == tempFormats.size()) {
*formats = std::move(tempFormats);
} else {
*formats = hidl_vec<AudioFormat>(tempFormats.begin(), tempFormats.begin() + tempPos);
}
return halFormats.size() == formats->size() ? NO_ERROR : BAD_VALUE;
}
status_t HidlUtils::audioFormatToHal(const AudioFormat& format, audio_format_t* halFormat) {
if (!xsd::isUnknownAudioFormat(format) && audio_format_from_string(format.c_str(), halFormat)) {
return NO_ERROR;
}
ALOGE("Unknown audio format \"%s\"", format.c_str());
*halFormat = AUDIO_FORMAT_DEFAULT;
return BAD_VALUE;
}
status_t HidlUtils::audioGainModeMaskFromHal(audio_gain_mode_t halGainModeMask,
hidl_vec<AudioGainMode>* gainModeMask) {
status_t status = NO_ERROR;
std::vector<AudioGainMode> result;
for (uint32_t bit = 0; halGainModeMask != 0 && bit < sizeof(audio_gain_mode_t) * 8; ++bit) {
audio_gain_mode_t flag = static_cast<audio_gain_mode_t>(1u << bit);
if ((flag & halGainModeMask) == flag) {
AudioGainMode flagStr = audio_gain_mode_to_string(flag);
if (!flagStr.empty() && !xsd::isUnknownAudioGainMode(flagStr)) {
result.push_back(flagStr);
} else {
ALOGE("Unknown audio gain mode value 0x%X", flag);
status = BAD_VALUE;
}
halGainModeMask = static_cast<audio_gain_mode_t>(halGainModeMask & ~flag);
}
}
*gainModeMask = result;
return status;
}
status_t HidlUtils::audioGainModeMaskToHal(const hidl_vec<AudioGainMode>& gainModeMask,
audio_gain_mode_t* halGainModeMask) {
status_t status = NO_ERROR;
*halGainModeMask = {};
for (const auto& gainMode : gainModeMask) {
audio_gain_mode_t halGainMode;
if (!xsd::isUnknownAudioGainMode(gainMode) &&
audio_gain_mode_from_string(gainMode.c_str(), &halGainMode)) {
*halGainModeMask = static_cast<audio_gain_mode_t>(*halGainModeMask | halGainMode);
} else {
ALOGE("Unknown audio gain mode \"%s\"", gainMode.c_str());
status = BAD_VALUE;
}
}
return status;
}
status_t HidlUtils::audioSourceFromHal(audio_source_t halSource, AudioSource* source) {
*source = audio_source_to_string(halSource);
if (!source->empty() && !xsd::isUnknownAudioSource(*source)) {
return NO_ERROR;
}
ALOGE("Unknown audio source value 0x%X", halSource);
*source = toString(xsd::AudioSource::AUDIO_SOURCE_DEFAULT);
return BAD_VALUE;
}
status_t HidlUtils::audioSourceToHal(const AudioSource& source, audio_source_t* halSource) {
if (!xsd::isUnknownAudioSource(source) && audio_source_from_string(source.c_str(), halSource)) {
return NO_ERROR;
}
ALOGE("Unknown audio source \"%s\"", source.c_str());
*halSource = AUDIO_SOURCE_DEFAULT;
return BAD_VALUE;
}
// The "default" value of audio_stream_type_t is represented by an empty string.
status_t HidlUtils::audioStreamTypeFromHal(audio_stream_type_t halStreamType,
AudioStreamType* streamType) {
if (halStreamType != AUDIO_STREAM_DEFAULT) {
*streamType = audio_stream_type_to_string(halStreamType);
if (!streamType->empty() && !xsd::isUnknownAudioStreamType(*streamType)) {
return NO_ERROR;
}
ALOGE("Unknown audio stream type value 0x%X", halStreamType);
return BAD_VALUE;
} else {
*streamType = "";
return NO_ERROR;
}
}
status_t HidlUtils::audioStreamTypeToHal(const AudioStreamType& streamType,
audio_stream_type_t* halStreamType) {
if (!streamType.empty()) {
if (!xsd::isUnknownAudioStreamType(streamType) &&
audio_stream_type_from_string(streamType.c_str(), halStreamType)) {
return NO_ERROR;
}
ALOGE("Unknown audio stream type \"%s\"", streamType.c_str());
return BAD_VALUE;
} else {
*halStreamType = AUDIO_STREAM_DEFAULT;
return NO_ERROR;
}
}
status_t HidlUtils::audioConfigFromHal(const audio_config_t& halConfig, bool isInput,
AudioConfig* config) {
status_t result = NO_ERROR;
audio_config_base_t halConfigBase = {halConfig.sample_rate, halConfig.channel_mask,
halConfig.format};
CONVERT_CHECKED(audioConfigBaseFromHal(halConfigBase, isInput, &config->base), result);
if (halConfig.offload_info.sample_rate != 0) {
config->offloadInfo.info({});
CONVERT_CHECKED(
audioOffloadInfoFromHal(halConfig.offload_info, &config->offloadInfo.info()),
result);
}
config->frameCount = halConfig.frame_count;
return result;
}
status_t HidlUtils::audioConfigToHal(const AudioConfig& config, audio_config_t* halConfig) {
status_t result = NO_ERROR;
*halConfig = AUDIO_CONFIG_INITIALIZER;
audio_config_base_t halConfigBase = AUDIO_CONFIG_BASE_INITIALIZER;
CONVERT_CHECKED(audioConfigBaseToHal(config.base, &halConfigBase), result);
halConfig->sample_rate = halConfigBase.sample_rate;
halConfig->channel_mask = halConfigBase.channel_mask;
halConfig->format = halConfigBase.format;
if (config.offloadInfo.getDiscriminator() ==
AudioConfig::OffloadInfo::hidl_discriminator::info) {
CONVERT_CHECKED(audioOffloadInfoToHal(config.offloadInfo.info(), &halConfig->offload_info),
result);
}
halConfig->frame_count = config.frameCount;
return result;
}
status_t HidlUtils::audioGainConfigFromHal(const struct audio_gain_config& halConfig, bool isInput,
AudioGainConfig* config) {
status_t result = NO_ERROR;
config->index = halConfig.index;
CONVERT_CHECKED(audioGainModeMaskFromHal(halConfig.mode, &config->mode), result);
CONVERT_CHECKED(audioChannelMaskFromHal(halConfig.channel_mask, isInput, &config->channelMask),
result);
if (halConfig.mode & AUDIO_GAIN_MODE_JOINT) {
config->values.resize(1);
config->values[0] = halConfig.values[0];
}
if (halConfig.mode & (AUDIO_GAIN_MODE_CHANNELS | AUDIO_GAIN_MODE_RAMP)) {
config->values.resize(__builtin_popcount(halConfig.channel_mask));
for (size_t i = 0; i < config->values.size(); ++i) {
config->values[i] = halConfig.values[i];
}
}
config->rampDurationMs = halConfig.ramp_duration_ms;
return result;
}
status_t HidlUtils::audioGainConfigToHal(const AudioGainConfig& config,
struct audio_gain_config* halConfig) {
status_t result = NO_ERROR;
halConfig->index = config.index;
CONVERT_CHECKED(audioGainModeMaskToHal(config.mode, &halConfig->mode), result);
CONVERT_CHECKED(audioChannelMaskToHal(config.channelMask, &halConfig->channel_mask), result);
memset(halConfig->values, 0, sizeof(halConfig->values));
if (halConfig->mode & AUDIO_GAIN_MODE_JOINT) {
if (config.values.size() > 0) {
halConfig->values[0] = config.values[0];
} else {
ALOGE("Empty values vector in AudioGainConfig");
result = BAD_VALUE;
}
}
if (halConfig->mode & (AUDIO_GAIN_MODE_CHANNELS | AUDIO_GAIN_MODE_RAMP)) {
size_t channelCount = __builtin_popcount(halConfig->channel_mask);
size_t valuesCount = config.values.size();
if (channelCount != valuesCount) {
ALOGE("Wrong number of values in AudioGainConfig, expected: %zu, found: %zu",
channelCount, valuesCount);
result = BAD_VALUE;
if (channelCount < valuesCount) {
valuesCount = channelCount;
}
}
for (size_t i = 0; i < valuesCount; ++i) {
halConfig->values[i] = config.values[i];
}
}
halConfig->ramp_duration_ms = config.rampDurationMs;
return result;
}
status_t HidlUtils::audioGainFromHal(const struct audio_gain& halGain, bool isInput,
AudioGain* gain) {
status_t result = NO_ERROR;
CONVERT_CHECKED(audioGainModeMaskFromHal(halGain.mode, &gain->mode), result);
CONVERT_CHECKED(audioChannelMaskFromHal(halGain.channel_mask, isInput, &gain->channelMask),
result);
gain->minValue = halGain.min_value;
gain->maxValue = halGain.max_value;
gain->defaultValue = halGain.default_value;
gain->stepValue = halGain.step_value;
gain->minRampMs = halGain.min_ramp_ms;
gain->maxRampMs = halGain.max_ramp_ms;
return result;
}
status_t HidlUtils::audioGainToHal(const AudioGain& gain, struct audio_gain* halGain) {
status_t result = NO_ERROR;
CONVERT_CHECKED(audioGainModeMaskToHal(gain.mode, &halGain->mode), result);
CONVERT_CHECKED(audioChannelMaskToHal(gain.channelMask, &halGain->channel_mask), result);
halGain->min_value = gain.minValue;
halGain->max_value = gain.maxValue;
halGain->default_value = gain.defaultValue;
halGain->step_value = gain.stepValue;
halGain->min_ramp_ms = gain.minRampMs;
halGain->max_ramp_ms = gain.maxRampMs;
return result;
}
status_t HidlUtils::audioUsageFromHal(audio_usage_t halUsage, AudioUsage* usage) {
if (halUsage == AUDIO_USAGE_NOTIFICATION_COMMUNICATION_REQUEST ||
halUsage == AUDIO_USAGE_NOTIFICATION_COMMUNICATION_INSTANT ||
#if MAJOR_VERSION == 7 && MINOR_VERSION == 1
halUsage == AUDIO_USAGE_NOTIFICATION_COMMUNICATION_DELAYED) {
#else
halUsage == AUDIO_USAGE_NOTIFICATION_COMMUNICATION_DELAYED ||
halUsage == AUDIO_USAGE_NOTIFICATION_EVENT) {
#endif
halUsage = AUDIO_USAGE_NOTIFICATION;
}
*usage = audio_usage_to_string(halUsage);
if (!usage->empty() && !xsd::isUnknownAudioUsage(*usage)) {
return NO_ERROR;
}
ALOGE("Unknown audio usage %d", halUsage);
*usage = toString(xsd::AudioUsage::AUDIO_USAGE_UNKNOWN);
return BAD_VALUE;
}
status_t HidlUtils::audioUsageToHal(const AudioUsage& usage, audio_usage_t* halUsage) {
if (!xsd::isUnknownAudioUsage(usage) && audio_usage_from_string(usage.c_str(), halUsage)) {
return NO_ERROR;
}
ALOGE("Unknown audio usage \"%s\"", usage.c_str());
*halUsage = AUDIO_USAGE_UNKNOWN;
return BAD_VALUE;
}
status_t HidlUtils::audioOffloadInfoFromHal(const audio_offload_info_t& halOffload,
AudioOffloadInfo* offload) {
status_t result = NO_ERROR;
audio_config_base_t halConfigBase = {halOffload.sample_rate, halOffload.channel_mask,
halOffload.format};
CONVERT_CHECKED(audioConfigBaseFromHal(halConfigBase, false /*isInput*/, &offload->base),
result);
CONVERT_CHECKED(audioStreamTypeFromHal(halOffload.stream_type, &offload->streamType), result);
offload->bitRatePerSecond = halOffload.bit_rate;
offload->durationMicroseconds = halOffload.duration_us;
offload->hasVideo = halOffload.has_video;
offload->isStreaming = halOffload.is_streaming;
offload->bitWidth = halOffload.bit_width;
offload->bufferSize = halOffload.offload_buffer_size;
CONVERT_CHECKED(audioUsageFromHal(halOffload.usage, &offload->usage), result);
if (halOffload.version >= AUDIO_OFFLOAD_INFO_VERSION_0_2) {
offload->encapsulationMode =
static_cast<AudioEncapsulationMode>(halOffload.encapsulation_mode);
offload->contentId = halOffload.content_id;
offload->syncId = halOffload.sync_id;
} else {
offload->encapsulationMode = AudioEncapsulationMode::NONE;
offload->contentId = 0;
offload->syncId = 0;
}
return result;
}
status_t HidlUtils::audioOffloadInfoToHal(const AudioOffloadInfo& offload,
audio_offload_info_t* halOffload) {
status_t result = NO_ERROR;
*halOffload = AUDIO_INFO_INITIALIZER;
audio_config_base_t halConfigBase = AUDIO_CONFIG_BASE_INITIALIZER;
CONVERT_CHECKED(audioConfigBaseToHal(offload.base, &halConfigBase), result);
halOffload->sample_rate = halConfigBase.sample_rate;
halOffload->channel_mask = halConfigBase.channel_mask;
halOffload->format = halConfigBase.format;
CONVERT_CHECKED(audioStreamTypeToHal(offload.streamType, &halOffload->stream_type), result);
halOffload->bit_rate = offload.bitRatePerSecond;
halOffload->duration_us = offload.durationMicroseconds;
halOffload->has_video = offload.hasVideo;
halOffload->is_streaming = offload.isStreaming;
halOffload->bit_width = offload.bitWidth;
halOffload->offload_buffer_size = offload.bufferSize;
CONVERT_CHECKED(audioUsageToHal(offload.usage, &halOffload->usage), result);
halOffload->encapsulation_mode =
static_cast<audio_encapsulation_mode_t>(offload.encapsulationMode);
halOffload->content_id = offload.contentId;
halOffload->sync_id = offload.syncId;
return result;
}
status_t HidlUtils::audioPortConfigFromHal(const struct audio_port_config& halConfig,
AudioPortConfig* config) {
status_t result = NO_ERROR;
bool isInput = false;
config->id = halConfig.id;
CONVERT_CHECKED(audioPortExtendedInfoFromHal(halConfig.role, halConfig.type,
halConfig.ext.device, halConfig.ext.mix,
halConfig.ext.session, &config->ext, &isInput),
result);
if (audio_port_config_has_input_direction(&halConfig) != isInput) {
ALOGE("Inconsistent port config direction data, is input: %d (hal) != %d (converter)",
audio_port_config_has_input_direction(&halConfig), isInput);
result = BAD_VALUE;
}
audio_config_base_t halConfigBase = {halConfig.sample_rate, halConfig.channel_mask,
halConfig.format};
CONVERT_CHECKED(
audioConfigBaseOptionalFromHal(
halConfigBase, isInput, halConfig.config_mask & AUDIO_PORT_CONFIG_FORMAT,
halConfig.config_mask & AUDIO_PORT_CONFIG_SAMPLE_RATE,
halConfig.config_mask & AUDIO_PORT_CONFIG_CHANNEL_MASK, &config->base),
result);
if (halConfig.config_mask & AUDIO_PORT_CONFIG_GAIN) {
config->gain.config({});
CONVERT_CHECKED(audioGainConfigFromHal(halConfig.gain, isInput, &config->gain.config()),
result);
} else {
config->gain.unspecified({});
}
return result;
}
status_t HidlUtils::audioPortConfigToHal(const AudioPortConfig& config,
struct audio_port_config* halConfig) {
status_t result = NO_ERROR;
memset(halConfig, 0, sizeof(audio_port_config));
halConfig->id = config.id;
halConfig->config_mask = 0;
audio_config_base_t halConfigBase = AUDIO_CONFIG_BASE_INITIALIZER;
bool formatSpecified = false, sRateSpecified = false, channelMaskSpecified = false;
CONVERT_CHECKED(audioConfigBaseOptionalToHal(config.base, &halConfigBase, &formatSpecified,
&sRateSpecified, &channelMaskSpecified),
result);
if (sRateSpecified) {
halConfig->config_mask |= AUDIO_PORT_CONFIG_SAMPLE_RATE;
halConfig->sample_rate = halConfigBase.sample_rate;
}
if (channelMaskSpecified) {
halConfig->config_mask |= AUDIO_PORT_CONFIG_CHANNEL_MASK;
halConfig->channel_mask = halConfigBase.channel_mask;
}
if (formatSpecified) {
halConfig->config_mask |= AUDIO_PORT_CONFIG_FORMAT;
halConfig->format = halConfigBase.format;
}
if (config.gain.getDiscriminator() ==
AudioPortConfig::OptionalGain::hidl_discriminator::config) {
halConfig->config_mask |= AUDIO_PORT_CONFIG_GAIN;
CONVERT_CHECKED(audioGainConfigToHal(config.gain.config(), &halConfig->gain), result);
}
CONVERT_CHECKED(audioPortExtendedInfoToHal(config.ext, &halConfig->role, &halConfig->type,
&halConfig->ext.device, &halConfig->ext.mix,
&halConfig->ext.session),
result);
return result;
}
status_t HidlUtils::audioPortExtendedInfoFromHal(
audio_port_role_t role, audio_port_type_t type,
const struct audio_port_config_device_ext& device,
const struct audio_port_config_mix_ext& mix,
const struct audio_port_config_session_ext& session, AudioPortExtendedInfo* ext,
bool* isInput) {
status_t result = NO_ERROR;
*isInput = false;
switch (type) {
case AUDIO_PORT_TYPE_NONE:
ext->unspecified({});
break;
case AUDIO_PORT_TYPE_DEVICE: {
*isInput = role == AUDIO_PORT_ROLE_SOURCE;
ext->device({});
CONVERT_CHECKED(deviceAddressFromHal(device.type, device.address, &ext->device()),
result);
break;
}
case AUDIO_PORT_TYPE_MIX: {
*isInput = role == AUDIO_PORT_ROLE_SINK;
ext->mix({});
ext->mix().ioHandle = mix.handle;
if (role == AUDIO_PORT_ROLE_SOURCE) {
ext->mix().useCase.stream({});
CONVERT_CHECKED(
audioStreamTypeFromHal(mix.usecase.stream, &ext->mix().useCase.stream()),
result);
} else if (role == AUDIO_PORT_ROLE_SINK) {
ext->mix().useCase.source({});
CONVERT_CHECKED(
audioSourceFromHal(mix.usecase.source, &ext->mix().useCase.source()),
result);
}
break;
}
case AUDIO_PORT_TYPE_SESSION: {
ext->session(session.session);
break;
}
}
return result;
}
status_t HidlUtils::audioPortExtendedInfoToHal(const AudioPortExtendedInfo& ext,
audio_port_role_t* role, audio_port_type_t* type,
struct audio_port_config_device_ext* device,
struct audio_port_config_mix_ext* mix,
struct audio_port_config_session_ext* session) {
status_t result = NO_ERROR;
switch (ext.getDiscriminator()) {
case AudioPortExtendedInfo::hidl_discriminator::unspecified:
*role = AUDIO_PORT_ROLE_NONE;
*type = AUDIO_PORT_TYPE_NONE;
break;
case AudioPortExtendedInfo::hidl_discriminator::device:
*role = xsd::isOutputDevice(ext.device().deviceType) ? AUDIO_PORT_ROLE_SINK
: AUDIO_PORT_ROLE_SOURCE;
*type = AUDIO_PORT_TYPE_DEVICE;
CONVERT_CHECKED(deviceAddressToHal(ext.device(), &device->type, device->address),
result);
break;
case AudioPortExtendedInfo::hidl_discriminator::mix:
*type = AUDIO_PORT_TYPE_MIX;
switch (ext.mix().useCase.getDiscriminator()) {
case AudioPortExtendedInfo::AudioPortMixExt::UseCase::hidl_discriminator::stream:
*role = AUDIO_PORT_ROLE_SOURCE;
CONVERT_CHECKED(
audioStreamTypeToHal(ext.mix().useCase.stream(), &mix->usecase.stream),
result);
break;
case AudioPortExtendedInfo::AudioPortMixExt::UseCase::hidl_discriminator::source:
*role = AUDIO_PORT_ROLE_SINK;
CONVERT_CHECKED(
audioSourceToHal(ext.mix().useCase.source(), &mix->usecase.source),
result);
break;
}
mix->handle = ext.mix().ioHandle;
break;
case AudioPortExtendedInfo::hidl_discriminator::session:
*role = AUDIO_PORT_ROLE_NONE;
*type = AUDIO_PORT_TYPE_SESSION;
session->session = static_cast<audio_session_t>(ext.session());
break;
}
return result;
}
status_t HidlUtils::encapsulationTypeFromHal(audio_encapsulation_type_t halEncapsulationType,
AudioEncapsulationType* encapsulationType) {
*encapsulationType = audio_encapsulation_type_to_string(halEncapsulationType);
if (!encapsulationType->empty() && !xsd::isUnknownAudioEncapsulationType(*encapsulationType)) {
return NO_ERROR;
}
ALOGE("Unknown audio encapsulation type value 0x%X", halEncapsulationType);
return BAD_VALUE;
}
status_t HidlUtils::encapsulationTypeToHal(const AudioEncapsulationType& encapsulationType,
audio_encapsulation_type_t* halEncapsulationType) {
if (!xsd::isUnknownAudioEncapsulationType(encapsulationType) &&
audio_encapsulation_type_from_string(encapsulationType.c_str(), halEncapsulationType)) {
return NO_ERROR;
}
ALOGE("Unknown audio encapsulation type \"%s\"", encapsulationType.c_str());
*halEncapsulationType = AUDIO_ENCAPSULATION_TYPE_NONE;
return BAD_VALUE;
}
status_t HidlUtils::audioPortFromHal(const struct audio_port& halPort, AudioPort* port) {
struct audio_port_v7 halPortV7 = {};
audio_populate_audio_port_v7(&halPort, &halPortV7);
return audioPortFromHal(halPortV7, port);
}
status_t HidlUtils::audioPortToHal(const AudioPort& port, struct audio_port* halPort) {
status_t result = NO_ERROR;
struct audio_port_v7 halPortV7 = {};
CONVERT_CHECKED(audioPortToHal(port, &halPortV7), result);
if (!audio_populate_audio_port(&halPortV7, halPort)) {
result = BAD_VALUE;
}
return result;
}
status_t HidlUtils::audioPortFromHal(const struct audio_port_v7& halPort, AudioPort* port) {
status_t result = NO_ERROR;
bool isInput = false;
port->id = halPort.id;
port->name.setToExternal(halPort.name, strlen(halPort.name));
// HAL uses slightly different but convertible structures for the extended info in port
// and port config structures.
struct audio_port_config_device_ext halDevice = {};
struct audio_port_config_mix_ext halMix = {};
struct audio_port_config_session_ext halSession = {};
switch (halPort.type) {
case AUDIO_PORT_TYPE_NONE:
break;
case AUDIO_PORT_TYPE_DEVICE:
halDevice.type = halPort.ext.device.type;
memcpy(halDevice.address, halPort.ext.device.address, AUDIO_DEVICE_MAX_ADDRESS_LEN);
break;
case AUDIO_PORT_TYPE_MIX:
halMix.handle = halPort.ext.mix.handle;
break;
case AUDIO_PORT_TYPE_SESSION:
halSession.session = halPort.ext.session.session;
break;
}
CONVERT_CHECKED(audioPortExtendedInfoFromHal(halPort.role, halPort.type, halDevice, halMix,
halSession, &port->ext, &isInput),
result);
CONVERT_CHECKED(audioTransportsFromHal(halPort, isInput, &port->transports), result);
port->gains.resize(halPort.num_gains);
for (size_t i = 0; i < halPort.num_gains; ++i) {
CONVERT_CHECKED(audioGainFromHal(halPort.gains[i], isInput, &port->gains[i]), result);
}
CONVERT_CHECKED(audioPortConfigFromHal(halPort.active_config, &port->activeConfig), result);
return result;
}
status_t HidlUtils::audioPortToHal(const AudioPort& port, struct audio_port_v7* halPort) {
status_t result = NO_ERROR;
halPort->id = port.id;
strncpy(halPort->name, port.name.c_str(), AUDIO_PORT_MAX_NAME_LEN);
halPort->name[AUDIO_PORT_MAX_NAME_LEN - 1] = '\0';
if (port.name.size() >= AUDIO_PORT_MAX_NAME_LEN) {
ALOGE("HIDL Audio Port name is too long: %zu", port.name.size());
result = BAD_VALUE;
}
CONVERT_CHECKED(audioTransportsToHal(port.transports, halPort), result);
halPort->num_gains = port.gains.size();
if (halPort->num_gains > AUDIO_PORT_MAX_GAINS) {
ALOGE("HIDL Audio Port has too many gains: %u", halPort->num_gains);
halPort->num_gains = AUDIO_PORT_MAX_GAINS;
result = BAD_VALUE;
}
for (size_t i = 0; i < halPort->num_gains; ++i) {
CONVERT_CHECKED(audioGainToHal(port.gains[i], &halPort->gains[i]), result);
}
// HAL uses slightly different but convertible structures for the extended info in port
// and port config structures.
struct audio_port_config_device_ext halDevice = {};
struct audio_port_config_mix_ext halMix = {};
struct audio_port_config_session_ext halSession = {};
CONVERT_CHECKED(audioPortExtendedInfoToHal(port.ext, &halPort->role, &halPort->type, &halDevice,
&halMix, &halSession),
result);
switch (halPort->type) {
case AUDIO_PORT_TYPE_NONE:
break;
case AUDIO_PORT_TYPE_DEVICE:
halPort->ext.device.type = halDevice.type;
memcpy(halPort->ext.device.address, halDevice.address, AUDIO_DEVICE_MAX_ADDRESS_LEN);
break;
case AUDIO_PORT_TYPE_MIX:
halPort->ext.mix.handle = halMix.handle;
break;
case AUDIO_PORT_TYPE_SESSION:
halPort->ext.session.session = halSession.session;
break;
}
CONVERT_CHECKED(audioPortConfigToHal(port.activeConfig, &halPort->active_config), result);
return result;
}
status_t HidlUtils::audioTransportsFromHal(const struct audio_port_v7& halPort, bool isInput,
hidl_vec<AudioTransport>* transports) {
if (halPort.num_audio_profiles > AUDIO_PORT_MAX_AUDIO_PROFILES ||
halPort.num_extra_audio_descriptors > AUDIO_PORT_MAX_EXTRA_AUDIO_DESCRIPTORS) {
ALOGE("%s, too many audio profiles(%u) or extra audio descriptors(%u)", __func__,
halPort.num_audio_profiles, halPort.num_extra_audio_descriptors);
return BAD_VALUE;
}
status_t result = NO_ERROR;
transports->resize(halPort.num_audio_profiles + halPort.num_extra_audio_descriptors);
size_t idx = 0;
for (size_t i = 0; i < halPort.num_audio_profiles; ++i) {
auto& transport = (*transports)[idx++];
transport.audioCapability.profile({});
CONVERT_CHECKED(audioProfileFromHal(halPort.audio_profiles[i], isInput,
&transport.audioCapability.profile()),
result);
CONVERT_CHECKED(encapsulationTypeFromHal(halPort.audio_profiles[i].encapsulation_type,
&transport.encapsulationType),
result);
}
for (size_t i = 0; i < halPort.num_extra_audio_descriptors; ++i) {
switch (halPort.extra_audio_descriptors[i].standard) {
case AUDIO_STANDARD_EDID: {
const struct audio_extra_audio_descriptor* extraAudioDescriptor =
&halPort.extra_audio_descriptors[i];
if (extraAudioDescriptor->descriptor_length <= EXTRA_AUDIO_DESCRIPTOR_SIZE) {
auto& transport = (*transports)[idx++];
transport.audioCapability.edid(
hidl_vec<uint8_t>(extraAudioDescriptor->descriptor,
extraAudioDescriptor->descriptor +
extraAudioDescriptor->descriptor_length));
CONVERT_CHECKED(
encapsulationTypeFromHal(extraAudioDescriptor->encapsulation_type,
&transport.encapsulationType),
result);
} else {
ALOGE("%s, invalid descriptor length %u", __func__,
extraAudioDescriptor->descriptor_length);
result = BAD_VALUE;
}
} break;
case AUDIO_STANDARD_NONE:
default:
ALOGE("%s, invalid standard %u", __func__,
halPort.extra_audio_descriptors[i].standard);
result = BAD_VALUE;
break;
}
}
return result;
}
status_t HidlUtils::audioTransportsToHal(const hidl_vec<AudioTransport>& transports,
struct audio_port_v7* halPort) {
status_t result = NO_ERROR;
halPort->num_audio_profiles = 0;
halPort->num_extra_audio_descriptors = 0;
for (const auto& transport : transports) {
switch (transport.audioCapability.getDiscriminator()) {
case AudioTransport::AudioCapability::hidl_discriminator::profile:
if (halPort->num_audio_profiles >= AUDIO_PORT_MAX_AUDIO_PROFILES) {
ALOGE("%s, too many audio profiles", __func__);
result = BAD_VALUE;
break;
}
CONVERT_CHECKED(
audioProfileToHal(transport.audioCapability.profile(),
&halPort->audio_profiles[halPort->num_audio_profiles]),
result);
CONVERT_CHECKED(encapsulationTypeToHal(
transport.encapsulationType,
&halPort->audio_profiles[halPort->num_audio_profiles++]
.encapsulation_type),
result);
break;
case AudioTransport::AudioCapability::hidl_discriminator::edid:
if (halPort->num_extra_audio_descriptors >=
AUDIO_PORT_MAX_EXTRA_AUDIO_DESCRIPTORS) {
ALOGE("%s, too many extra audio descriptors", __func__);
result = BAD_VALUE;
break;
}
if (transport.audioCapability.edid().size() > EXTRA_AUDIO_DESCRIPTOR_SIZE) {
ALOGE("%s, wrong edid size %zu", __func__,
transport.audioCapability.edid().size());
result = BAD_VALUE;
break;
}
struct audio_extra_audio_descriptor* extraAudioDescriptor =
&halPort->extra_audio_descriptors[halPort->num_extra_audio_descriptors++];
extraAudioDescriptor->standard = AUDIO_STANDARD_EDID;
extraAudioDescriptor->descriptor_length = transport.audioCapability.edid().size();
memcpy(extraAudioDescriptor->descriptor, transport.audioCapability.edid().data(),
transport.audioCapability.edid().size() * sizeof(uint8_t));
CONVERT_CHECKED(encapsulationTypeToHal(transport.encapsulationType,
&extraAudioDescriptor->encapsulation_type),
result);
break;
}
}
return result;
}
status_t HidlUtils::audioProfileFromHal(const struct audio_profile& halProfile, bool isInput,
AudioProfile* profile) {
status_t result = NO_ERROR;
CONVERT_CHECKED(audioFormatFromHal(halProfile.format, &profile->format), result);
profile->sampleRates.resize(halProfile.num_sample_rates);
for (size_t i = 0; i < halProfile.num_sample_rates; ++i) {
profile->sampleRates[i] = halProfile.sample_rates[i];
}
profile->channelMasks.resize(halProfile.num_channel_masks);
for (size_t i = 0; i < halProfile.num_channel_masks; ++i) {
CONVERT_CHECKED(audioChannelMaskFromHal(halProfile.channel_masks[i], isInput,
&profile->channelMasks[i]),
result);
}
return result;
}
status_t HidlUtils::audioProfileToHal(const AudioProfile& profile,
struct audio_profile* halProfile) {
status_t result = NO_ERROR;
CONVERT_CHECKED(audioFormatToHal(profile.format, &halProfile->format), result);
memset(halProfile->sample_rates, 0, sizeof(halProfile->sample_rates));
halProfile->num_sample_rates = profile.sampleRates.size();
if (halProfile->num_sample_rates > AUDIO_PORT_MAX_SAMPLING_RATES) {
ALOGE("HIDL Audio profile has too many sample rates: %u", halProfile->num_sample_rates);
halProfile->num_sample_rates = AUDIO_PORT_MAX_SAMPLING_RATES;
result = BAD_VALUE;
}
for (size_t i = 0; i < halProfile->num_sample_rates; ++i) {
halProfile->sample_rates[i] = profile.sampleRates[i];
}
memset(halProfile->channel_masks, 0, sizeof(halProfile->channel_masks));
halProfile->num_channel_masks = profile.channelMasks.size();
if (halProfile->num_channel_masks > AUDIO_PORT_MAX_CHANNEL_MASKS) {
ALOGE("HIDL Audio profile has too many channel masks: %u", halProfile->num_channel_masks);
halProfile->num_channel_masks = AUDIO_PORT_MAX_CHANNEL_MASKS;
result = BAD_VALUE;
}
for (size_t i = 0; i < halProfile->num_channel_masks; ++i) {
CONVERT_CHECKED(
audioChannelMaskToHal(profile.channelMasks[i], &halProfile->channel_masks[i]),
status);
}
return result;
}
status_t HidlUtils::audioTagsFromHal(const std::vector<std::string>& strTags,
hidl_vec<AudioTag>* tags) {
status_t result = NO_ERROR;
tags->resize(strTags.size());
size_t to = 0;
for (size_t from = 0; from < strTags.size(); ++from) {
const auto& tag = strTags[from];
if (xsd::isVendorExtension(tag)) {
(*tags)[to++] = tag;
} else {
ALOGE("Vendor extension tag is ill-formed: \"%s\"", tag.c_str());
result = BAD_VALUE;
}
}
if (to != strTags.size()) {
tags->resize(to);
}
return result;
}
status_t HidlUtils::audioTagsToHal(const hidl_vec<AudioTag>& tags, char* halTags) {
memset(halTags, 0, AUDIO_ATTRIBUTES_TAGS_MAX_SIZE);
status_t result = NO_ERROR;
std::ostringstream halTagsBuffer;
bool hasValue = false;
for (const auto& tag : tags) {
if (hasValue) {
halTagsBuffer << sAudioTagSeparator;
}
if (xsd::isVendorExtension(tag) && strchr(tag.c_str(), sAudioTagSeparator) == nullptr) {
halTagsBuffer << tag;
hasValue = true;
} else {
ALOGE("Vendor extension tag is ill-formed: \"%s\"", tag.c_str());
result = BAD_VALUE;
}
}
std::string fullHalTags{std::move(halTagsBuffer.str())};
strncpy(halTags, fullHalTags.c_str(), AUDIO_ATTRIBUTES_TAGS_MAX_SIZE);
CONVERT_CHECKED(fullHalTags.length() <= AUDIO_ATTRIBUTES_TAGS_MAX_SIZE ? NO_ERROR : BAD_VALUE,
result);
return result;
}
hidl_vec<AudioTag> HidlUtils::filterOutNonVendorTags(const hidl_vec<AudioTag>& tags) {
hidl_vec<AudioTag> result;
result.resize(tags.size());
size_t resultIdx = 0;
for (const auto& tag : tags) {
if (xsd::maybeVendorExtension(tag)) {
result[resultIdx++] = tag;
}
}
if (resultIdx != result.size()) {
result.resize(resultIdx);
}
return result;
}
std::vector<std::string> HidlUtils::filterOutNonVendorTags(const std::vector<std::string>& tags) {
std::vector<std::string> result;
std::copy_if(tags.begin(), tags.end(), std::back_inserter(result), xsd::maybeVendorExtension);
return result;
}
std::vector<std::string> HidlUtils::splitAudioTags(const char* halTags) {
return utils::splitString(halTags, sAudioTagSeparator);
}
status_t HidlUtils::deviceAddressFromHal(audio_devices_t halDeviceType,
const char* halDeviceAddress, DeviceAddress* device) {
status_t result = NO_ERROR;
CONVERT_CHECKED(audioDeviceTypeFromHal(halDeviceType, &device->deviceType), result);
if (audio_is_a2dp_out_device(halDeviceType) || audio_is_a2dp_in_device(halDeviceType)) {
device->address.mac({});
if (halDeviceAddress != nullptr) {
auto& mac = device->address.mac();
int status = sscanf(halDeviceAddress, "%hhX:%hhX:%hhX:%hhX:%hhX:%hhX", &mac[0], &mac[1],
&mac[2], &mac[3], &mac[4], &mac[5]);
if (status != 6) {
ALOGE("BT A2DP device \"%s\" MAC address \"%s\" is invalid",
device->deviceType.c_str(), halDeviceAddress);
result = BAD_VALUE;
}
} else {
ALOGE("BT A2DP device \"%s\" does not have a MAC address", halDeviceAddress);
result = BAD_VALUE;
}
} else if (halDeviceType == AUDIO_DEVICE_OUT_IP || halDeviceType == AUDIO_DEVICE_IN_IP) {
device->address.ipv4({});
if (halDeviceAddress != nullptr) {
auto& ipv4 = device->address.ipv4();
int status = sscanf(halDeviceAddress, "%hhu.%hhu.%hhu.%hhu", &ipv4[0], &ipv4[1],
&ipv4[2], &ipv4[3]);
if (status != 4) {
ALOGE("IP device \"%s\" IPv4 address \"%s\" is invalid", device->deviceType.c_str(),
halDeviceAddress);
result = BAD_VALUE;
}
} else {
ALOGE("IP device \"%s\" does not have an IPv4 address", device->deviceType.c_str());
result = BAD_VALUE;
}
} else if (audio_is_usb_out_device(halDeviceType) || audio_is_usb_in_device(halDeviceType)) {
device->address.alsa({});
if (halDeviceAddress != nullptr) {
auto& alsa = device->address.alsa();
int status = sscanf(halDeviceAddress, "card=%d;device=%d", &alsa.card, &alsa.device);
if (status != 2) {
ALOGE("USB device \"%s\" ALSA address \"%s\" is invalid",
device->deviceType.c_str(), halDeviceAddress);
result = BAD_VALUE;
}
} else {
ALOGE("USB device \"%s\" does not have ALSA address", device->deviceType.c_str());
result = BAD_VALUE;
}
} else {
// Any other device type uses the 'id' field.
device->address.id(halDeviceAddress != nullptr ? halDeviceAddress : "");
}
return result;
}
status_t HidlUtils::deviceAddressToHal(const DeviceAddress& device, audio_devices_t* halDeviceType,
char* halDeviceAddress) {
status_t result = NO_ERROR;
CONVERT_CHECKED(audioDeviceTypeToHal(device.deviceType, halDeviceType), result);
memset(halDeviceAddress, 0, AUDIO_DEVICE_MAX_ADDRESS_LEN);
if (audio_is_a2dp_out_device(*halDeviceType) || audio_is_a2dp_in_device(*halDeviceType)) {
if (device.address.getDiscriminator() == DeviceAddress::Address::hidl_discriminator::mac) {
const auto& mac = device.address.mac();
snprintf(halDeviceAddress, AUDIO_DEVICE_MAX_ADDRESS_LEN,
"%02X:%02X:%02X:%02X:%02X:%02X", mac[0], mac[1], mac[2], mac[3], mac[4],
mac[5]);
} else {
ALOGE("BT A2DP device \"%s\" does not have MAC address set", device.deviceType.c_str());
result = BAD_VALUE;
}
} else if (*halDeviceType == AUDIO_DEVICE_OUT_IP || *halDeviceType == AUDIO_DEVICE_IN_IP) {
if (device.address.getDiscriminator() == DeviceAddress::Address::hidl_discriminator::ipv4) {
const auto& ipv4 = device.address.ipv4();
snprintf(halDeviceAddress, AUDIO_DEVICE_MAX_ADDRESS_LEN, "%d.%d.%d.%d", ipv4[0],
ipv4[1], ipv4[2], ipv4[3]);
} else {
ALOGE("IP device \"%s\" does not have IPv4 address set", device.deviceType.c_str());
result = BAD_VALUE;
}
} else if (audio_is_usb_out_device(*halDeviceType) || audio_is_usb_in_device(*halDeviceType)) {
if (device.address.getDiscriminator() == DeviceAddress::Address::hidl_discriminator::alsa) {
const auto& alsa = device.address.alsa();
snprintf(halDeviceAddress, AUDIO_DEVICE_MAX_ADDRESS_LEN, "card=%d;device=%d", alsa.card,
alsa.device);
} else {
ALOGE("USB device \"%s\" does not have ALSA address set", device.deviceType.c_str());
result = BAD_VALUE;
}
} else {
// Any other device type uses the 'id' field.
if (device.address.getDiscriminator() == DeviceAddress::Address::hidl_discriminator::id) {
snprintf(halDeviceAddress, AUDIO_DEVICE_MAX_ADDRESS_LEN, "%s",
device.address.id().c_str());
}
}
return result;
}
} // namespace implementation
} // namespace COMMON_TYPES_CPP_VERSION
} // namespace common
} // namespace audio
} // namespace hardware
} // namespace android