public void Process(MetaMessage message)
{
#region Require
if (message == null)
{
throw new ArgumentNullException("message");
}
#endregion
#region Guard
if (message.MetaType != MetaType.Tempo)
{
return;
}
#endregion
TempoChangeBuilder builder = new TempoChangeBuilder(message);
// Set the new tempo.
Tempo = builder.Tempo;
}
private void Write(int deltaTicks, MetaMessage message)
{
if (message.MetaType == MetaType.Tempo)
{
// Delta time.
events.AddRange(BitConverter.GetBytes(deltaTicks + offsetTicks));
// Stream ID.
events.AddRange(streamID);
TempoChangeBuilder builder = new TempoChangeBuilder(message);
byte[] t = BitConverter.GetBytes(builder.Tempo);
t[t.Length - 1] = MEVT_SHORTMSG | MEVT_TEMPO;
// Event code.
events.AddRange(t);
offsetTicks = 0;
}
else
{
offsetTicks += deltaTicks;
}
}
public void Process(MetaMessage message)
{
#region Require
if (message == null)
{
throw new ArgumentNullException("message");
}
#endregion
#region Guard
if (message.MetaType != MetaType.Tempo)
{
if (message.MetaType == MetaType.TimeSignature)
{
var ts = new TimeSignatureBuilder(message);
this.ClocksPerMetronomeClick = ts.ClocksPerMetronomeClick;
}
return;
}
#endregion
TempoChangeBuilder builder = new TempoChangeBuilder(message);
// Set the new tempo.
Tempo = builder.Tempo;
}
private void GetTempoDurations()
{
tempoDurations.Clear();
clock.Ppqn = sequence.Division;
clock.Tempo = 500000;
rawDuration = 0;
bool tempoTrackFound = false;
TempoDuration tempoDuration = new TempoDuration();
foreach (Track t in Sequence)
{
IEnumerator <MidiEvent> midiEnumerator = t.Iterator().GetEnumerator();
while (midiEnumerator.MoveNext())
{
MidiEvent e = midiEnumerator.Current;
if (e.MidiMessage.MessageType == MessageType.Meta)
{
var meta = (MetaMessage)e.MidiMessage;
if (meta.MetaType == MetaType.Tempo)
{
tempoTrackFound = true;
TempoChangeBuilder builder = new TempoChangeBuilder(meta);
int newTempo = builder.Tempo;
if (tempoDuration.Tempo != 0)
{
tempoDuration.Length = e.AbsoluteTicks - tempoDuration.Start;
rawDuration += (long)tempoDuration.Tempo * (long)tempoDuration.Length;
tempoDurations.Add(tempoDuration);
tempoDuration = new TempoDuration();
}
tempoDuration.Tempo = newTempo;
tempoDuration.Start = e.AbsoluteTicks;
}
}
}
if (tempoTrackFound)
{
break;
}
}
if (tempoDuration.Tempo == 0)
{
tempoDuration.Tempo = clock.Tempo;
}
tempoDuration.Length = sequence.GetLength() - tempoDuration.Start;
rawDuration += (long)tempoDuration.Tempo * (long)tempoDuration.Length;
tempoDurations.Add(tempoDuration);
// Assign the duration for quick use.
double oldSpeed = Speed;
Speed = 1.0;
duration = TicksToMilliseconds(sequence.GetLength());
Speed = oldSpeed;
}
// ZUZU
/// <summary>
/// Change tempo
/// </summary>
/// <param name="tempo"></param>
public void changeTempo(int tempo)
{
//resumeOriginalclock();
TempoChangeBuilder tc = new TempoChangeBuilder();
tc.Tempo = tempo;
tc.Build();
clock.Process(tc.Result);
}
private static IMidiMessage Convert(Event e, Track track)
{
if (e is NoteEvent)
{
NoteEvent note = (NoteEvent)e;
if (note.Type == NoteEvent.EventType.NoteOff)
{
ChannelMessageBuilder b = new ChannelMessageBuilder();
b.MidiChannel = note.Channel;
b.Command = ChannelCommand.NoteOff;
b.Data1 = ChannelNoteToMidiPitch(note.Pitch);
b.Data2 = ChannelVelocityToMidiVolume(note.Velocity);
b.Build();
return b.Result;
}
else
{
ChannelMessageBuilder b = new ChannelMessageBuilder();
b.MidiChannel = note.Channel;
b.Command = ChannelCommand.NoteOn;
b.Data1 = ChannelNoteToMidiPitch(note.Pitch);
b.Data2 = ChannelVelocityToMidiVolume(note.Velocity);
b.Build();
return b.Result;
}
}
else if (e is TempoEvent)
{
TempoEvent tempoEvent = (TempoEvent)e;
TempoChangeBuilder builder = new TempoChangeBuilder();
// convert BPM to microseconds
builder.Tempo = 60000000 / tempoEvent.TempoBpm;
builder.Build();
return builder.Result;
}
else if (e is TimeSignatureEvent)
{
TimeSignatureEvent timeSignatureEvent = (TimeSignatureEvent)e;
TimeSignatureBuilder builder = new TimeSignatureBuilder();
builder.Numerator = (byte)timeSignatureEvent.BeatsPerBar;
builder.Denominator = (byte)timeSignatureEvent.BeatValue;
builder.ClocksPerMetronomeClick = 24;
builder.ThirtySecondNotesPerQuarterNote = 8;
builder.Build();
return builder.Result;
}
else
{
Debug.Fail("unknown event type " + e.GetType().Name);
return null;
}
}
public GuitarTempo(GuitarMessageList owner, MidiEvent ev)
: base(owner, ev, null, GuitarMessageType.GuitarTempo)
{
if (ev == null)
{
this.Tempo = Utility.DummyTempo;
}
else
{
var cb = new TempoChangeBuilder((MetaMessage)ev.Clone());
this.Tempo = cb.Tempo;
}
}
public void changeTempoByPercent(int percent)
{
TempoChangeBuilder tc = new TempoChangeBuilder();
tc.Tempo = (getTempo() * percent) / 100;
tc.Build();
bool wasPlaying;
lock (lockObject)
{
wasPlaying = playing;
Stop();
clock.Process(tc.Result);
}
lock (lockObject)
{
if (wasPlaying)
{
Continue();
}
}
}
public static NotationTrack parseMidiTrack(Midi.Track track, int division, ref Regex fingerPattern)
{
int microsecondsPerBeat = Midi.PpqnClock.DefaultTempo;
float time = 0;
TrackStatus trackStatus = new TrackStatus();
FingerChordMap fingerMap = new FingerChordMap();
List <Note> notes = new List <Note>();
Regex fingerMetaPattern = new Regex("fingering-marker-pattern:(.*)");
string name = "";
foreach (Midi.MidiEvent e in track.Iterator())
{
time += e.DeltaTicks * microsecondsPerBeat / (division * 1000);
switch (e.MidiMessage.MessageType)
{
case Midi.MessageType.Meta:
Midi.MetaMessage mm = e.MidiMessage as Midi.MetaMessage;
switch (mm.MetaType)
{
case Midi.MetaType.Tempo:
Midi.TempoChangeBuilder builder = new Midi.TempoChangeBuilder(mm);
microsecondsPerBeat = builder.Tempo;
break;
case Midi.MetaType.Text:
{
string text = Encoding.Default.GetString(mm.GetBytes());
var match = fingerMetaPattern.Match(text);
if (match.Success)
{
fingerPattern = new Regex(match.Groups[1].ToString());
Debug.LogFormat("Finger Pattern found: {0}", fingerPattern.ToString());
}
}
break;
case Midi.MetaType.Marker:
if (fingerPattern != null)
{
string text = Encoding.Default.GetString(mm.GetBytes());
var match = fingerPattern.Match(text);
if (match.Success)
{
//Debug.LogFormat("Finger: {0}", text);
try
{
int pitch = int.Parse(match.Groups[1].ToString());
Finger finger = (Finger)int.Parse(match.Groups[2].ToString());
if (!fingerMap.ContainsKey(e.AbsoluteTicks))
{
fingerMap[e.AbsoluteTicks] = new FingerChord();
}
fingerMap[e.AbsoluteTicks][pitch] = finger;
}
catch (System.Exception except)
{
Debug.LogWarningFormat("fingering marker parse failed: {0}, {1}", text, except.Message);
}
}
//else
// Debug.LogWarningFormat("fail marker: {0}", text);
}
break;
case Midi.MetaType.TrackName:
name = Encoding.Default.GetString(mm.GetBytes());
break;
}
break;
case Midi.MessageType.Channel:
Midi.ChannelMessage cm = e.MidiMessage as Midi.ChannelMessage;
if (!trackStatus.ContainsKey(cm.MidiChannel))
{
trackStatus[cm.MidiChannel] = new ChannelStatus();
}
var commandType = cm.Command;
if (commandType == Midi.ChannelCommand.NoteOn && cm.Data2 == 0)
{
commandType = Midi.ChannelCommand.NoteOff;
}
switch (commandType)
{
case Midi.ChannelCommand.NoteOn:
{
int pitch = cm.Data1;
int velocity = cm.Data2;
if (pitch >= Piano.PitchMin && pitch <= Piano.PitchMax)
{
trackStatus[cm.MidiChannel][pitch] = new PitchStatus {
tick = e.AbsoluteTicks, startTime = time, velocity = velocity
}
}
;
}
break;
case Midi.ChannelCommand.NoteOff:
{
int pitch = cm.Data1;
if (!trackStatus[cm.MidiChannel].ContainsKey(pitch))
{
Debug.LogWarningFormat("Unexpected noteOff: {0}, {1}", e.AbsoluteTicks, pitch);
}
else
{
PitchStatus status = trackStatus[cm.MidiChannel][pitch];
Note note = new Note {
tick = status.tick, start = status.startTime, duration = time - status.startTime, pitch = pitch, velocity = status.velocity
};
if (fingerMap.ContainsKey(note.tick) && fingerMap[note.tick].ContainsKey(note.pitch))
{
note.finger = fingerMap[note.tick][note.pitch];
}
notes.Add(note);
}
}
break;
}
break;
}
}
NotationTrack notation = new NotationTrack();
notation.notes = notes.ToArray();
notation.name = name;
return(notation);
}
private void Write(int deltaTicks, MetaMessage message)
{
if(message.MetaType == MetaType.Tempo)
{
// Delta time.
events.AddRange(BitConverter.GetBytes(deltaTicks + offsetTicks));
// Stream ID.
events.AddRange(streamID);
TempoChangeBuilder builder = new TempoChangeBuilder(message);
byte[] t = BitConverter.GetBytes(builder.Tempo);
t[t.Length - 1] = MEVT_SHORTMSG | MEVT_TEMPO;
// Event code.
events.AddRange(t);
offsetTicks = 0;
}
else
{
offsetTicks += deltaTicks;
}
}
/// <summary>
/// Creates a notechart from the specified midi path and the actual charttype
/// (i.e. ExpertSingle from notes.mid). Due to the overhead necessary to
/// parse a midi file. I am going to cram all midi->chart operations into
/// one function call.
/// This function uses the Sanford midi parser. While it is horribly slow
/// on larger (e.g. RB) midis, it works without a hitch on every midi I've
/// come across.
/// </summary>
/// <param name="chartSelection">
/// The information on which particular notechart to use.
/// </param>
/// <param name="chartInfo">The metadata on the chart.</param>
/// <param name="BPMChanges">The list of BPM changes for this chart.</param>
/// <returns>
/// A filled out Notechart containing the needed information from the *.mid file.
/// </returns>
public static Notes ParseMidiInformationSanford(ChartSelection chartSelection,
Info chartInfo,
List<BPMChange> BPMChanges)
{
Notes notechartToReturn = new Notes();
notechartToReturn.instrument = chartSelection.instrument;
notechartToReturn.difficulty = chartSelection.difficulty;
// The following two switch's are used to get the proper midi terminology for
// the selected track and difficulty.
string instrumentPart = null;
int greenKey = 0;
int redKey = 0;
int yellowKey = 0;
int blueKey = 0;
int orangeKey = 0;
switch (chartSelection.instrument)
{
case "Single":
instrumentPart = "PART GUITAR";
break;
case "DoubleGuitar":
instrumentPart = "PART GUITAR COOP";
break;
case "DoubleBass":
instrumentPart = "PART BASS";
break;
case "Drums":
instrumentPart = "PART DRUMS";
break;
default:
instrumentPart = "PART GUITAR";
break;
}
switch (chartSelection.difficulty)
{
case "Expert":
greenKey = 96;
redKey = 97;
yellowKey = 98;
blueKey = 99;
orangeKey = 100;
break;
case "Hard":
greenKey = 84;
redKey = 85;
yellowKey = 86;
blueKey = 87;
orangeKey = 88;
break;
case "Medium":
greenKey = 72;
redKey = 73;
yellowKey = 74;
blueKey = 75;
orangeKey = 76;
break;
case "Easy":
greenKey = 60;
redKey = 61;
yellowKey = 62;
blueKey = 63;
orangeKey = 64;
break;
default:
greenKey = 96;
redKey = 97;
yellowKey = 98;
blueKey = 99;
orangeKey = 100;
break;
}
Sequence mySequence = new Sequence(chartSelection.directory + "\\notes.mid");
Track trackToUse = new Track();
chartInfo.resolution = mySequence.Division;
// Go through each event in the first track (which contains the BPM changes)
// and parse the resulting string.
Track sanTrack = mySequence[0];
foreach (Sanford.Multimedia.Midi.MidiEvent currEvent in sanTrack.Iterator())
{
if (currEvent.MidiMessage.MessageType == MessageType.Meta)
{
MetaMessage currMessage = currEvent.MidiMessage as MetaMessage;
//currTickValue += Convert.ToUInt32(splitEventString[1]);
if (currMessage.MetaType == MetaType.Tempo)
{
TempoChangeBuilder tempoBuilder = new TempoChangeBuilder(currMessage);
int midiBPMChange = tempoBuilder.Tempo;
// In midi files, bpm chages are stored as "microseconds per quarter note"
// and must be converted to BPM, and then into the non decimal format the game
// uses.
double currBPMDouble = 60000000 / (double)midiBPMChange;
uint BPMToAdd = (uint)(currBPMDouble * 1000);
BPMChanges.Add(new BPMChange((uint)currEvent.AbsoluteTicks, (uint)BPMToAdd));
}
}
}
// Find the specified instrument's track
for (int i = 1; i < mySequence.Count; i++)
{
sanTrack = mySequence[i];
Sanford.Multimedia.Midi.MidiEvent currEvent = sanTrack.GetMidiEvent(0);
if (currEvent.MidiMessage.MessageType == MessageType.Meta)
{
MetaMessage currMessage = currEvent.MidiMessage as MetaMessage;
if (currMessage.MetaType == MetaType.TrackName)
{
MetaTextBuilder trackName = new MetaTextBuilder(currMessage);
// -If we come across a "T1 GEMS" track, we're in GH1 territory.
// -GH2/FoF has both PART BASS and PART RHYTHM (one or the other depending
// on the chart).
if ((trackName.Text == instrumentPart) || (trackName.Text == "T1 GEMS") ||
((trackName.Text == "PART RHYTHM") && (instrumentPart == "PART BASS")))
{
trackToUse = sanTrack;
}
}
}
}
Note currNote = new Note();
bool blankNote = true;
// Scan through and record every note specific to the selected difficulty
foreach (Sanford.Multimedia.Midi.MidiEvent currEvent in trackToUse.Iterator())
{
// We need to specify wether a note is blank or not so we don't add
// blank notes from other difficulties into the chart, but if we have
// a filled out note, any nonzero tick value means we are moving to a
// new note, so we must cut our ties and add this note to the chart.
if ((currEvent.DeltaTicks != 0) && !blankNote)
{
notechartToReturn.notes.Add(currNote);
currNote = new Note();
blankNote = true;
}
if (currEvent.MidiMessage.MessageType == MessageType.Channel)
{
ChannelMessage currMessage = currEvent.MidiMessage as ChannelMessage;
if (currMessage.Command == ChannelCommand.NoteOn)
{
// Only consider notes within the octave our difficulty is in.
if (((currMessage.Data1 == greenKey) || (currMessage.Data1 == redKey) ||
(currMessage.Data1 == yellowKey) || (currMessage.Data1 == blueKey) ||
(currMessage.Data1 == orangeKey)) && (currMessage.Data2 != 0))
{
// If it's a new note, we need to setup the tick value of it.
if (blankNote)
{
//currNote.TickValue = totalTickValue;
currNote.tickValue = (uint)currEvent.AbsoluteTicks;
blankNote = false;
}
if (currMessage.Data1 == greenKey) { currNote.addNote(0); }
else if (currMessage.Data1 == redKey) { currNote.addNote(1); }
else if (currMessage.Data1 == yellowKey) { currNote.addNote(2); }
else if (currMessage.Data1 == blueKey) { currNote.addNote(3); }
else if (currMessage.Data1 == orangeKey) { currNote.addNote(4); }
}
}
}
}
return notechartToReturn;
}
public MetaMessage BuildMessage()
{
var b = new TempoChangeBuilder();
b.Tempo = (int)Tempo;
b.Build();
return b.Result;
}
public void Process(MetaMessage message)
{
#region Require
if(message == null)
{
throw new ArgumentNullException("message");
}
#endregion
#region Guard
if(message.MetaType != MetaType.Tempo)
{
return;
}
#endregion
TempoChangeBuilder builder = new TempoChangeBuilder(message);
// Set the new tempo.
Tempo = builder.Tempo;
}
public void Process(MetaMessage message)
{
#region Require
if (message == null)
{
throw new ArgumentNullException("message");
}
#endregion
#region Guard
if (message.MetaType != MetaType.Tempo)
{
if (message.MetaType == MetaType.TimeSignature)
{
var ts = new TimeSignatureBuilder(message);
this.ClocksPerMetronomeClick = ts.ClocksPerMetronomeClick;
}
return;
}
#endregion
TempoChangeBuilder builder = new TempoChangeBuilder(message);
// Set the new tempo.
Tempo = builder.Tempo;
}
static void Main(string[] args)
{
bool outputMidiVelocity = false;
//var filename = "01-v-drac.s3m";
//S3MFile f = S3MFile.Parse(filename);
//var tempo = 60000000 / (f.Header.InitialTempo);
//byte numerator = 4;
//byte denominator = 4;
//var speed = 3;
//var skip = 0;
var filename = "02-v-bewm.s3m";
S3MFile f = S3MFile.Parse(filename);
var tempo = 60000000 / (f.Header.InitialTempo);
byte numerator = 4;
byte denominator = 4;
var speed = 3;
var skip = 0;
outputMidiVelocity = true;
/*
var filename = "V-OPTION.S3M";
S3MFile f = S3MFile.Parse(filename);
var tempo = 60000000 / (f.Header.InitialTempo);
byte numerator = 6;
byte denominator = 8;
var speed = 3;
var skip = 4;
*/
/*
var filename = "V-FALCON.S3M";
S3MFile f = S3MFile.Parse(filename);
var tempo = 60000000 / (1 * f.Header.InitialTempo);
byte numerator = 4;
byte denominator = 4;
var speed = 3;
var skip = 0;
*/
/*
var filename = "V-CONTRA.IT";
S3MFile f = S3MFile.Parse(filename);
var tempo = 60000000 / (1 * f.Header.InitialTempo);
byte numerator = 4;
byte denominator = 4;
var speed = 3;
var skip = 0;
* */
/*
var filename = "V-BLAST.S3M";
S3MFile f = S3MFile.Parse(filename);
var tempo = 60000000 / (1 * f.Header.InitialTempo);
byte numerator = 4;
byte denominator = 4;
var speed = 3;
var skip = 0;*/
Sequence s = new Sequence();
Track t1 = new Track();
Track t2 = new Track();
Track t3 = new Track();
Track drums = new Track();
Track kick = new Track();
Track timeTrack = new Track();
s.Add(timeTrack);
s.Add(t1);
s.Add(t2);
s.Add(t3);
//s.Add(drums);
//s.Add(kick);
var drumPC = new ChannelMessageBuilder();
drumPC.MidiChannel = 09;
drumPC.Command = ChannelCommand.ProgramChange;
drumPC.Data1 = 0;// 79 + ce.Instrument;
drumPC.Build();
drums.Insert(0, drumPC.Result);
kick.Insert(0, drumPC.Result);
TimeSignatureBuilder tsb = new TimeSignatureBuilder();
tsb.Numerator = numerator;
tsb.Denominator = denominator;
tsb.ClocksPerMetronomeClick = 24;
tsb.ThirtySecondNotesPerQuarterNote = 8;
tsb.Build();
timeTrack.Insert(0, tsb.Result);
TempoChangeBuilder tcb = new TempoChangeBuilder();
tcb.Tempo = tempo;
tcb.Build();
timeTrack.Insert(0, tcb.Result);
var outputPatterns = new int[] { 5, 6, 7};
//var c1 = (from p in f.OrderedPatterns
// where patterns.Contains(p.PatternNumber)
// select p)
// .SelectMany(p => p.Channels)
// .Where(c => c.ChannelNumber == 1)
// .SelectMany(ce => ce.ChannelEvents);
//var c2 = (from p in f.OrderedPatterns
// where patterns.Contains(p.PatternNumber)
// select p)
// .SelectMany(p => p.Channels)
// .Where(c => c.ChannelNumber == 2)
// .SelectMany(ce => ce.ChannelEvents);
//var c3 = (from p in f.OrderedPatterns
// where patterns.Contains(p.PatternNumber)
// select p)
// .SelectMany(p => p.Channels)
// .Where(c => c.ChannelNumber == 3)
// .SelectMany(ce => ce.ChannelEvents);
var patterns = from p in f.OrderedPatterns.Skip(skip) /*where outputPatterns.Contains(p.PatternNumber) */select p;
//.SelectMany(p => p.Rows);
Dictionary<int, TrackInfo> tracks = new Dictionary<int, TrackInfo>();
tracks.Add(1, new TrackInfo(t1));
tracks[1].Channel = 0;
tracks.Add(2, new TrackInfo(t2));
tracks[2].Channel = 1;
tracks.Add(3, new TrackInfo(t3));
tracks[3].Channel = 2;
var di = new TrackInfo(drums);
di.Channel = 9;
var mapper = new Func<ChannelEvent, int>(ce =>
{
switch (ce.Instrument)
{
case 6:
return 42;
case 8:
return 35;
case 9:
return 38;
case 10:
return 47;
default:
Debug.Fail(ce.Instrument.ToString());
return 0;
}
});
di.NoteMapper = mapper;
var kickInfo = new TrackInfo(kick);
kickInfo.Channel = 9;
kickInfo.NoteMapper = mapper;
tracks.Add(4, di);
tracks.Add(5, kickInfo);
var tick = 0;
foreach (var pattern in patterns)
{
bool breakPattern = false;
foreach (var row in pattern.Rows)
{
//if ((row.RowNumber-1) % 16 == 0)
//{
// drums.Insert(tick, kickOn);
// drums.Insert(tick + speed, kickOff);
//}
foreach (var ce in row.ChannelEvents)
{
if (ce == null)
{
//Console.Out.WriteLine("skip");
continue;
}
if (ce.Command == 3)
{
var modulo = row.RowNumber % 32;
if (modulo != 0)
{
// sad to say, not sure why mod 8 but divide by 16 works
var m8 = row.RowNumber % 8;
if (m8 == 0)
{
var restore = tsb.Result;
tsb.Numerator = (byte)(row.RowNumber / 16);
tsb.Build();
var change = tsb.Result;
timeTrack.Insert(tick, change);
timeTrack.Insert(tick + 3, restore);
}
}
//Debugger.Break();
// pattern break
// figure out the time signature of the pattern up to this point
// then go back and insert a time signature change message at the beginning
// of the pattern
// and another one at the end to revert
//var restore = tsb.Result;
//tsb.Numerator = 2;
//tsb.Build();
//var change = tsb.Result;
//timeTrack.Insert(rowStartTick, change);
//timeTrack.Insert(tick + 3, restore);
breakPattern = true;
}
if (!tracks.ContainsKey(ce.ChannelNumber)) continue;
TrackInfo ti = tracks[ce.ChannelNumber];
if (ce.Note == -1 )
{
// skip
}
else if( ce.Note == 0xFF)
{
// re-use current note, but change instrument
//Console.Out.WriteLine("skip");
}
else if (ce.Note == 0xFE) //off
{
if (ti.LastPitch != -1)
{
NoteOff(tick, ti);
}
}
else
{
//if (ce.Volume != -1 && ce.Volume < 32) continue;
if (ti.LastPitch != -1)
{
NoteOff(tick, ti);
}
//p = ProgramChange(ti.Track, tick, p, ce);
var delay = 0;
if (ce.Command == 19)
{
if (208 <= ce.Data && ce.Data <= 214) // HACK: 214 is a guess at the top range of SD commands
{
delay = ce.Data - 208;
Debug.Assert(delay >= 0);
}
}
NoteOn(tick + delay, ti, ce);
}
}
tick += speed;
if (breakPattern)
{
break;
}
}
}
foreach (var pair in tracks)
{
if (pair.Value.LastPitch != -1)
{
NoteOff(tick, pair.Value);
}
}
foreach (MidiEvent m in drums.Iterator().Take(5))
{
if (m.MidiMessage is ChannelMessage)
{
ChannelMessage cm = (ChannelMessage)m.MidiMessage;
Console.Out.WriteLine("{0} {1}", m.AbsoluteTicks, cm.Command);
}
}
s.Save(Path.ChangeExtension(filename, ".mid"));
/*
var tick = 0;
var speed = 3;
var lastNote = -1;
var p = -1;
foreach (var ce in c1)
{
if (ce == null || ce.Note == -1 || ce.Note == 0xFF)
{
tick += speed;
Console.Out.WriteLine("skip");
continue;
}
else if (ce.Note == 0xFE) //off
{
lastNote = NoteOff(t, tick, lastNote);
}
else
{
if (lastNote != -1)
{
lastNote = NoteOff(t, tick, lastNote);
}
p = ProgramChange(t, tick, p, ce);
var delay = 0;
if (ce.Command == 19)
{
if (208 <= ce.Data && ce.Data <= 214) // HACK: 214 is a guess at the top range of SD commands
{
delay = ce.Data - 208;
Debug.Assert(delay >= 0);
}
}
lastNote = NoteOn(t, tick + delay, ce.Note);
}
tick += speed;
}
lastNote = NoteOff(t, tick, lastNote);
*
* */
}