//-----------------------------------------------------------------------------------------
void MidiNotesToCC::setParameter(VstInt32 index, float value){
MidiNotesToCCProgram* ap = &programs[curProgram];
switch(index){
case kNoteHi :
if (value<fNoteLo) setParameterAutomated(kNoteLo,value);
fNoteHi = ap->fNoteHi = value;
break;
case kNoteLo :
if (value>fNoteHi) setParameterAutomated(kNoteHi,value);
fNoteLo = ap->fNoteLo = value;
break;
case kVeloHi :
if (value<fVeloLo) setParameterAutomated(kVeloLo,value);
fVeloHi = ap->fVeloHi = value;
break;
case kVeloLo :
if (value>fVeloHi) setParameterAutomated(kVeloHi,value);
fVeloLo = ap->fVeloLo = value;
break;
case kChin : fChin = ap->fChin = value; break;
case kNCC : fNCC = ap->fNCC = value; break;
case kNCCoff : fNCCoff = ap->fNCCoff = value; break;
case kNCCHi : fNCCHi = ap->fNCCHi = value; break;
case kNCCLo : fNCCLo = ap->fNCCLo = value; break;
case kVCC : fVCC = ap->fVCC = value; break;
case kVCCoff : fVCCoff = ap->fVCCoff = value; break;
case kVCCHi : fVCCHi = ap->fVCCHi = value; break;
case kVCCLo : fVCCLo = ap->fVCCLo = value; break;
case kChout : fChout = ap->fChout = value; break;
case kThru : fThru = ap->fThru = value; break;
default : break;
}
}
//-----------------------------------------------------------------------------------------
void ForceToRange::setParameter (VstInt32 index, float value) {
if (index < numParams) {
ForceToRangeProgram* ap = &programs[curProgram];
param[index] = ap->param[index] = value;
if (index==kHighNote) {
if (value<param[kLowNote]) setParameterAutomated(kLowNote,value);
}
else if (index==kLowNote) {
if (value>param[kHighNote]) setParameterAutomated(kHighNote,value);
}
}
}
//-----------------------------------------------------------------------------------------
void MidiCCStepper::setParameter(VstInt32 index, float value){
MidiCCStepperProgram* ap = &programs[curProgram];
param[index] = ap->param[index] = value;
switch(index) {
case kLowCC:
if (value>param[kHighCC]) setParameterAutomated(kHighCC,value);
break;
case kHighCC:
if (value<param[kLowCC]) setParameterAutomated(kLowCC,value);
break;
case kTimeQ: //beatdiv = "how many fit in a beat"
if (param[index]==0.0f) beatdiv = 32.0f; //128th
else if (param[index]<0.05f) beatdiv = 24.f; //64th triplet
else if (param[index]<0.1f) beatdiv = 21.33333333f; //dotted 128th
else if (param[index]<0.15f) beatdiv = 16.f; //64th
else if (param[index]<0.2f) beatdiv = 12.f; //32nd triplet
else if (param[index]<0.25f) beatdiv = 10.66666667f; //dotted 64th
else if (param[index]<0.3f) beatdiv = 8.f; //32nd
else if (param[index]<0.35f) beatdiv = 6.f; //16th triplet
else if (param[index]<0.4f) beatdiv = 5.333333333f; //dotted 32nd
else if (param[index]<0.45) beatdiv = 4.f; //16th
else if (param[index]<0.5f) beatdiv = 3.f; //8th triplet
else if (param[index]<0.55f) beatdiv = 2.666666667f; //dotted 16th
else if (param[index]<0.6f) beatdiv = 2.f; //8th
else if (param[index]<0.65f) beatdiv = 1.5f; //quarter triplet
else if (param[index]<0.7f) beatdiv = 1.333333333f; //dotted 8th
else if (param[index]<0.75f) beatdiv = 1.f; //quarter
else if (param[index]<0.8f) beatdiv = 0.75f; //half triplet
else if (param[index]<0.85f) beatdiv = 0.666666667f; //dotted quarter
else if (param[index]<0.9f) beatdiv = 0.5; //half
else if (param[index]<0.95f) beatdiv = 0.375f; //whole triplet
else if (param[index]<1.0f) beatdiv = 0.333333333f; //dotted half
else beatdiv = 0.25f; //whole
break;
//case kBeatOffset:
// if (param[kSync]<0.5f)
// leftOverSamples = roundToInt((float)samplesPerStep*(param[kBeatOffset]/beatdiv));
// break;
default: break;
}
}
// The user has changed some control's value
void ZynWise::ParamChanged(int index, double value)
{
if (index < 0)
return;
if (index < kParamsCount)
// notify the host
setParameterAutomated(index, (float)value);
else
{
_gui->GetView()->OnUpdate(index, value);
}
}
//------------------------------------------------------------------------
void Midi16CCRouter::setProgram (VstInt32 program) {
Midi16CCRouterProgram* ap = &programs[program];
curProgram = program;
if (automated) {
for (int i=0;i<kNumParams;i++) {
setParameterAutomated (i, ap->param[i]);
}
updateDisplay();
automated=false;
}
else {
for (int i=0;i<kNumParams;i++) {
setParameter (i, ap->param[i]);
}
}
}
void MidiChs::Reset() {
setParameterAutomated (kChannel1, CHANNEL_TO_FLOAT(0) );
setParameterAutomated (kChannel2, CHANNEL_TO_FLOAT(1) );
setParameterAutomated (kChannel3, CHANNEL_TO_FLOAT(2) );
setParameterAutomated (kChannel4, CHANNEL_TO_FLOAT(3) );
setParameterAutomated (kChannel5, CHANNEL_TO_FLOAT(4) );
setParameterAutomated (kChannel6, CHANNEL_TO_FLOAT(5) );
setParameterAutomated (kChannel7, CHANNEL_TO_FLOAT(6) );
setParameterAutomated (kChannel8, CHANNEL_TO_FLOAT(7) );
setParameterAutomated (kChannel9, CHANNEL_TO_FLOAT(8) );
setParameterAutomated (kChannel10, CHANNEL_TO_FLOAT(9) );
setParameterAutomated (kChannel11, CHANNEL_TO_FLOAT(10) );
setParameterAutomated (kChannel12, CHANNEL_TO_FLOAT(11) );
setParameterAutomated (kChannel13, CHANNEL_TO_FLOAT(12) );
setParameterAutomated (kChannel14, CHANNEL_TO_FLOAT(13) );
setParameterAutomated (kChannel15, CHANNEL_TO_FLOAT(14) );
setParameterAutomated (kChannel16, CHANNEL_TO_FLOAT(15) );
setParameterAutomated (kClear, 0.4f);
setParameterAutomated (kReset, 0.4f);
updateDisplay();
}
void MidiChs::Clear() {
setParameterAutomated (kChannel1, 0 );
setParameterAutomated (kChannel2, 0 );
setParameterAutomated (kChannel3, 0 );
setParameterAutomated (kChannel4, 0 );
setParameterAutomated (kChannel5, 0 );
setParameterAutomated (kChannel6, 0 );
setParameterAutomated (kChannel7, 0 );
setParameterAutomated (kChannel8, 0 );
setParameterAutomated (kChannel9, 0 );
setParameterAutomated (kChannel10, 0 );
setParameterAutomated (kChannel11, 0 );
setParameterAutomated (kChannel12, 0 );
setParameterAutomated (kChannel13, 0 );
setParameterAutomated (kChannel14, 0 );
setParameterAutomated (kChannel15, 0 );
setParameterAutomated (kChannel16, 0 );
setParameterAutomated (kReset, 0.4f);
setParameterAutomated (kClear, 0.4f);
updateDisplay();
}
void MidiSostenuto::processMidiEvents(VstMidiEventVec *inputs, VstMidiEventVec *outputs, VstInt32 sampleFrames)
{
short outchannel = FLOAT_TO_CHANNEL015(fParam05);
int n;
discard=0;
// use "Pedal Position" parameter as the pedal
CCvalue_current = FLOAT_TO_MIDI(fParam04);
if (CCvalue_current >= PEDAL_THRESHOLD && CCvalue_prev < PEDAL_THRESHOLD) {
sostenuto = 1;
for (n=0; n<128; n++) {
sustained_notes[n] = held_notes[n];
}
}
else if (CCvalue_current < PEDAL_THRESHOLD && CCvalue_prev >= PEDAL_THRESHOLD && sostenuto == 1) {
sostenuto = 0;
for (n=0; n<128; n++) {
if (sustained_notes[n] == 1) {
sustained_notes[n] = 0;
if (held_notes[n] != 1) { //don't turn it off if it's being held manually
VstMidiEvent noteoffplease = inputs[0][0];
noteoffplease.midiData[0] = MIDI_NOTEOFF + outchannel;
noteoffplease.midiData[1] = n;
noteoffplease.midiData[2] = 0;
outputs[0].push_back(noteoffplease);
}
}
}
}
CCvalue_prev = CCvalue_current;
// process incoming events
for (unsigned int i=0; i<inputs[0].size(); i++) {
//copying event "i" from input (with all its fields)
VstMidiEvent tomod = inputs[0][i];
short status = tomod.midiData[0] & 0xf0; // scraping channel
short channel = tomod.midiData[0] & 0x0f; // isolating channel
short data1 = tomod.midiData[1] & 0x7f;
short data2 = tomod.midiData[2] & 0x7f;
short listenCC = FLOAT_TO_MIDI(fParam01);
short lownote = FLOAT_TO_MIDI(fParam02);
short highnote = FLOAT_TO_MIDI(fParam03);
if (channel == outchannel) { //only look at the selected channel
if (status == MIDI_CONTROLCHANGE && data1 == MIDI_ALL_NOTES_OFF) { //handle midi panic
setParameter(kParam04, MIDI_TO_FLOAT(0));
sostenuto = 0;
for (n=0; n<128; n++) {
if (sustained_notes[n] == 1) {
sustained_notes[n] = 0;
VstMidiEvent noteoffplease = inputs[0][i];
noteoffplease.midiData[0] = MIDI_NOTEOFF + outchannel;
noteoffplease.midiData[1] = n;
noteoffplease.midiData[2] = 0;
outputs[0].push_back(noteoffplease);
}
}
}
if (status == MIDI_NOTEON && data2 > 0) {
if (data1 >= lownote && data1 <= highnote) {
if (sostenuto == 1) {
if (sustained_notes[data1] == 1) {
tomod.midiData[0] = MIDI_NOTEOFF + outchannel;
noteon_queue[data1] = 1;
noteon_queue_velocity[data1] = data2;
}
}
held_notes[data1] = 1;
}
}
else if ((status == MIDI_NOTEOFF) || (status == MIDI_NOTEON && data2 == 0)) {
held_notes[data1] = 0;
if (sustained_notes[data1] == 1) {
discard = 1;
}
}
else if (status == MIDI_CONTROLCHANGE && data1 == listenCC) {
setParameterAutomated(kParam04, MIDI_TO_FLOAT(data2)); //energyXT2 used to move the slider with the CC. anybody else?
discard = 1; //don't send the CC through
if (data2 >= PEDAL_THRESHOLD && sostenuto == 0) {
sostenuto = 1;
for (n=0; n<128; n++) {
sustained_notes[n] = held_notes[n];
}
}
else if (data2 < PEDAL_THRESHOLD && sostenuto == 1) {
sostenuto = 0;
for (n=0; n<128; n++) {
if (sustained_notes[n] == 1) {
sustained_notes[n] = 0;
if (held_notes[n] != 1) { //don't turn it off if it's being held manually
VstMidiEvent noteoffplease = inputs[0][i];
noteoffplease.midiData[0] = MIDI_NOTEOFF + outchannel;
noteoffplease.midiData[1] = n;
noteoffplease.midiData[2] = 0;
outputs[0].push_back(noteoffplease);
}
}
}
}
}
}
//pushing back our copied midi event from input, modified or not!
if (discard != 1) outputs[0].push_back(tomod);
//else discard = 0;
//create queued events
for (n=0; n<128; n++) {
if (noteon_queue[n] == 1) {
VstMidiEvent noteonplease = inputs[0][i];
noteonplease.midiData[0] = MIDI_NOTEON + outchannel;
noteonplease.midiData[1] = n;
noteonplease.midiData[2] = (char)noteon_queue_velocity[n];
outputs[0].push_back(noteonplease);
noteon_queue[n] = 0;
}
}
}
}
void MidiKeySplit4::processMidiEvents(VstMidiEventVec *inputs, VstMidiEventVec *outputs, VstInt32 sampleFrames)
{
const char ch = FLOAT_TO_CHANNEL015(param[kInChannel]);
signed char ch1 = FLOAT_TO_CHANNEL(param[kOutChannel1]);
signed char ch2 = FLOAT_TO_CHANNEL(param[kOutChannel2]);
signed char ch3 = FLOAT_TO_CHANNEL(param[kOutChannel3]);
signed char ch4 = FLOAT_TO_CHANNEL(param[kOutChannel4]);
const char split1 = FLOAT_TO_MIDI_X(param[kSplit1]);
const char split2 = FLOAT_TO_MIDI_X(param[kSplit2]);
const char split3 = FLOAT_TO_MIDI_X(param[kSplit3]);
const char transp1 = roundToInt(96.f*param[kTransp1])-48;
const char transp2 = roundToInt(96.f*param[kTransp2])-48;
const char transp3 = roundToInt(96.f*param[kTransp3])-48;
const char transp4 = roundToInt(96.f*param[kTransp4])-48;
// process incoming events
for (unsigned int i=0;i<inputs[0].size();i++) {
//copying event "i" from input (with all its fields)
VstMidiEvent tomod = inputs[0][i];
int status = tomod.midiData[0] & 0xf0; // scraping channel
int channel = tomod.midiData[0] & 0x0f; // isolating channel
int data1 = tomod.midiData[1] & 0x7f;
int data2 = tomod.midiData[2] & 0x7f;
if (status==MIDI_NOTEON && data2==0) status=MIDI_NOTEOFF;
if (ch1==-1) ch1=channel;
if (ch2==-1) ch2=channel;
if (ch3==-1) ch3=channel;
if (ch4==-1) ch4=channel;
if (channel==ch) {
if (status==MIDI_NOTEON) {
if (split1==learn) {
setParameterAutomated(kSplit1,MIDI_TO_FLOAT_X(data1));
}
if (split2==learn) {
setParameterAutomated(kSplit2,MIDI_TO_FLOAT_X(data1));
}
if (split3==learn) {
setParameterAutomated(kSplit3,MIDI_TO_FLOAT_X(data1));
}
if (data1<split1) {
transposed[data1] = transp1;
tomod.midiData[0] = status | ch1;
tomod.midiData[1] = midiLimit(data1+transp1);
}
else if (data1<split2) {
transposed[data1] = transp2;
tomod.midiData[0] = status | ch2;
tomod.midiData[1] = midiLimit(data1+transp2);
}
else if (data1<split3) {
transposed[data1] = transp3;
tomod.midiData[0] = status | ch3;
tomod.midiData[1] = midiLimit(data1+transp3);
}
else {
transposed[data1] = transp4;
tomod.midiData[0] = status | ch4;
tomod.midiData[1] = midiLimit(data1+transp4);
}
}
else if (status==MIDI_NOTEOFF) {
if (data1<split1) {
tomod.midiData[0] = status | ch1;
tomod.midiData[1] = midiLimit(data1+transposed[data1]);
transposed[data1]=-999;
}
else if (data1<split2) {
tomod.midiData[0] = status | ch2;
tomod.midiData[1] = midiLimit(data1+transposed[data1]);
transposed[data1]=-999;
}
else if (data1<split3) {
tomod.midiData[0] = status | ch3;
tomod.midiData[1] = midiLimit(data1+transposed[data1]);
transposed[data1]=-999;
}
else {
tomod.midiData[0] = status | ch4;
tomod.midiData[1] = midiLimit(data1+transposed[data1]);
transposed[data1]=-999;
}
}
if (status==MIDI_POLYKEYPRESSURE) {
if (data1<split1) {
tomod.midiData[0] = status | ch1;
tomod.midiData[1] = midiLimit(data1+transp1);
}
else if (data1<split2) {
tomod.midiData[0] = status | ch2;
tomod.midiData[1] = midiLimit(data1+transp2);
}
else if (data1<split3) {
tomod.midiData[0] = status | ch3;
tomod.midiData[1] = midiLimit(data1+transp3);
}
else {
tomod.midiData[0] = status | ch4;
tomod.midiData[1] = midiLimit(data1+transp4);
}
}
}
outputs[0].push_back(tomod);
}
}
void MidiNoteGroups::processMidiEvents(VstMidiEventVec *inputs, VstMidiEventVec *outputs, VstInt32 samples)
{
//process incoming events-------------------------------------------------------
for (unsigned int i=0;i<inputs[0].size();i++) {
//copying event "i" from input (with all its fields)
VstMidiEvent tomod = inputs[0][i];
const int channel = tomod.midiData[0] & 0x0f; // isolating channel (0-15)
const int data1 = tomod.midiData[1] & 0x7f;
const int data2 = tomod.midiData[2] & 0x7f;
const int status = (tomod.midiData[0] & 0xf0)==MIDI_NOTEON && data2==0 ? MIDI_NOTEOFF : tomod.midiData[0] & 0xf0; // scraping channel
int listenchannel = FLOAT_TO_CHANNEL015(param[kChannel]);
bool discard = param[kThru]<0.5f;
Slot slot[kNumSlots];
for (int s=0;s<kNumSlots;s++) {
slot[s].note = FLOAT_TO_MIDI3(param[kNote+s*3]);
slot[s].playgroup = FLOAT_TO_GROUP(param[kPlay+s*3]);
slot[s].chokegroup = FLOAT_TO_GROUP(param[kChoke+s*3]);
}
if (channel == listenchannel) {
if (status == MIDI_NOTEON) {
for (int i=0;i<kNumSlots;i++) {
if (slot[i].note==learn) {
discard=true;
setParameterAutomated(kNote+i*3,MIDI_TO_FLOAT3(data1));
}
if (data1 == slot[i].note) {
discard=false;
if (slot[i].chokegroup>-1) {
//end other notes in choke group
for (int s=0;s<kNumSlots;s++) {
if (slot[s].chokegroup==slot[i].chokegroup) {
if (notesPlaying[slot[s].note]) {
VstMidiEvent m = tomod;
m.midiData[0] = MIDI_NOTEOFF | channel;
m.midiData[1] = slot[s].note;
m.midiData[2] = 0;
outputs[0].push_back(m);
notesPlaying[slot[s].note]=false;
}
}
}
}
if (slot[i].playgroup>-1) {
//play other notes in play group
for (int s=0;s<kNumSlots;s++) {
if (slot[s].playgroup==slot[i].playgroup) {
if (!notesPlaying[slot[s].note]) {
VstMidiEvent m = tomod;
m.midiData[0] = MIDI_NOTEON | channel;
m.midiData[1] = slot[s].note;
m.midiData[2] = data2;
outputs[0].push_back(m);
notesPlaying[slot[s].note]=true;
}
}
}
}
}
}
if (notesPlaying[data1]) discard=true;
if (!discard) notesPlaying[data1]=true;
}
else if (status == MIDI_NOTEOFF) {
for (int i=0;i<kNumSlots;i++) {
if (data1 == slot[i].note) {
discard=false;
if (slot[i].playgroup>-1) {
//end other notes in play group
for (int s=0;s<kNumSlots;s++) {
if (slot[s].playgroup==slot[i].playgroup) {
if (notesPlaying[slot[s].note]) {
VstMidiEvent m = tomod;
m.midiData[0] = MIDI_NOTEOFF | channel;
m.midiData[1] = slot[s].note;
m.midiData[2] = 0;
outputs[0].push_back(m);
notesPlaying[slot[s].note]=false;
}
}
}
}
}
}
if (!notesPlaying[data1]) discard=true;
if (!discard) notesPlaying[data1]=false;
}
else if (status == MIDI_PROGRAMCHANGE) {
//end playing notes before changing program
for (int i=0;i<128;i++) {
if (notesPlaying[i]) {
VstMidiEvent m = tomod;
m.midiData[0] = MIDI_NOTEOFF | channel;
m.midiData[1] = i;
m.midiData[2] = 0;
notesPlaying[i]=false;
}
}
if (param[kProgCh]>=0.5f) setProgram(data1);
}
}
if (!discard) outputs[0].push_back(tomod);
}//for() inputs loop
wasplaying=isplaying;
}
void MidiForceToKey::processMidiEvents(VstMidiEventVec *inputs, VstMidiEventVec *outputs, VstInt32 sampleFrames)
{
const int tchannel = FLOAT_TO_CHANNEL(fChannel);
const int nchannel = FLOAT_TO_CHANNEL(fNChannel);
int transposey = roundToInt(fTranspose*100.f)-50;
bool noteswitch[12] = {n0>=0.5f,n1>=0.5f,n2>=0.5f,n3>=0.5f,n4>=0.5f,n5>=0.5f,
n6>=0.5f,n7>=0.5f,n8>=0.5f,n9>=0.5f,n10>=0.5f,n11>=0.5f};
for (unsigned int i=0;i<inputs[0].size();i++) {
VstMidiEvent tomod = inputs[0][i];
const int status = tomod.midiData[0] & 0xf0; // scraping channel
const int channel = tomod.midiData[0] & 0x0f; // isolating channel (0-15)
const int data1 = tomod.midiData[1] & 0x7f;
//int data2 = tomod.midiData[2] & 0x7f;
bool discard = false;
if (status==MIDI_PROGRAMCHANGE)
{
if (data1<kNumPrograms && fUsePC>=0.5f) {
setProgram(data1);
updateDisplay();
}
}
//set key notes based on "note channel"
if (channel == nchannel) {
discard = true;
if (isNoteOn(tomod)) {
int n = data1%12;
if (fNChMode<0.5f && !noteswitch[n])
{
noteswitch[n] = true;
setParameterAutomated(k0+n, 1.f);
}
else
{
noteswitch[n] = !noteswitch[n];
setParameterAutomated(k0+n, noteswitch[n] ? 1.f : 0.f);
}
}
else if (isNoteOff(tomod) && fNChMode<0.5f) {
int n = data1%12;
noteswitch[n] = false;
setParameterAutomated(k0+n, 0.f);
}
}
else {
if (isNoteOn(tomod)) {
if (!noteswitch[data1%12]) {
dbg("wrong note " << data1);
int transpose = 0;
int j = -1;
switch (mode)
{
//nearest note, down when tied (same as ndc)
case nearest:
discard = true;
while (j<12) {
if (noteswitch[(data1+j)%12]) {
transpose = j;
discard = false;
break;
}
if (j<0) j = -j;
else j = -j - 1;
}
break;
//always up
case alwaysup:
j = 1;
discard = true;
while (j<12) {
if (noteswitch[(data1+j)%12]) {
transpose = j;
discard = false;
break;
}
j++;
}
break;
//always down
case alwaysdown:
discard = true;
while (j<12) {
if (noteswitch[(data1+j)%12]) {
transpose = j;
discard = false;
break;
}
j--;
}
break;
//block wrong notes
case block:
dbg("block note");
discard = true;
transposed[data1][channel]=-999;
break;
case off:
default:
break;
}
tomod.midiData[1] = data1 + transpose;
}
//transpose based on notes on "transpose channel"
if (channel==tchannel)
{
dbg("tchannel");
discard=true;
int root=FLOAT_TO_MIDI(fRoot);
int m = 0;
int counter=0;
if (tomod.midiData[1] > root) {
while (counter<(tomod.midiData[1]-root)) {
m++;
if (noteswitch[(root+m)%12]) counter++;
if (tomod.midiData[1] - m == root) break;
}
}
else if (tomod.midiData[1] < root) {
while (counter>(tomod.midiData[1]-root)) {
m++;
if (noteswitch[(root-m)%12]) counter--;
if (tomod.midiData[1] + m == root) break;
}
}
transposey = counter;
setParameterAutomated(kTranspose, ((float)(transposey+50))*0.01f);
}
}
}
if (!discard) {
dbg("keep event");
if (isNoteOn(tomod) || status==MIDI_POLYKEYPRESSURE) {
if (transposey > 0) {
//move the note up to the right scale degree
int counter=0;
int m=0;
while (counter<transposey) {
m++;
if (noteswitch[(tomod.midiData[1]+m)%12]) counter++;
if ((tomod.midiData[1]+m) == 127) break;
}
tomod.midiData[1] += m;
}
else if (transposey < 0) {
//move the note down the scale
int counter=0;
int m=0;
while (counter>transposey) {
m++;
if (noteswitch[(tomod.midiData[1]-m)%12]) counter--;
if ((tomod.midiData[1]-m) == 0) break;
}
tomod.midiData[1] -= m;
}
if (isNoteOn(tomod))
transposed[data1][channel] = tomod.midiData[1];
}
else if (isNoteOff(tomod)) {
dbg("noteoff " << data1 << " transposed " << transposed[data1][channel]);
if (channel == tchannel) discard = true;
// always transpose noteoff by the same amount as the noteon was transposed
if (transposed[data1][channel]==-999) discard = true;
else tomod.midiData[1] = transposed[data1][channel];
transposed[data1][channel] = data1;
}
if (!discard) outputs[0].push_back(tomod);
}
}
}
