#include "stdafx.h" #include "Emu/Cell/PPUModule.h" #include "Emu/Cell/lv2/sys_rsxaudio.h" #include "Emu/IdManager.h" #include "Emu/System.h" #include "Loader/PSF.h" #include "cellAudioOut.h" #include "cellAudio.h" LOG_CHANNEL(cellSysutil); template<> void fmt_class_string::format(std::string& out, u64 arg) { format_enum(out, arg, [](auto error) { switch (error) { STR_CASE(CELL_AUDIO_OUT_ERROR_NOT_IMPLEMENTED); STR_CASE(CELL_AUDIO_OUT_ERROR_ILLEGAL_CONFIGURATION); STR_CASE(CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER); STR_CASE(CELL_AUDIO_OUT_ERROR_PARAMETER_OUT_OF_RANGE); STR_CASE(CELL_AUDIO_OUT_ERROR_DEVICE_NOT_FOUND); STR_CASE(CELL_AUDIO_OUT_ERROR_UNSUPPORTED_AUDIO_OUT); STR_CASE(CELL_AUDIO_OUT_ERROR_UNSUPPORTED_SOUND_MODE); STR_CASE(CELL_AUDIO_OUT_ERROR_CONDITION_BUSY); } return unknown; }); } audio_out_configuration::audio_out_configuration() { audio_out& primary_output = out.at(CELL_AUDIO_OUT_PRIMARY); audio_out& secondary_output = out.at(CELL_AUDIO_OUT_SECONDARY); std::vector& primary_modes = primary_output.sound_modes; std::vector& secondary_modes = secondary_output.sound_modes; s32 sound_format = (1 << 0); // Linear PCM 2 Ch. const psf::registry psf = psf::load_object(fs::file(Emu.GetSfoDir() + "/PARAM.SFO")); if (psf.contains("SOUND_FORMAT")) sound_format = psf.at("SOUND_FORMAT").as_integer(); const bool supports_lpcm_2 = (sound_format & psf::sound_format_flag::lpcm_2); // Linear PCM 2 Ch. const bool supports_lpcm_5_1 = (sound_format & psf::sound_format_flag::lpcm_5_1); // Linear PCM 5.1 Ch. const bool supports_lpcm_7_1 = (sound_format & psf::sound_format_flag::lpcm_7_1); // Linear PCM 7.1 Ch. const bool supports_ac3 = (sound_format & psf::sound_format_flag::ac3); // Dolby Digital 5.1 Ch. const bool supports_dts = (sound_format & psf::sound_format_flag::dts); // DTS 5.1 Ch. if (supports_lpcm_2) cellSysutil.notice("cellAudioOut: found support for Linear PCM 2 Ch."); if (supports_lpcm_5_1) cellSysutil.notice("cellAudioOut: found support for Linear PCM 5.1 Ch."); if (supports_lpcm_7_1) cellSysutil.notice("cellAudioOut: found support for Linear PCM 7.1 Ch."); if (supports_ac3) cellSysutil.notice("cellAudioOut: found support for Dolby Digital 5.1 Ch."); if (supports_dts) cellSysutil.notice("cellAudioOut: found support for DTS 5.1 Ch."); const auto add_sound_mode = [](std::vector& sound_modes, u8 type, u8 channel, u8 fs, u32 layout) { CellAudioOutSoundMode mode{}; mode.type = type; mode.channel = channel; mode.fs = fs; mode.layout = layout; sound_modes.push_back(std::move(mode)); }; const auto add_sound_mode_to_both_outputs = [&](u8 type, u8 channel, u8 fs, u32 layout) { add_sound_mode(primary_modes, type, channel, fs, layout); add_sound_mode(secondary_modes, type, channel, fs, layout); }; bool add_fallback = false; // TODO: audio_format should be a bitmap, but we'll keep it simple for now (Linear PCM 2 Ch. 48 kHz should always exist) // TODO: more formats: // - Each LPCM with other sample frequencies (we currently only support 48 kHz) // - AAC // - Dolby Digital Plus // - Dolby TrueHD // - DTS-HD High Resolution Audio // - DTS-HD Master Audio // - ... switch (g_cfg.audio.format) { case audio_format::automatic: // Automatic based on supported formats { if (supports_lpcm_2) // Linear PCM 2 Ch. { add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_2, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_2CH); } if (supports_lpcm_5_1) // Linear PCM 5.1 Ch. { add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_6, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_6CH_LREClr); } if (supports_lpcm_7_1) // Linear PCM 7.1 Ch. { add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_8, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_8CH_LREClrxy); } if (supports_ac3) // Dolby Digital 5.1 Ch. { add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_AC3, CELL_AUDIO_OUT_CHNUM_6, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_6CH_LREClr); } if (supports_dts) // DTS 5.1 Ch. { add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_DTS, CELL_AUDIO_OUT_CHNUM_6, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_6CH_LREClr); } break; } case audio_format::lpcm_2_48khz: // Linear PCM 2 Ch. 48 kHz { add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_2, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_2CH); break; } case audio_format::lpcm_5_1_48khz: // Linear PCM 5.1 Ch. 48 kHz { add_fallback = !supports_lpcm_5_1; add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_6, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_6CH_LREClr); break; } case audio_format::lpcm_7_1_48khz: // Linear PCM 7.1 Ch. 48 kHz { add_fallback = !supports_lpcm_7_1; add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_8, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_8CH_LREClrxy); break; } case audio_format::ac3: // Dolby Digital 5.1 Ch. { add_fallback = !supports_ac3; add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_AC3, CELL_AUDIO_OUT_CHNUM_6, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_6CH_LREClr); break; } case audio_format::dts: // DTS 5.1 Ch. { add_fallback = !supports_dts; add_sound_mode_to_both_outputs(CELL_AUDIO_OUT_CODING_TYPE_DTS, CELL_AUDIO_OUT_CHNUM_6, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_6CH_LREClr); break; } } // Fallback to default sound mode if none was found if (primary_modes.empty() || add_fallback) { add_sound_mode(primary_modes, CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_2, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_2CH); cellSysutil.warning("cellAudioOut: adding Linear PCM 2 Ch. fallback sound mode for primary output"); } if (secondary_modes.empty() || add_fallback) { add_sound_mode(secondary_modes, CELL_AUDIO_OUT_CODING_TYPE_LPCM, CELL_AUDIO_OUT_CHNUM_2, CELL_AUDIO_OUT_FS_48KHZ, CELL_AUDIO_OUT_SPEAKER_LAYOUT_2CH); cellSysutil.warning("cellAudioOut: adding Linear PCM 2 Ch. fallback sound mode for secondary output"); } // Pre-select the first available sound mode primary_output.channels = primary_modes.front().channel; primary_output.encoder = primary_modes.front().type; secondary_output.channels = secondary_modes.front().channel; secondary_output.encoder = secondary_modes.front().type; cellSysutil.notice("cellAudioOut: initial primary output configuration: channels=%d, encoder=%d, downmixer=%d", primary_output.channels, primary_output.encoder, primary_output.downmixer); cellSysutil.notice("cellAudioOut: initial secondary output configuration: channels=%d, encoder=%d, downmixer=%d", secondary_output.channels, secondary_output.encoder, secondary_output.downmixer); } error_code cellAudioOutGetNumberOfDevice(u32 audioOut); error_code cellAudioOutGetSoundAvailability(u32 audioOut, u32 type, u32 fs, u32 option) { cellSysutil.warning("cellAudioOutGetSoundAvailability(audioOut=%d, type=%d, fs=0x%x, option=%d)", audioOut, type, fs, option); switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: break; // case CELL_AUDIO_OUT_SECONDARY: break; // TODO: enable if we ever actually support peripheral output default: return not_an_error(0); } s32 available = 0; // Check if the requested audio parameters are available and find the max supported channel count audio_out_configuration& cfg = g_fxo->get(); std::lock_guard lock(cfg.mtx); const audio_out_configuration::audio_out& out = cfg.out.at(audioOut); for (const CellAudioOutSoundMode& mode : out.sound_modes) { if (mode.type == type && static_cast(mode.fs) == fs) { available = std::max(available, mode.channel); } } return not_an_error(available); } error_code cellAudioOutGetSoundAvailability2(u32 audioOut, u32 type, u32 fs, u32 ch, u32 option) { cellSysutil.warning("cellAudioOutGetSoundAvailability2(audioOut=%d, type=%d, fs=0x%x, ch=%d, option=%d)", audioOut, type, fs, ch, option); switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: break; // case CELL_AUDIO_OUT_SECONDARY: break; // TODO: enable if we ever actually support peripheral output default: return not_an_error(0); } // Check if the requested audio parameters are available audio_out_configuration& cfg = g_fxo->get(); std::lock_guard lock(cfg.mtx); const audio_out_configuration::audio_out& out = cfg.out.at(audioOut); for (const CellAudioOutSoundMode& mode : out.sound_modes) { if (mode.type == type && static_cast(mode.fs) == fs && mode.channel == ch) { return not_an_error(ch); } } return not_an_error(0); } error_code cellAudioOutGetState(u32 audioOut, u32 deviceIndex, vm::ptr state) { cellSysutil.warning("cellAudioOutGetState(audioOut=0x%x, deviceIndex=0x%x, state=*0x%x)", audioOut, deviceIndex, state); if (!state) { return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } const auto num = cellAudioOutGetNumberOfDevice(audioOut); if (num < 0) { return num; } CellAudioOutState _state{}; if (deviceIndex >= num + 0u) { if (audioOut == CELL_AUDIO_OUT_SECONDARY) { // Error codes are not returned here // Random (uninitialized) data from the stack seems to be returned here // Although it was constant on my tests so let's write that _state.state = 0x10; _state.soundMode.layout = 0xD00C1680; *state = _state; return CELL_OK; } return CELL_AUDIO_OUT_ERROR_PARAMETER_OUT_OF_RANGE; } switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: case CELL_AUDIO_OUT_SECONDARY: { const AudioChannelCnt channels = AudioBackend::get_channel_count(audioOut); audio_out_configuration& cfg = g_fxo->get(); std::lock_guard lock(cfg.mtx); const audio_out_configuration::audio_out& out = cfg.out.at(audioOut); const auto it = std::find_if(out.sound_modes.cbegin(), out.sound_modes.cend(), [&channels, &out](const CellAudioOutSoundMode& mode) { return mode.type == out.encoder && mode.channel == static_cast(channels); }); ensure(it != out.sound_modes.cend()); _state.state = out.state; _state.encoder = out.encoder; _state.downMixer = out.downmixer; _state.soundMode = *it; break; } default: return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } *state = _state; return CELL_OK; } error_code cellAudioOutConfigure(u32 audioOut, vm::ptr config, vm::ptr option, u32 waitForEvent) { cellSysutil.warning("cellAudioOutConfigure(audioOut=%d, config=*0x%x, option=*0x%x, waitForEvent=%d)", audioOut, config, option, waitForEvent); if (!config) { return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: break; case CELL_AUDIO_OUT_SECONDARY: return CELL_AUDIO_OUT_ERROR_UNSUPPORTED_AUDIO_OUT; // TODO: enable if we ever actually support peripheral output default: return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } bool needs_reset = false; audio_out_configuration& cfg = g_fxo->get(); { std::lock_guard lock(cfg.mtx); audio_out_configuration::audio_out& out = cfg.out.at(audioOut); if (out.sound_modes.cend() == std::find_if(out.sound_modes.cbegin(), out.sound_modes.cend(), [&config](const CellAudioOutSoundMode& mode) { return mode.channel == config->channel && mode.type == config->encoder && config->downMixer <= CELL_AUDIO_OUT_DOWNMIXER_TYPE_B; })) { return CELL_AUDIO_OUT_ERROR_ILLEGAL_CONFIGURATION; // TODO: confirm } if (out.channels != config->channel || out.encoder != config->encoder || out.downmixer != config->downMixer) { out.channels = config->channel; out.encoder = config->encoder; out.downmixer = config->downMixer; needs_reset = true; } } if (needs_reset) { const auto reset_audio = [audioOut]() -> void { audio_out_configuration& cfg = g_fxo->get(); { std::lock_guard lock(cfg.mtx); cfg.out.at(audioOut).state = CELL_AUDIO_OUT_OUTPUT_STATE_DISABLED; } audio::configure_audio(); audio::configure_rsxaudio(); { std::lock_guard lock(cfg.mtx); cfg.out.at(audioOut).state = CELL_AUDIO_OUT_OUTPUT_STATE_ENABLED; } }; if (waitForEvent) { reset_audio(); } else { Emu.CallFromMainThread(reset_audio); } } cellSysutil.notice("cellAudioOutConfigure: channels=%d, encoder=%d, downMixer=%d", config->channel, config->encoder, config->downMixer); return CELL_OK; } error_code cellAudioOutGetConfiguration(u32 audioOut, vm::ptr config, vm::ptr option) { cellSysutil.warning("cellAudioOutGetConfiguration(audioOut=%d, config=*0x%x, option=*0x%x)", audioOut, config, option); if (!config) { return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: break; case CELL_AUDIO_OUT_SECONDARY: return CELL_AUDIO_OUT_ERROR_UNSUPPORTED_AUDIO_OUT; // TODO: enable if we ever actually support peripheral output default: return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } audio_out_configuration& cfg = g_fxo->get(); std::lock_guard lock(cfg.mtx); CellAudioOutConfiguration _config{}; const audio_out_configuration::audio_out& out = cfg.out.at(audioOut); _config.channel = out.channels; _config.encoder = out.encoder; _config.downMixer = out.downmixer; *config = _config; return CELL_OK; } error_code cellAudioOutGetNumberOfDevice(u32 audioOut) { cellSysutil.warning("cellAudioOutGetNumberOfDevice(audioOut=%d)", audioOut); switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: return not_an_error(1); case CELL_AUDIO_OUT_SECONDARY: return not_an_error(0); default: break; } return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } error_code cellAudioOutGetDeviceInfo(u32 audioOut, u32 deviceIndex, vm::ptr info) { cellSysutil.todo("cellAudioOutGetDeviceInfo(audioOut=%d, deviceIndex=%d, info=*0x%x)", audioOut, deviceIndex, info); if (!info) { return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } const auto num = cellAudioOutGetNumberOfDevice(audioOut); if (num < 0) { return num; } if (deviceIndex >= num + 0u) { if (audioOut == CELL_AUDIO_OUT_SECONDARY) { // Error codes are not returned here *info = {}; return CELL_OK; } return CELL_AUDIO_OUT_ERROR_PARAMETER_OUT_OF_RANGE; } audio_out_configuration& cfg = g_fxo->get(); std::lock_guard lock(cfg.mtx); ensure(audioOut < cfg.out.size()); const audio_out_configuration::audio_out& out = cfg.out.at(audioOut); ensure(out.sound_modes.size() <= 16); CellAudioOutDeviceInfo _info{}; _info.portType = CELL_AUDIO_OUT_PORT_HDMI; _info.availableModeCount = ::narrow(out.sound_modes.size()); _info.state = CELL_AUDIO_OUT_DEVICE_STATE_AVAILABLE; _info.latency = 1000; for (usz i = 0; i < out.sound_modes.size(); i++) { _info.availableModes[i] = out.sound_modes.at(i); } *info = _info; return CELL_OK; } error_code cellAudioOutSetCopyControl(u32 audioOut, u32 control) { cellSysutil.warning("cellAudioOutSetCopyControl(audioOut=%d, control=%d)", audioOut, control); if (control > CELL_AUDIO_OUT_COPY_CONTROL_COPY_NEVER) { return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } switch (audioOut) { case CELL_AUDIO_OUT_PRIMARY: break; case CELL_AUDIO_OUT_SECONDARY: return CELL_AUDIO_OUT_ERROR_UNSUPPORTED_AUDIO_OUT; // TODO: enable if we ever actually support peripheral output default: return CELL_AUDIO_OUT_ERROR_ILLEGAL_PARAMETER; } audio_out_configuration& cfg = g_fxo->get(); std::lock_guard lock(cfg.mtx); cfg.out.at(audioOut).copy_control = control; return CELL_OK; } error_code cellAudioOutRegisterCallback() { cellSysutil.todo("cellAudioOutRegisterCallback()"); return CELL_OK; } error_code cellAudioOutUnregisterCallback() { cellSysutil.todo("cellAudioOutUnregisterCallback()"); return CELL_OK; } void cellSysutil_AudioOut_init() { REG_FUNC(cellSysutil, cellAudioOutGetState); REG_FUNC(cellSysutil, cellAudioOutConfigure); REG_FUNC(cellSysutil, cellAudioOutGetSoundAvailability); REG_FUNC(cellSysutil, cellAudioOutGetSoundAvailability2); REG_FUNC(cellSysutil, cellAudioOutGetDeviceInfo); REG_FUNC(cellSysutil, cellAudioOutGetNumberOfDevice); REG_FUNC(cellSysutil, cellAudioOutGetConfiguration); REG_FUNC(cellSysutil, cellAudioOutSetCopyControl); REG_FUNC(cellSysutil, cellAudioOutRegisterCallback); REG_FUNC(cellSysutil, cellAudioOutUnregisterCallback); }