FluidPlayer::FluidPlayer()
{
//MIDI params
midiOut.listPorts(); // via instance
midiIn.listPorts(); // via instance
midiOut.openPort("passthrough_in"); // by name
midiIn.openPort("passthrough_out"); // by name
//midiOut.openPort("Network Sonoromancer_host");
//midiIn.openPort("Network Sonoromancer_host");
midiIn.ignoreTypes(false, false, false);
midiIn.addListener(this);
baseNoteMessageLength = DEMISEMIQUAVER;
upperTimesig = 4;
lowerTimesig = 4;
currentInstrumentIndex = 0;
loadInstruments();
loadScales();
setRootNote(NOTE_C);
setScale( getScaleByName("Minor"));
setInstrument( instrumentList[0] );
}
SoundGen2GS::SoundGen2GS(AgiEngine *vm, Audio::Mixer *pMixer) : SoundGen(vm, pMixer) {
_disabledMidi = !loadInstruments();
_playingSound = -1;
_playing = false;
_sndBuffer = (int16 *)calloc(2, BUFFER_SIZE);
_midiChannels.resize(16); // Set the amount of available MIDI channels
_mixer->playStream(Audio::Mixer::kMusicSoundType, &_soundHandle, this, -1, Audio::Mixer::kMaxChannelVolume, 0, DisposeAfterUse::NO, true);
}
bool SoundTowns::init() {
_vm->checkCD();
int unused = 0;
_musicFadeTable = _vm->staticres()->loadRawData(k1TownsMusicFadeTable, unused);
_sfxWDTable = _vm->staticres()->loadRawData(k1TownsSFXwdTable, unused);
_sfxBTTable = _vm->staticres()->loadRawData(k1TownsSFXbtTable, unused);
_musicTrackData = new uint8[50570];
if (!_driver->init())
return false;
if (!loadInstruments())
return false;
_driver->intf()->callback(68);
_driver->intf()->callback(70, 0x33);
_driver->setOutputVolume(1, 118, 118);
return true;
}
void Player::loadSfxModule(int num) {
char path[MAXPATHLEN];
snprintf(path, sizeof(path), kSfxFilePath, num);
_sfxMod.buf = readFile(path);
if (_sfxMod.buf.buf) {
uint8_t *p = _sfxMod.buf.buf;
_sfxMod.curOrder = 0;
_sfxMod.numOrder = READ_BE_UINT16(p + 0x3E);
fprintf(stdout, "curOrder = 0x%X numOrder = 0x%X\n", _sfxMod.curOrder, _sfxMod.numOrder);
for (int i = 0; i < 0x80; ++i) {
_sfxMod.orderTable[i] = *(p + 0x40 + i);
}
_delay = READ_BE_UINT16(p);
// _delay = 15700;
_delay = _delay * 60 / 7050;
_bufData = p + 0xC0;
fprintf(stdout, "eventDelay = %d\n", _delay);
loadInstruments(p + 2);
stop();
start();
}
}
bool SoundTowns::init() {
_vm->checkCD();
int unused = 0;
_musicFadeTable = _vm->staticres()->loadRawData(k1TownsMusicFadeTable, unused);
_sfxWDTable = _vm->staticres()->loadRawData(k1TownsSFXwdTable, unused);
_sfxBTTable = _vm->staticres()->loadRawData(k1TownsSFXbtTable, unused);
_musicTrackData = new uint8[50570];
if (!_player->init())
return false;
if (!loadInstruments())
return false;
/*_player->driver()->intf()->callback(68);
_player->driver()->intf()->callback(70, 0x33);*/
_player->driver()->setOutputVolume(1, 118, 118);
// Initialize CD for audio
g_system->getAudioCDManager()->open();
return true;
}
SoundGen2GS::SoundGen2GS(AgiEngine *vm, Audio::Mixer *pMixer) : SoundGen(vm, pMixer) {
// Allocate memory for the wavetable
_wavetable = new int8[SIERRASTANDARD_SIZE];
// Apple IIGS AGI MIDI player advances 60 ticks per second. Strategy
// here is to first generate audio for a 1/60th of a second and then
// advance the MIDI player by one tick. Thus, make the output buffer
// to be a 1/60th of a second in length.
_outSize = _sampleRate / 60;
_out = new int16[2 * _outSize]; // stereo
// Initialize player variables
_nextGen = 0;
_ticks = 0;
// Not playing anything yet
_playingSound = -1;
_playing = false;
// Load instruments
_disableMidi = !loadInstruments();
_mixer->playStream(Audio::Mixer::kMusicSoundType, &_soundHandle, this, -1, Audio::Mixer::kMaxChannelVolume, 0, DisposeAfterUse::NO, true);
}
