public static Sequence process(
final Sequence inputSequence,
int track,
long startTick,
long endTick,
int noteOverlap,
int minimumRest,
Handler loggingHandler)
throws InvalidMidiDataException {
Sequence outputSequence =
new Sequence(inputSequence.getDivisionType(), inputSequence.getResolution());
Track[] inputTracks = inputSequence.getTracks();
SlurBinderA.noteOverlap = noteOverlap;
SlurBinderA.minimumRest = minimumRest;
slurEndNotes = new HashSet<>();
for (int trackI = 0; trackI < inputTracks.length; trackI++) {
Track inputTrack = inputTracks[trackI];
Track outputTrack = outputSequence.createTrack();
if (trackI == track) {
handleTrack(outputTrack, inputTrack, startTick, endTick);
} else {
for (int eventI = 0; eventI < inputTrack.size(); eventI++) {
MidiEvent midEvent = inputTrack.get(eventI);
outputTrack.add(midEvent);
}
}
}
return outputSequence;
}
public void go() {
setUpGui();
try {
Sequencer sequencer = MidiSystem.getSequencer();
sequencer.open();
// make a sequencer and open
sequencer.addControllerEventListener(m1, new int[] {127});
Sequence seq = new Sequence(Sequence.PPQ, 4);
Track track = seq.createTrack();
int r = 0;
for (int i = 0; i < 300; i += 4) {
r = (int) ((Math.random() * 50) + 1);
track.add(makeEvent(144, 1, r, 100, i));
track.add(makeEvent(176, 1, 127, 0, i));
track.add(makeEvent(128, 1, r, 100, i + 2));
} // end loop
sequencer.setSequence(seq);
sequencer.start();
sequencer.setTempoInBPM(120);
} catch (Exception ex) {
ex.printStackTrace();
}
} // close method
public void buildTrackAndStart() {
int[] trackList = null;
sequence.deleteTrack(track);
track = sequence.createTrack();
for (int i = 0; i < 16; i++) {
trackList = new int[16];
int key = instruments[i];
for (int j = 0; j < 16; j++) {
JCheckBox jc = (JCheckBox) checkboxList.get(j + (16 * i));
if (jc.isSelected()) {
trackList[j] = key;
} else {
trackList[j] = 0;
}
} // close inner loop
makeTracks(trackList);
track.add(makeEvent(176, 1, 127, 0, 16));
} // close outer
track.add(makeEvent(192, 9, 1, 0, 15));
try {
sequencer.setSequence(sequence);
sequencer.setLoopCount(sequencer.LOOP_CONTINUOUSLY);
sequencer.start();
sequencer.setTempoInBPM(120);
} catch (Exception e) {
e.printStackTrace();
}
} // close buildTrackAndStart method
public void play(int instrument, int note) {
try {
Sequencer player = MidiSystem.getSequencer();
player.open();
Sequence seq = new Sequence(Sequence.PPQ, 4);
Track track = seq.createTrack();
MidiEvent event = null;
ShortMessage first = new ShortMessage();
first.setMessage(192, 1, instrument, 0);
MidiEvent changeInstrument = new MidiEvent(first, 1);
track.add(changeInstrument);
ShortMessage a = new ShortMessage();
a.setMessage(144, 1, note, 100);
MidiEvent noteOn = new MidiEvent(a, 1);
track.add(noteOn);
ShortMessage b = new ShortMessage();
b.setMessage(128, 1, note, 100);
MidiEvent noteOff = new MidiEvent(b, 16);
track.add(noteOff);
player.setSequence(seq);
player.start();
} catch (Exception ex) {
ex.printStackTrace();
}
} // close play
public void los() {
guiErstellen();
try {
Sequencer sequencer = MidiSystem.getSequencer();
sequencer.open();
sequencer.addControllerEventListener(ml, new int[] {127});
Sequence seq = new Sequence(Sequence.PPQ, 4);
Track track = seq.createTrack();
int r = 0;
for (int i = 0; i < 60; i += 4) {
r = (int) ((Math.random() * 50) + 1);
track.add(eventErzeugen(144, 1, r, 100, i));
track.add(eventErzeugen(176, 1, 127, 0, i));
track.add(eventErzeugen(128, 1, r, 100, i + 2));
}
sequencer.setSequence(seq);
sequencer.setTempoInBPM(120);
sequencer.start();
Thread.sleep(5000);
sequencer.close();
} catch (Exception ex) {
ex.printStackTrace();
}
}
public static void convertMidi2RealTime(Sequence seqIn) {
seq = seqIn;
double currentTempo = 500000;
int tickOfTempoChange = 0;
double msb4 = 0;
double division = seq.getResolution();
int lastTick = 0;
int count = 0;
for (int track = 0; track < seq.getTracks().length; track++) nextMessageOf.add(0);
System.out.println();
MidiEvent nextEvent;
while ((nextEvent = getNextEvent()) != null) {
int tick = (int) nextEvent.getTick();
if (noteIsOff(nextEvent)) {
double time =
(msb4 + (((currentTempo / seq.getResolution()) / 1000) * (tick - tickOfTempoChange)));
System.out.println(
"track="
+ currentTrack
+ " tick="
+ tick
+ " time="
+ (int) (time + 0.5)
+ "ms "
+ " note "
+ ((int) nextEvent.getMessage().getMessage()[1] & 0xFF)
+ " off");
} else if (noteIsOn(nextEvent)) {
double time =
(msb4 + (((currentTempo / seq.getResolution()) / 1000) * (tick - tickOfTempoChange)));
System.out.println(
"track="
+ currentTrack
+ " tick="
+ tick
+ " time="
+ (int) (time + 0.5)
+ "ms "
+ " note "
+ ((int) nextEvent.getMessage().getMessage()[1] & 0xFF)
+ " on");
} else if (changeTemp(nextEvent)) {
String a = (Integer.toHexString((int) nextEvent.getMessage().getMessage()[3] & 0xFF));
String b = (Integer.toHexString((int) nextEvent.getMessage().getMessage()[4] & 0xFF));
String c = (Integer.toHexString((int) nextEvent.getMessage().getMessage()[5] & 0xFF));
if (a.length() == 1) a = ("0" + a);
if (b.length() == 1) b = ("0" + b);
if (c.length() == 1) c = ("0" + c);
String whole = a + b + c;
int newTempo = Integer.parseInt(whole, 16);
double newTime = (currentTempo / seq.getResolution()) * (tick - tickOfTempoChange);
msb4 += (newTime / 1000);
tickOfTempoChange = tick;
currentTempo = newTempo;
}
}
}
/**
* @param key is the note that this starts with. 60 is middle C.
* @param tempo is measured in beats per second
*/
public MidiFileGenerator(int key, int tempo, int resolution)
throws MidiUnavailableException, InvalidMidiDataException {
this.resolution = resolution;
Sequence sequence = new Sequence(Sequence.PPQ, resolution);
track = sequence.createTrack();
// makeSong(key);
sequencer = MidiSystem.getSequencer();
sequencer.open();
sequencer.setSequence(sequence);
sequencer.setTempoInBPM(tempo);
}
public boolean addStrikeToSequence(int bell, long millis) {
try {
fSequence.getTracks()[0].add(createBellMarker(bell, millis));
fSequence.getTracks()[0].add(createBellNote(bell, millis));
fSequence.getTracks()[0].add(createBellNoteOff(bell, millis + 2000));
} catch (InvalidMidiDataException e) {
System.out.println("Failed to create Midi note: " + e);
return false;
}
return true;
}
public Sequence getSequence(InputStream inputStream)
throws InvalidMidiDataException, IOException {
MidiFileFormat midiFileFormat = getMidiFileFormat(inputStream);
Sequence sequence =
new Sequence(midiFileFormat.getDivisionType(), midiFileFormat.getResolution());
DataInputStream dataInputStream = new DataInputStream(inputStream);
int nNumTracks = ((TMidiFileFormat) midiFileFormat).getTrackCount();
for (int nTrack = 0; nTrack < nNumTracks; nTrack++) {
Track track = sequence.createTrack();
readTrack(dataInputStream, track);
}
return sequence;
}
/**
* Send entry MIDI Sequence into Receiver using time stamps.
*
* @return The total length of the sequence.
*/
private double send(final Sequence seq, final Receiver recv) {
assert seq.getDivisionType() == Sequence.PPQ;
final float divtype = seq.getDivisionType();
final Track[] tracks = seq.getTracks();
tune(recv);
final int[] trackspos = new int[tracks.length];
int mpq = 500000;
final int seqres = seq.getResolution();
long lasttick = 0;
long curtime = 0;
while (true) {
MidiEvent selevent = null;
int seltrack = -1;
for (int i = 0; i < tracks.length; i++) {
final int trackpos = trackspos[i];
final Track track = tracks[i];
if (trackpos < track.size()) {
final MidiEvent event = track.get(trackpos);
if (selevent == null || event.getTick() < selevent.getTick()) {
selevent = event;
seltrack = i;
}
}
}
if (seltrack == -1) {
break;
}
trackspos[seltrack]++;
final long tick = selevent.getTick();
if (divtype == Sequence.PPQ) {
curtime += (tick - lasttick) * mpq / seqres;
} else {
curtime = (long) (tick * 1000000.0 * divtype / seqres);
}
lasttick = tick;
final MidiMessage msg = selevent.getMessage();
if (msg instanceof MetaMessage) {
if (divtype == Sequence.PPQ && ((MetaMessage) msg).getType() == 0x51) {
final byte[] data = ((MetaMessage) msg).getData();
mpq = (data[0] & 0xff) << 16 | (data[1] & 0xff) << 8 | data[2] & 0xff;
}
} else if (recv != null) {
recv.send(msg, curtime);
}
}
return curtime / 1000000.0;
}
public void go() {
try {
sq.open();
Sequence seq = new Sequence(Sequence.PPQ, 4);
Track track = seq.createTrack();
track.add(addNote(144, 9, 56, 100, 1));
track.add(addNote(128, 9, 56, 100, 4));
sq.setSequence(seq);
sq.setTempoInBPM(tempo);
sq.setLoopCount(Sequencer.LOOP_CONTINUOUSLY);
sq.start();
} catch (Exception ex) {
ex.printStackTrace();
}
}
public void run() {
try {
/*wait(n);
synchronized(n)
{
n++;
notifyAll();
}*/
seq.setSequence(mySeq);
long length = mySeq.getMicrosecondLength();
m_playing.add(this);
seq.start();
Thread.sleep(length / 1000);
seq.close();
synth.close();
m_playing.remove(this);
/*wait(n);
synchronized(n)
{
n--;
notifyAll();
}*/
} catch (InvalidMidiDataException e) {
Debug.showException(e, "MidiPlayer::run InvalidMidiDataException");
} catch (InterruptedException e) {
seq.close();
synth.close();
// Debug.showMessage("MidiCSD::PlayMidiFile: Interrupted" + e.getMessage());
}
}
public Sequencer(int instrument, int tempo) {
// Set up initial settings for the sequencer
this.instrument = instrument;
this.tempo = tempo;
Synthesizer synth;
ticks = 0;
velocity = 64; // Mid volume
try {
// Setup values to create sequencer
sequence = new Sequence(Sequence.PPQ, 16);
sequencer = MidiSystem.getSequencer();
sequencer.open();
synth = MidiSystem.getSynthesizer();
synth.open();
sequencer.getTransmitter().setReceiver(synth.getReceiver());
sequencer.setTempoInBPM(tempo);
track = sequence.createTrack();
} catch (InvalidMidiDataException e) {
e.printStackTrace();
} catch (MidiUnavailableException e) {
e.printStackTrace();
}
}
/**
* Given a microsecond time, convert to tick. returns tempo at the given time in
* cache.getCurrTempoMPQ
*/
public static long microsecond2tick(Sequence seq, long micros, TempoCache cache) {
if (seq.getDivisionType() != Sequence.PPQ) {
double dTick =
(((double) micros) * ((double) seq.getDivisionType()) * ((double) seq.getResolution()))
/ ((double) 1000000);
long tick = (long) dTick;
if (cache != null) {
cache.currTempo = (int) cache.getTempoMPQAt(tick);
}
return tick;
}
if (cache == null) {
cache = new TempoCache(seq);
}
long[] ticks = cache.ticks;
int[] tempos = cache.tempos; // in MPQ
int cacheCount = tempos.length;
int resolution = seq.getResolution();
long us = 0;
long tick = 0;
int newReadPos = 0;
int i = 1;
// walk through all tempo changes and add time for the respective blocks
// to find the right tick
if (micros > 0 && cacheCount > 0) {
// this loop requires that the first tempo Event is at time 0
while (i < cacheCount) {
long nextTime = us + ticks2microsec(ticks[i] - ticks[i - 1], tempos[i - 1], resolution);
if (nextTime > micros) {
break;
}
us = nextTime;
i++;
}
tick = ticks[i - 1] + microsec2ticks(micros - us, tempos[i - 1], resolution);
if (Printer.debug)
Printer.debug("microsecond2tick(" + (micros / 1000) + ") = " + tick + " ticks.");
// if (Printer.debug) Printer.debug(" -> convert back = " + (tick2microsecond(seq, tick,
// null) / 1000)+" microseconds");
}
cache.currTempo = tempos[i - 1];
return tick;
}
/* Write a sequence to an output stream in standard midi format.
* @see javax.sound.midi.spi.MidiFileWriter#write(javax.sound.midi.Sequence, int, java.io.OutputStream)
*/
public int write(Sequence in, int fileType, OutputStream out) throws IOException {
MidiDataOutputStream dos = new MidiDataOutputStream(out);
Track[] tracks = in.getTracks();
dos.writeInt(0x4d546864); // MThd
dos.writeInt(6);
dos.writeShort(fileType);
dos.writeShort(tracks.length);
float divisionType = in.getDivisionType();
int resolution = in.getResolution();
// FIXME: division computation is incomplete.
int division = 0;
if (divisionType == Sequence.PPQ) division = resolution & 0x7fff;
dos.writeShort(division);
int length = 14;
for (Track track : tracks) length += writeTrack(track, dos);
return length;
}
public boolean addRowStartMarkToSequence(int rowN, long millis) {
try {
fSequence.getTracks()[0].add(createRowStartMarker(rowN, millis));
} catch (InvalidMidiDataException e) {
System.out.println("Failed to create Midi marker: " + e);
return false;
}
return true;
}
/**
* Adds this Note at the specified time on the specified Track and channel in the specified
* Sequence, then returns the time that a sequential Note should be added.
*
* @param seq the Sequence to which to add this Note
* @param track the Track in the Sequence to which to add this Note
* @param time the time at which to start this Note
* @param ch the channel on which to put this Note
* @param transposition amount by which to transpose this note in semitones
* @param sendBankSelect
* @return
* @throws javax.sound.midi.InvalidMidiDataException
*/
public long render(
Sequence seq, Track track, long time, int ch, int transposition, boolean sendBankSelect)
throws InvalidMidiDataException {
if (sendBankSelect) {}
int dur = getRhythmValue();
long offTime = time + dur * seq.getResolution() / BEAT;
render(seq, track, time, offTime, ch, transposition);
return offTime;
}
public static double send(Sequence seq, Receiver recv) {
float divtype = seq.getDivisionType();
assert (seq.getDivisionType() == Sequence.PPQ);
Track[] tracks = seq.getTracks();
int[] trackspos = new int[tracks.length];
int mpq = 60000000 / 100;
int seqres = seq.getResolution();
long lasttick = 0;
long curtime = 0;
while (true) {
MidiEvent selevent = null;
int seltrack = -1;
for (int i = 0; i < tracks.length; i++) {
int trackpos = trackspos[i];
Track track = tracks[i];
if (trackpos < track.size()) {
MidiEvent event = track.get(trackpos);
if (selevent == null || event.getTick() < selevent.getTick()) {
selevent = event;
seltrack = i;
}
}
}
if (seltrack == -1) break;
trackspos[seltrack]++;
long tick = selevent.getTick();
if (divtype == Sequence.PPQ) curtime += ((tick - lasttick) * mpq) / seqres;
else curtime = (long) ((tick * 1000000.0 * divtype) / seqres);
lasttick = tick;
MidiMessage msg = selevent.getMessage();
if (msg instanceof MetaMessage) {
if (divtype == Sequence.PPQ)
if (((MetaMessage) msg).getType() == 0x51) {
byte[] data = ((MetaMessage) msg).getData();
mpq = ((data[0] & 0xff) << 16) | ((data[1] & 0xff) << 8) | (data[2] & 0xff);
}
} else {
if (recv != null) recv.send(msg, curtime);
}
}
return curtime / 1000000.0;
}
/**
* Given a tick, convert to microsecond
*
* @param cache tempo info and current tempo
*/
public static long tick2microsecond(Sequence seq, long tick, TempoCache cache) {
if (seq.getDivisionType() != Sequence.PPQ) {
double seconds = ((double) tick / (double) (seq.getDivisionType() * seq.getResolution()));
return (long) (1000000 * seconds);
}
if (cache == null) {
cache = new TempoCache(seq);
}
int resolution = seq.getResolution();
long[] ticks = cache.ticks;
int[] tempos = cache.tempos; // in MPQ
int cacheCount = tempos.length;
// optimization to not always go through entire list of tempo events
int snapshotIndex = cache.snapshotIndex;
int snapshotMicro = cache.snapshotMicro;
// walk through all tempo changes and add time for the respective blocks
long us = 0; // microsecond
if (snapshotIndex <= 0 || snapshotIndex >= cacheCount || ticks[snapshotIndex] > tick) {
snapshotMicro = 0;
snapshotIndex = 0;
}
if (cacheCount > 0) {
// this implementation needs a tempo event at tick 0!
int i = snapshotIndex + 1;
while (i < cacheCount && ticks[i] <= tick) {
snapshotMicro += ticks2microsec(ticks[i] - ticks[i - 1], tempos[i - 1], resolution);
snapshotIndex = i;
i++;
}
us =
snapshotMicro
+ ticks2microsec(tick - ticks[snapshotIndex], tempos[snapshotIndex], resolution);
}
cache.snapshotIndex = snapshotIndex;
cache.snapshotMicro = snapshotMicro;
return us;
}
public void setUpMidi() {
try {
sequencer = MidiSystem.getSequencer();
sequencer.open();
sequence = new Sequence(Sequence.PPQ, 4);
track = sequence.createTrack();
sequencer.setTempoInBPM(120);
} catch (Exception e) {
e.printStackTrace();
}
} // close method
public static MidiEvent getNextEvent() {
ArrayList<MidiEvent> nextEvent = new ArrayList<MidiEvent>();
ArrayList<Integer> trackOfNextEvent = new ArrayList<Integer>();
for (int track = 0; track < seq.getTracks().length; track++) {
if (seq.getTracks()[track].size() - 1 > (nextMessageOf.get(track))) {
nextEvent.add(seq.getTracks()[track].get(nextMessageOf.get(track)));
trackOfNextEvent.add(track);
}
}
if (nextEvent.size() == 0) return null;
int closestMessage = 0;
int smallestTick = (int) nextEvent.get(0).getTick();
for (int trialMessage = 1; trialMessage < nextEvent.size(); trialMessage++) {
if ((int) nextEvent.get(trialMessage).getTick() < smallestTick) {
smallestTick = (int) nextEvent.get(trialMessage).getTick();
closestMessage = trialMessage;
}
}
currentTrack = trackOfNextEvent.get(closestMessage);
nextMessageOf.set(currentTrack, (nextMessageOf.get(currentTrack) + 1));
return nextEvent.get(closestMessage);
}
public void actionPerformed(ActionEvent ev) {
try {
// make (and open) a sequencer, make a sequence and track
Sequencer sequencer = MidiSystem.getSequencer();
sequencer.open();
sequencer.addControllerEventListener(myPanel, new int[] {127});
Sequence seq = new Sequence(Sequence.PPQ, 4);
Track track = seq.createTrack();
// now make two midi events (containing a midi message)
for (int i = 0; i < 100; i += 4) {
int rNum = (int) ((Math.random() * 50) + 1);
if (rNum < 38) { // so now only do it if num <38 (75% of the time)
track.add(makeEvent(144, 1, rNum, 100, i));
track.add(makeEvent(176, 1, 127, 0, i));
track.add(makeEvent(128, 1, rNum, 100, i + 2));
}
} // end loop
// add the events to the track
// add the sequence to the sequencer, set timing, and start
sequencer.setSequence(seq);
sequencer.start();
sequencer.setTempoInBPM(220);
} catch (Exception ex) {
ex.printStackTrace();
}
} // close actionperformed
private void loadNotes() {
int program = 0;
HashMap<Integer, Float> lastTimeNote = new HashMap<Integer, Float>();
HashMap<Float, Integer> secondsNotes = new HashMap<Float, Integer>();
this.notas = new ArrayList<MIDINote>();
for (Track track : sequencia.getTracks()) {
for (int c = 0; c < track.size(); ++c) {
MidiEvent event = track.get(c);
MidiMessage msg = event.getMessage();
if (msg instanceof ShortMessage) {
ShortMessage shortmsg = (ShortMessage) msg;
if (shortmsg.getCommand() == ShortMessage.PROGRAM_CHANGE) {
program = shortmsg.getData1();
} else {
// }else if(program>=25 && program <= 40){
// else if(program== 30){
if (shortmsg.getCommand() == ShortMessage.NOTE_ON) {
MIDINote midiNote = new MIDINote(event, sequencia, tempoProcessor, program);
// tocador.start();
int noteChord = midiNote.getChord();
float noteSecond = midiNote.getSecond();
if (!lastTimeNote.containsKey(noteChord)) {
lastTimeNote.put(noteChord, 0.0f);
}
if (noteSecond - lastTimeNote.get(noteChord).floatValue() <= this.interval) {
continue;
}
lastTimeNote.put(noteChord, noteSecond);
// System.out.println("Play chord "+noteChord+" in "+noteSecond+" seconds");
notas.add(midiNote);
if (!secondsNotes.containsKey(noteSecond)) {
secondsNotes.put(noteSecond, 1);
}
secondsNotes.put(noteSecond, secondsNotes.get(noteSecond).intValue() + 1);
}
}
}
}
}
// System.out.println("tamanho da pista "+notas.size()+" e track "+maxNote);
for (float second : secondsNotes.keySet()) {
int repeated = secondsNotes.get(second).intValue();
if (repeated > maxNote) {
this.maxNote = repeated;
}
}
this.notesLength = secondsNotes.size();
// GameEngine.getInstance().setFramesPerSecond((int)(((tocador.getMicrosecondLength()/1000000)/(notas.size()*1.0))*4000));
// System.out.println("(int)(("+sequencia.getMicrosecondLength()+"/1000000)/"+notas.size()+"="+(int)((sequencia.getMicrosecondLength()/1000000)/notas.size()))
}
/**
* Import a song into the MidiExporter to play or export.
*
* @param song The Song to convert to MIDI
*/
public void importSong(Song song) {
// Fetch important data from the song.
// Meaning, metadata and the song itself.
Beat[] beats = song.getBeatArray();
this.song = song;
// Create a track for each voice.
int numVoices = song.getNumVoices();
for (int voiceCount = 0; voiceCount < numVoices; voiceCount++) {
sequence.createTrack();
}
// Iterate through each beat, adding each note to the corresponding
// track.
Track[] tracks = sequence.getTracks();
for (int beat = 0; beat < beats.length; beat++) {
Note[] firstHalf = beats[beat].getNotesFirstHalf();
Note[] secondHalf = beats[beat].getNotesSecondHalf();
// Iterate through each note in the beat, adding it to the
// corresponding track.
for (int note = 0; note < firstHalf.length; note++) {
if (firstHalf[note] == secondHalf[note]) {
createNote(firstHalf[note], 2 * beat, 2, tracks[note]);
} else {
createNote(firstHalf[note], 2 * beat, 1, tracks[note]);
createNote(secondHalf[note], 2 * beat + 1, 1, tracks[note]);
} // if/else
} // for
} // for
try {
setUpSequencer();
} catch (MidiUnavailableException ex) {
System.out.println("Unable to set up sequencer");
// do nothing
}
}
public void los() {
guiErstellen();
try {
// einen Sequencer erzeugen (und öffnen),
// eine Sequence und einen Track erzeugen
Sequencer sequencer = MidiSystem.getSequencer();
sequencer.open();
sequencer.addControllerEventListener(ml, new int[] {127});
Sequence seq = new Sequence(Sequence.PPQ, 4);
Track track = seq.createTrack();
// jetzt werden MidiEvents (die eine
// MidiMessage enthalten) erzeugt
int r = 0;
for (int i = 0; i < 60; i += 4) {
r = (int) ((Math.random() * 50) + 1);
track.add(eventErzeugen(144, 1, r, 100, i));
track.add(eventErzeugen(176, 1, 127, 0, i));
track.add(eventErzeugen(128, 1, r, 100, i + 2));
} // Ende der for-Schleife
// Hinzufügen der Events zum Track und der Sequence
// zum Sequencer, Setzen der Zeiten und Starten
sequencer.setSequence(seq);
sequencer.start();
sequencer.setTempoInBPM(120);
} catch (Exception ex) {
ex.printStackTrace();
}
} // Methode los schließen
public boolean createSequence() {
try {
// Create a sequence with microsecond timing resolution
// (Although this doesn't seem to have any effect on tick resolution - ticks in MidiEvents
// always microsecond
fSequence = new Sequence(Sequence.SMPTE_25, 40000);
// Create track and add program change to bell sound
Track track = fSequence.createTrack();
// track.add(createBankChange(1, 0));
track.add(createProgramChange(14, 0));
} catch (InvalidMidiDataException e) {
System.out.println("Error creating sequence: " + e);
return false;
}
return true;
}
public synchronized void refresh(Sequence seq) {
ArrayList<MidiEvent> list = new ArrayList<>();
Track[] tracks = seq.getTracks();
if (tracks.length > 0) {
// tempo events only occur in track 0
Track track = tracks[0];
int c = track.size();
for (int i = 0; i < c; i++) {
MidiEvent ev = track.get(i);
MidiMessage msg = ev.getMessage();
if (isMetaTempo(msg)) {
// found a tempo event. Add it to the list
list.add(ev);
}
}
}
int size = list.size() + 1;
firstTempoIsFake = true;
if ((size > 1) && (list.get(0).getTick() == 0)) {
// do not need to add an initial tempo event at the beginning
size--;
firstTempoIsFake = false;
}
ticks = new long[size];
tempos = new int[size];
int e = 0;
if (firstTempoIsFake) {
// add tempo 120 at beginning
ticks[0] = 0;
tempos[0] = DEFAULT_TEMPO_MPQ;
e++;
}
for (int i = 0; i < list.size(); i++, e++) {
MidiEvent evt = list.get(i);
ticks[e] = evt.getTick();
tempos[e] = getTempoMPQ(evt.getMessage());
}
snapshotIndex = 0;
snapshotMicro = 0;
}
public boolean writeSequence(NoteList noteList) {
this.noteList = noteList;
toneMap = toneMapFrame.getToneMap();
timeSet = toneMap.getTimeSet();
pitchSet = toneMap.getPitchSet();
timeRange = timeSet.getRange();
pitchRange = pitchSet.getRange();
if (!buildNoteSequence()) return false;
try {
sequence = new Sequence(Sequence.PPQ, 10);
} catch (Exception ex) {
ex.printStackTrace();
return false;
}
track = sequence.createTrack();
startTime = System.currentTimeMillis();
// add a program change right at the beginning of
// the track for the current instrument
createEvent(PROGRAM, cc.program + 1, 1);
for (int i = 0; i < noteSequence.size(); i++) {
noteSequenceElement = noteSequence.get(i);
if (noteSequenceElement.state == ON)
if (!createEvent(NOTEON, noteSequenceElement.note, noteSequenceElement.tick)) return false;
if (noteSequenceElement.state == OFF)
if (!createEvent(NOTEOFF, noteSequenceElement.note, noteSequenceElement.tick)) return false;
}
return true;
}
public void _testGPWithPlayer(MidiSongDefinition sd, int usq) throws Exception {
MidiSongDefinition testFile = SongArchive.testFileSongDefinition();
try {
GPInputStream gpis = new GPInputStream(sd.getGpFileName());
GPSong gpsong = (GPSong) gpis.readObject();
gpis.close();
int tempoGPSong = gpsong.getTempo();
// OLD assertEquals((int)(60*1000*1000/usq),tempoGPSong);
assertEquals((60 * 1000 * 1000 / usq), tempoGPSong);
Song song = GPAdaptor.makeSong(gpsong);
Tempo tempoSong = song.getTempo();
assertEquals(usq, (int) tempoSong.getUSQ());
MasterPlayer player = new MasterPlayer();
player.setSoundPlayer(new MidiFiler(testFile.getMidiFileName()));
Performance performance = player.arrange(song, null);
Tempo tempoPerformance = performance.getTempo();
assertEquals(usq, (int) tempoPerformance.getUSQ());
// a performance is really a sequence. So make sure there
// is a tempo event (meta 0x51) on track 0.
// make sure as well there is exactly ONE tempo event at timestamp 0
Sequence sequence = (Sequence) performance;
Track[] midiTracks = sequence.getTracks();
Track tempoMap = midiTracks[0];
Tempo tempoInMIDI = new Tempo();
for (int i = 0; i < tempoMap.size(); i++) {
MidiEvent me = tempoMap.get(i);
long tick = me.getTick();
if (tick > 0) break;
MidiMessage mm = me.getMessage();
if (mm.getStatus() == MetaMessage.META) {
MetaMessage meta = (MetaMessage) mm;
if (meta.getType() == 0x51) {
byte[] data = meta.getData();
tempoInMIDI.setUSQ(
((data[0] & 0x00FF) << 16) | ((data[1] & 0x00FF) << 8) | ((data[2] & 0x00FF)));
break;
}
}
}
assertEquals(usq, (int) tempoInMIDI.getUSQ());
MidiOutputStream mos = new MidiOutputStream(new FileOutputStream(testFile.getMidiFileName()));
mos.write(performance);
mos.close();
compareMIDIFiles(
sd.getMidiFileName(), testFile.getMidiFileName(), sd.getChannels(), sd.getEventRemap());
} catch (FileNotFoundException e) {
fail("file not found exception");
} catch (GPFormatException e) {
fail("gp format exception");
} catch (IOException e) {
fail("ioexception");
} catch (CodecFormatException e) {
fail("codec format exception");
} catch (InvalidMidiDataException e) {
fail("invalid midi data exception");
}
}
/**
* Converts the given tune to a midi sequence.
*
* @param tune The tune to be converted.
* @return The midi sequence of the tune.
*/
public Sequence toMidiSequence(Tune tune) {
Sequence sequence = null;
try {
if (instrument == null) {
Synthesizer synth = MidiSystem.getSynthesizer();
synth.open();
try {
setInstrument(synth.getAvailableInstruments()[0]);
} finally {
synth.close();
}
}
// Sequence in ticks per quarter note : PPQ = Pulse Per Quarter Note
// Resolution is expressed in ticks per beat.
// Last parameter "1" is the number of tracks.
sequence = new Sequence(Sequence.PPQ, SEQUENCE_RESOLUTION, 1);
// Set the instrument on channel 0
ShortMessage sm = new ShortMessage();
sm.setMessage(ShortMessage.PROGRAM_CHANGE, 0, instrument.getPatch().getProgram(), 0);
Track track = sequence.createTrack();
track.add(new MidiEvent(sm, 0));
// long trackLengthInTicks = track.ticks();
int lastRepeatOpen = -1;
int repeatNumber = 1;
boolean inWrongEnding = false;
KeySignature tuneKey = null;
KeySignature currentKey = null;
Hashtable partsKey = new Hashtable();
long elapsedTime = 0;
NoteAbstract[] graceNotes = null;
Music staff = tune.getMusicForAudioRendition();
Iterator it = staff.getVoices().iterator();
while (it.hasNext()) {
Voice voice = (Voice) it.next();
int i = 0; // StaffItem iterator
while (i < voice.size()) {
if (!inWrongEnding) {
// ==================================================================== TEMPO
if (voice.elementAt(i) instanceof abc.notation.Tempo) {
addTempoEventsFor(
track,
elapsedTime,
getMidiMessagesFor((Tempo) voice.elementAt(i))); // , trackLengthInTicks));
} else
/*if (voice.elementAt(i) instanceof abc.notation.PartLabel) {
//Imagine... part A in Gmaj, B in Amin
//in tune you have K:G, P:A, ... P:B, K:Am
//if you have part order ABA, when you return to A
//you stay in Amin. This stores the tuneKey when a
//new part appear, and restitute it when part is played again
abc.notation.PartLabel pl = (abc.notation.PartLabel) voice.elementAt(i);
if (partsKey.get(pl.getLabel()+"") == null) {
partsKey.put(pl.getLabel()+"", tuneKey);
} else {
tuneKey = (KeySignature) partsKey.get(pl.getLabel()+"");
}
}
else*/
// ==================================================================== KEY SIGNATURE
if (voice.elementAt(i) instanceof abc.notation.KeySignature) {
tuneKey = (KeySignature) (voice.elementAt(i));
currentKey = new KeySignature(tuneKey.getAccidentals());
} else
// ==================================================================== NOTE
// Notes ending ties should be ignored. Already taken into
// account in getNoteLengthInTicks(Note)
if (voice.elementAt(i) instanceof abc.notation.Note
&& !((abc.notation.Note) voice.elementAt(i)).isEndingTie()) {
Note note = (Note) voice.elementAt(i);
long noteDuration;
boolean fermata = false;
Vector decorationNotes = new Vector();
if (note.hasGeneralGracing() || note.hasDecorations()) {
Decoration[] d = note.getDecorations();
for (int j = 0; j < d.length; j++) {
switch (d[j].getType()) {
case Decoration.FERMATA:
case Decoration.FERMATA_INVERTED:
fermata = true;
break;
case Decoration.LOWERMORDENT:
case Decoration.UPPERMORDENT:
case Decoration.DOUBLE_LOWER_MORDANT:
case Decoration.DOUBLE_UPPER_MORDANT:
case Decoration.TRILL:
case Decoration.TURN: // GRUPETTO_UP
case Decoration.TURN_INVERTED: // GRUPETTO_DOWN
case Decoration.TURNX:
case Decoration.TURNX_INVERTED:
Note n = new Note(note.getHeight());
n.setAccidental(note.getAccidental(currentKey));
Note o =
new Interval(Interval.SECOND, Interval.MAJOR, Interval.UPWARD)
.calculateSecondNote(n);
Note m =
new Interval(Interval.SECOND, Interval.MAJOR, Interval.DOWNWARD)
.calculateSecondNote(n);
// TODO ornament templates: regular, musette, balkan...
// n.setStrictDuration(Note.SIXTEENTH);
// o.setDuration((short)(Note.EIGHTH+Note.SIXTEENTH));
o.setAccidental(Accidental.NONE);
m.setAccidental(Accidental.NONE);
n.setStrictDuration(Note.THIRTY_SECOND);
m.setStrictDuration(Note.THIRTY_SECOND);
o.setStrictDuration(Note.THIRTY_SECOND);
switch (d[j].getType()) {
case Decoration.DOUBLE_LOWER_MORDANT:
decorationNotes.add(n);
decorationNotes.add(m);
case Decoration.LOWERMORDENT:
decorationNotes.add(n);
decorationNotes.add(m);
break;
case Decoration.DOUBLE_UPPER_MORDANT:
case Decoration.TRILL:
decorationNotes.add(n);
decorationNotes.add(o);
case Decoration.UPPERMORDENT:
decorationNotes.add(n);
decorationNotes.add(o);
break;
case Decoration.TURNX_INVERTED:
case Decoration.TURN:
decorationNotes.add(o);
decorationNotes.add(n);
decorationNotes.add(m);
break;
case Decoration.TURNX:
case Decoration.TURN_INVERTED:
decorationNotes.add(m);
decorationNotes.add(n);
decorationNotes.add(o);
}
break;
}
}
// currently not used
// future use: playing rolls, slides, etc.
}
long graceNotesDuration = 0;
if (note.hasGracingNotes() || (decorationNotes.size() > 0)) {
graceNotes = note.getGracingNotes();
// gracing are eighth note for graphical rendition
// and because that's it in the parser
// adapt duration to note length
int divisor = 1;
if (note.getStrictDuration() >= Note.HALF) divisor = 1; // grace is an eighth
else if (note.getStrictDuration() >= Note.QUARTER) divisor = 2; // 16th
else if (note.getStrictDuration() >= Note.EIGHTH) divisor = 4; // 32nd
else divisor = 8; // 64th
if (note.hasGracingNotes()) {
for (int j = 0; j < graceNotes.length; j++) {
noteDuration = getNoteLengthInTicks(graceNotes[j], staff) / divisor;
graceNotesDuration += noteDuration;
if (graceNotes[j] instanceof Note)
playNote(
(Note) graceNotes[j], i, currentKey, elapsedTime, noteDuration, track);
else
playMultiNote(
(MultiNote) graceNotes[j],
i,
currentKey, /*elapsedTime,*/
noteDuration,
track,
staff);
elapsedTime += noteDuration;
}
}
for (int j = 0; j < decorationNotes.size(); j++) {
noteDuration = getNoteLengthInTicks((Note) decorationNotes.elementAt(j), staff);
graceNotesDuration += noteDuration;
playNote(
(Note) decorationNotes.elementAt(j),
i,
currentKey,
elapsedTime,
noteDuration,
track);
elapsedTime += noteDuration;
}
}
// The note duration if the note isn't part of a tuplet.
noteDuration = getNoteLengthInTicks(note, staff) - graceNotesDuration;
if (noteDuration <= 0) // in case of too much grace notes
noteDuration = getNoteLengthInTicks(note, staff);
if (fermata) noteDuration *= 2;
playNote(note, i, currentKey, elapsedTime, noteDuration, track);
elapsedTime += noteDuration;
} else
// ==================================================================== MULTI NOTE
if ((voice.elementAt(i) instanceof abc.notation.MultiNote)) {
MultiNote multiNote = (MultiNote) voice.elementAt(i);
playMultiNote(multiNote, i, currentKey, elapsedTime, track, staff);
elapsedTime += getNoteLengthInTicks(multiNote, staff);
}
} // endif (!inWrongEnding)
// ====================================================================== REPEAT BAR LINE
if (voice.elementAt(i) instanceof abc.notation.RepeatBarLine) {
RepeatBarLine bar = (RepeatBarLine) voice.elementAt(i);
if (repeatNumber < bar.getRepeatNumbers()[0] && lastRepeatOpen != -1) {
repeatNumber++;
i = lastRepeatOpen;
} else if (repeatNumber > bar.getRepeatNumbers()[0]) inWrongEnding = true;
else inWrongEnding = false;
} else
// ====================================================================== BAR LINE OPEN /
// CLOSE
if (voice.elementAt(i) instanceof abc.notation.BarLine) {
// currentKey = new KeySignature(tuneKey.getAccidentals());
switch (((BarLine) (voice.elementAt(i))).getType()) {
case BarLine.SIMPLE:
break;
case BarLine.REPEAT_OPEN:
lastRepeatOpen = i;
repeatNumber = 1;
break;
case BarLine.REPEAT_CLOSE:
if (repeatNumber < 2 && lastRepeatOpen != -1) {
repeatNumber++;
i = lastRepeatOpen;
} else {
repeatNumber = 1;
lastRepeatOpen = -1;
}
break;
// TODO case BarLine.BEGIN_AND_END_REPEAT
}
}
// Whatever kind of bar line it is
if (voice.elementAt(i) instanceof abc.notation.BarLine) {
currentKey = new KeySignature(tuneKey.getAccidentals());
}
i++;
} // end while each element in voice
} // end while each voice in music
} catch (InvalidMidiDataException e) {
e.printStackTrace();
} catch (Exception e) {
e.printStackTrace();
}
return sequence;
}
