Automated prettifier and tabulator

This commit is contained in:
John Stäck 2019-03-02 09:46:26 +01:00
parent 3aa427fdd5
commit ca90f8f664

429
NuEVI.ino
View file

@ -638,7 +638,7 @@ void setup() {
void loop() {
breathFilter.input(analogRead(breathSensorPin));
pressureSensor = constrain((int)breathFilter.output(),0,4095); // Get the filtered pressure sensor reading from analog pin A0, input from sensor MP3V5004GP
pressureSensor = constrain((int) breathFilter.output(), 0, 4095); // Get the filtered pressure sensor reading from analog pin A0, input from sensor MP3V5004GP
//pressureSensor = analogRead(A0);
//pressureSensor = smooth(analogRead(0), filterVal, smoothedVal); // second parameter determines smoothness - 0 is off, .9999 is max smooth
if (mainState == NOTE_OFF) {
@ -662,10 +662,10 @@ void loop() {
mainState = RISE_WAIT; // Go to next state
}
if (legacy || legacyBrAct) {
if (((pbUp > ((pitchbMaxVal + pitchbThrVal)/2)) && (pbDn > ((pitchbMaxVal + pitchbThrVal)/2)) && legacy) || ((analogRead(0) < (breathCalZero - 800)) && legacyBrAct) && (pbUp > ((pitchbMaxVal + pitchbThrVal)/2)) && (pbDn < ((pitchbMaxVal + pitchbThrVal)/2))) { // both pb pads touched or br suck
if (((pbUp > ((pitchbMaxVal + pitchbThrVal) / 2)) && (pbDn > ((pitchbMaxVal + pitchbThrVal) / 2)) && legacy) || ((analogRead(0) < (breathCalZero - 800)) && legacyBrAct) && (pbUp > ((pitchbMaxVal + pitchbThrVal) / 2)) && (pbDn < ((pitchbMaxVal + pitchbThrVal) / 2))) { // both pb pads touched or br suck
readSwitches();
fingeredNoteUntransposed=patchLimit(fingeredNoteUntransposed+1);
if (exSensor >= ((extracThrVal+extracMaxVal)/2)){ // instant midi setting
fingeredNoteUntransposed = patchLimit(fingeredNoteUntransposed + 1);
if (exSensor >= ((extracThrVal + extracMaxVal) / 2)) { // instant midi setting
if ((fingeredNoteUntransposed >= 73) && (fingeredNoteUntransposed <= 88)) {
MIDIchannel = fingeredNoteUntransposed - 72; // Mid C and up
digitalWrite(statusLedPin, LOW);
@ -673,8 +673,8 @@ void loop() {
digitalWrite(statusLedPin, HIGH);
}
} else {
if (!pinkyKey){ // note number to patch number
if (patch != fingeredNoteUntransposed){
if (!pinkyKey) { // note number to patch number
if (patch != fingeredNoteUntransposed) {
patch = fingeredNoteUntransposed;
doPatchUpdate = 1;
digitalWrite(statusLedPin, LOW);
@ -682,8 +682,8 @@ void loop() {
digitalWrite(statusLedPin, HIGH);
}
} else { // hi and lo patch numbers
if (fingeredNoteUntransposed > 75){
if (patch != patchLimit(fingeredNoteUntransposed + 24)){
if (fingeredNoteUntransposed > 75) {
if (patch != patchLimit(fingeredNoteUntransposed + 24)) {
patch = patchLimit(fingeredNoteUntransposed + 24); // add 24 to get high numbers 108 to 127
doPatchUpdate = 1;
digitalWrite(statusLedPin, LOW);
@ -691,7 +691,7 @@ void loop() {
digitalWrite(statusLedPin, HIGH);
}
} else {
if (patch != patchLimit(fingeredNoteUntransposed - 36)){
if (patch != patchLimit(fingeredNoteUntransposed - 36)) {
patch = patchLimit(fingeredNoteUntransposed - 36); // subtract 36 to get low numbers 0 to 36
doPatchUpdate = 1;
digitalWrite(statusLedPin, LOW);
@ -701,22 +701,36 @@ void loop() {
}
}
}
}
else {
if (pbDn > (pitchbMaxVal + pitchbThrVal)/2 && (analogRead(0) < (breathCalZero - 800)) && programonce == false) { // down bend for suck programming button
} else {
if (pbDn > (pitchbMaxVal + pitchbThrVal) / 2 && (analogRead(0) < (breathCalZero - 800)) && programonce == false) { // down bend for suck programming button
programonce = true;
readSwitches();
if (octaveR == 0) { //lowest octave position
if (K1 && K2 && !K3 &&K4) { patch = patch -10; doPatchUpdate = 1; } // e28 send patch change -10
else if (K1 && !K2 && !K3 && K4) { patch--; doPatchUpdate = 1; } //f29 decrement and send patch change
else if (!K1 && K2 && !K3 && K4) {patch = patch +10; doPatchUpdate = 1; } //f#30 send patch change +10
else if (!K1 && !K2 && !K3 &&K4) { patch++; doPatchUpdate = 1; } //g31 increment and send patch change
if (!K1 && !K2 && K3 &&!K4) { //send reverb pitchlatch value
if (K1 && K2 && !K3 && K4) { // e28 send patch change -10
patch = patch - 10;
doPatchUpdate = 1;
} else if (K1 && !K2 && !K3 && K4) { //f29 decrement and send patch change
patch--;
doPatchUpdate = 1;
} else if (!K1 && K2 && !K3 && K4) { //f#30 send patch change +10
patch = patch + 10;
doPatchUpdate = 1;
} else if (!K1 && !K2 && !K3 && K4) { //g31 increment and send patch change
patch++;
doPatchUpdate = 1;
}
if (!K1 && !K2 && K3 && !K4) { //send reverb pitchlatch value
reverb = ((pitchlatch - 36) * 2);
if (reverb > 127) {reverb = 127;}
if (reverb < 0) {reverb = 0;}
midiSendControlChange(91,reverb);
if (reverb > 127) {
reverb = 127;
}
if (reverb < 0) {
reverb = 0;
}
midiSendControlChange(91, reverb);
}
}
@ -724,35 +738,37 @@ void loop() {
// breathCC value is from cclist[] which assigns controller number
if (K1) { //turn on midi volume
breathCC = 3;
midiSendControlChange(7,0); //midi vol to 0
midiSendControlChange(11,127); //midi expression to 127
midiSendControlChange(7, 0); //midi vol to 0
midiSendControlChange(11, 127); //midi expression to 127
}
if (K3) { //turn on midi breath controller
breathCC = 2;
midiSendControlChange(7,127); //midi vol to 127
midiSendControlChange(11,127); //midi expression to 127
midiSendControlChange(7, 127); //midi vol to 127
midiSendControlChange(11, 127); //midi expression to 127
}
if (K4) { //sb turn on midi expression
breathCC = 4;
midiSendControlChange(7,127); //midi vol to 127
midiSendControlChange(11,0); //midi expression to 0
midiSendControlChange(7, 127); //midi vol to 127
midiSendControlChange(11, 0); //midi expression to 0
}
if (K2) { //2v turn on aftertouch
breathAT = 1;
midiSendControlChange(7,127); //midi vol to 127
midiSendControlChange(11,127); //midi expression to 0
midiSendControlChange(7, 127); //midi vol to 127
midiSendControlChange(11, 127); //midi expression to 0
} else {
breathAT = 0;
}
else { breathAT = 0; }
if (K5) { //1tr turn on velocity
velocity = 0;
midiSendControlChange(7,127); //midi vol to 127
midiSendControlChange(11,127); //midi expression to 0
midiSendControlChange(7, 127); //midi vol to 127
midiSendControlChange(11, 127); //midi expression to 0
} else {
velocity = 127;
}
else { velocity = 127; }
if (!K1 && !K3 && !K4) {
breathCC = 0;
midiSendControlChange(7,127); //midi vol to 127
midiSendControlChange(11,127); //midi expression to 127
midiSendControlChange(7, 127); //midi vol to 127
midiSendControlChange(11, 127); //midi expression to 127
}
}
}
@ -761,10 +777,9 @@ void loop() {
if (analogRead(0) > (breathCalZero - 800)) programonce = false;
specialKey=(touchRead(specialKeyPin) > touch_Thr); //S2 on pcb
if (lastSpecialKey != specialKey ){
if (specialKey){
specialKey = (touchRead(specialKeyPin) > touch_Thr); //S2 on pcb
if (lastSpecialKey != specialKey) {
if (specialKey) {
// special key just pressed, check other keys
readSwitches();
if (K4) {
@ -787,13 +802,13 @@ void loop() {
rotatorOn = 0;
} else subOctaveDouble = 0;
}
if (!K1 && !K4 && !K5){
if (!K1 && !K4 && !K5) {
slurSustain = 0;
parallelChord = 0;
subOctaveDouble = 0;
rotatorOn = 0;
}
if (pinkyKey){
if (pinkyKey) {
if (!rotatorOn) {
rotatorOn = 1;
slurSustain = 0;
@ -812,45 +827,46 @@ void loop() {
// Yes, so calculate MIDI note and velocity, then send a note on event
readSwitches();
// We should be at tonguing peak, so set velocity based on current pressureSensor value unless fixed velocity is set
breathLevel=constrain(max(pressureSensor,initial_breath_value),breathThrVal,breathMaxVal);
breathLevel = constrain(max(pressureSensor, initial_breath_value), breathThrVal, breathMaxVal);
if (!velocity) {
unsigned int breathValHires = breathCurve(map(constrain(breathLevel,breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,0,16383));
velocitySend = (breathValHires >>7) & 0x007F;
velocitySend = constrain(velocitySend+velocitySend*.1*velBias,1,127);
unsigned int breathValHires = breathCurve(map(constrain(breathLevel, breathThrVal, breathMaxVal), breathThrVal, breathMaxVal, 0, 16383));
velocitySend = (breathValHires >> 7) & 0x007F;
velocitySend = constrain(velocitySend + velocitySend * .1 * velBias, 1, 127);
//velocitySend = map(constrain(max(pressureSensor,initial_breath_value),breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,1,127);
} else velocitySend = velocity;
breath(); // send breath data
fingeredNote=noteValueCheck(fingeredNote);
if (priority){ // mono prio to last chord note
fingeredNote = noteValueCheck(fingeredNote);
if (priority) { // mono prio to last chord note
midiSendNoteOn(fingeredNote, velocitySend); // send Note On message for new note
}
if (parallelChord) {
for (int i=0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote+slurInterval[i]), velocitySend); // send Note On message for new note
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote + slurInterval[i]), velocitySend); // send Note On message for new note
}
}
if (slurSustain) {
midiSendControlChange(64,127);
midiSendControlChange(64, 127);
slurBase = fingeredNote;
addedIntervals = 0;
}
if (subOctaveDouble) {
midiSendNoteOn(noteValueCheck(fingeredNote-12), velocitySend);
if (parallelChord){
for (int i=0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote+slurInterval[i]-12), velocitySend); // send Note On message for new note
midiSendNoteOn(noteValueCheck(fingeredNote - 12), velocitySend);
if (parallelChord) {
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote + slurInterval[i] - 12), velocitySend); // send Note On message for new note
}
}
}
if (rotatorOn) {
midiSendNoteOn(noteValueCheck(fingeredNote+parallel), velocitySend); // send Note On message for new note
if (currentRotation < 3) currentRotation++; else currentRotation = 0;
midiSendNoteOn(noteValueCheck(fingeredNote+rotations[currentRotation]), velocitySend); // send Note On message for new note
midiSendNoteOn(noteValueCheck(fingeredNote + parallel), velocitySend); // send Note On message for new note
if (currentRotation < 3) currentRotation++;
else currentRotation = 0;
midiSendNoteOn(noteValueCheck(fingeredNote + rotations[currentRotation]), velocitySend); // send Note On message for new note
}
if (!priority) { // mono prio to base note
midiSendNoteOn(fingeredNote, velocitySend); // send Note On message for new note
}
activeNote=fingeredNote;
activeNote = fingeredNote;
mainState = NOTE_ON;
}
} else {
@ -861,38 +877,38 @@ void loop() {
} else if (mainState == NOTE_ON) {
if ((pressureSensor < breathThrVal) && !gateOpen) {
// Value has fallen below threshold - turn the note off
activeNote=noteValueCheck(activeNote);
if (priority){
activeNote = noteValueCheck(activeNote);
if (priority) {
midiSendNoteOff(activeNote); // send Note Off message
}
if (parallelChord) {
for (int i=0; i < addedIntervals; i++){
midiSendNoteOff(noteValueCheck(activeNote+slurInterval[i])); // send Note On message for new note
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote + slurInterval[i])); // send Note On message for new note
}
}
if (subOctaveDouble) {
midiSendNoteOff(noteValueCheck(activeNote-12));
if (parallelChord){
for (int i=0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote+slurInterval[i]-12)); // send Note On message for new note
midiSendNoteOff(noteValueCheck(activeNote - 12));
if (parallelChord) {
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote + slurInterval[i] - 12)); // send Note On message for new note
}
}
}
if (rotatorOn) {
midiSendNoteOff(noteValueCheck(activeNote+parallel)); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote+rotations[currentRotation])); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote + parallel)); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote + rotations[currentRotation])); // send Note Off message for old note
}
if (!priority) {
midiSendNoteOff(activeNote); // send Note Off message
}
if (slurSustain) {
midiSendControlChange(64,0);
midiSendControlChange(64, 0);
}
breathLevel=0;
breathLevel = 0;
mainState = NOTE_OFF;
} else {
readSwitches();
if (fingeredNote != lastFingering){ //
if (fingeredNote != lastFingering) { //
// reset the debouncing timer
lastDeglitchTime = millis();
}
@ -904,59 +920,59 @@ void loop() {
// Send a note off for the current note and a note on for
// the new note.
if (!velocity) {
unsigned int breathValHires = breathCurve(map(constrain(breathLevel,breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,0,16383));
velocitySend = (breathValHires >>7) & 0x007F;
velocitySend = constrain(velocitySend+velocitySend*.1*velBias,1,127);
unsigned int breathValHires = breathCurve(map(constrain(breathLevel, breathThrVal, breathMaxVal), breathThrVal, breathMaxVal, 0, 16383));
velocitySend = (breathValHires >> 7) & 0x007F;
velocitySend = constrain(velocitySend + velocitySend * .1 * velBias, 1, 127);
//velocitySend = map(constrain(pressureSensor,breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,7,127); // set new velocity value based on current pressure sensor level
}
activeNote=noteValueCheck(activeNote);
if ((parallelChord || subOctaveDouble || rotatorOn) && priority){ // poly playing, send old note off before new note on
activeNote = noteValueCheck(activeNote);
if ((parallelChord || subOctaveDouble || rotatorOn) && priority) { // poly playing, send old note off before new note on
midiSendNoteOff(activeNote); // send Note Off message for old note
}
if (parallelChord) {
for (int i=0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote+slurInterval[i])); // send Note Off message for old note
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote + slurInterval[i])); // send Note Off message for old note
}
}
if (subOctaveDouble) {
midiSendNoteOff(noteValueCheck(activeNote-12)); // send Note Off message for old note
if (parallelChord){
for (int i=0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote+slurInterval[i]-12)); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote - 12)); // send Note Off message for old note
if (parallelChord) {
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOff(noteValueCheck(activeNote + slurInterval[i] - 12)); // send Note Off message for old note
}
}
}
if (rotatorOn) {
midiSendNoteOff(noteValueCheck(activeNote+parallel)); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote+rotations[currentRotation])); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote + parallel)); // send Note Off message for old note
midiSendNoteOff(noteValueCheck(activeNote + rotations[currentRotation])); // send Note Off message for old note
}
if ((parallelChord || subOctaveDouble || rotatorOn) && !priority) { // poly playing, send old note off before new note on
midiSendNoteOff(activeNote); // send Note Off message for old note
}
fingeredNote=noteValueCheck(fingeredNote);
fingeredNote = noteValueCheck(fingeredNote);
if (priority) {
midiSendNoteOn(fingeredNote, velocitySend); // send Note On message for new note
}
if (parallelChord) {
for (int i=0; i < addedIntervals; i++){
midiSendNoteOn(noteValueCheck(fingeredNote+slurInterval[i]), velocitySend); // send Note On message for new note
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote + slurInterval[i]), velocitySend); // send Note On message for new note
}
}
if (subOctaveDouble) {
midiSendNoteOn(noteValueCheck(fingeredNote-12), velocitySend); // send Note On message for new note
if (parallelChord){
for (int i=0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote+slurInterval[i]-12), velocitySend); // send Note On message for new note
midiSendNoteOn(noteValueCheck(fingeredNote - 12), velocitySend); // send Note On message for new note
if (parallelChord) {
for (int i = 0; i < addedIntervals; i++) {
midiSendNoteOn(noteValueCheck(fingeredNote + slurInterval[i] - 12), velocitySend); // send Note On message for new note
}
}
}
if (rotatorOn) {
midiSendNoteOn(noteValueCheck(fingeredNote+parallel), velocitySend); // send Note On message for new note
if (currentRotation < 3) currentRotation++; else currentRotation = 0;
midiSendNoteOn(noteValueCheck(fingeredNote+rotations[currentRotation]), velocitySend); // send Note On message for new note
midiSendNoteOn(noteValueCheck(fingeredNote + parallel), velocitySend); // send Note On message for new note
if (currentRotation < 3) currentRotation++;
else currentRotation = 0;
midiSendNoteOn(noteValueCheck(fingeredNote + rotations[currentRotation]), velocitySend); // send Note On message for new note
}
if (!priority) {
@ -970,10 +986,10 @@ void loop() {
if (slurSustain) {
if (addedIntervals < 9) {
addedIntervals++;
slurInterval[addedIntervals-1] = fingeredNote - slurBase;
slurInterval[addedIntervals - 1] = fingeredNote - slurBase;
}
}
activeNote=fingeredNote;
activeNote = fingeredNote;
}
}
}
@ -984,7 +1000,7 @@ void loop() {
// deal with Breath, Pitch Bend, Modulation, etc.
if (!slowMidi) breath();
halfTime = !halfTime;
if (halfTime){
if (halfTime) {
pitch_bend();
portamento_();
} else {
@ -995,18 +1011,18 @@ void loop() {
}
ccSendTime = millis();
}
if (millis() - pixelUpdateTime > pixelUpdateInterval){
if (millis() - pixelUpdateTime > pixelUpdateInterval) {
// even if we just alter a pixel, the whole display is redrawn (35ms of MPU lockup) and we can't do that all the time
// this is one of the big reasons the display is for setup use only
drawSensorPixels(); // live sensor monitoring for the setup screens
if (rotatorOn || slurSustain || parallelChord || subOctaveDouble || gateOpen) {
digitalWrite(statusLedPin,!digitalRead(statusLedPin));
digitalWrite(statusLedPin, !digitalRead(statusLedPin));
} else if (!digitalRead(statusLedPin)) {
digitalWrite(statusLedPin,HIGH);
digitalWrite(statusLedPin, HIGH);
}
pixelUpdateTime = millis();
}
lastFingering=fingeredNote;
lastFingering = fingeredNote;
//do menu stuff
menu();
}
@ -1015,22 +1031,21 @@ void loop() {
// non linear mapping function (http://playground.arduino.cc/Main/MultiMap)
// note: the _in array should have increasing values
unsigned int multiMap(unsigned int val, unsigned int* _in, unsigned int* _out, uint8_t size)
{
unsigned int multiMap(unsigned int val, unsigned int * _in, unsigned int * _out, uint8_t size) {
// take care the value is within range
// val = constrain(val, _in[0], _in[size-1]);
if (val <= _in[0]) return _out[0];
if (val >= _in[size-1]) return _out[size-1];
if (val >= _in[size - 1]) return _out[size - 1];
// search right interval
uint8_t pos = 1; // _in[0] allready tested
while(val > _in[pos]) pos++;
while (val > _in[pos]) pos++;
// this will handle all exact "points" in the _in array
if (val == _in[pos]) return _out[pos];
// interpolate in the right segment for the rest
return (val - _in[pos-1]) * (_out[pos] - _out[pos-1]) / (_in[pos] - _in[pos-1]) + _out[pos-1];
return (val - _in[pos - 1]) * (_out[pos] - _out[pos - 1]) / (_in[pos] - _in[pos - 1]) + _out[pos - 1];
}
//**************************************************************
@ -1038,22 +1053,22 @@ unsigned int multiMap(unsigned int val, unsigned int* _in, unsigned int* _out, u
// map breath values to selected curve
unsigned int breathCurve(unsigned int inputVal) {
// 0 to 16383, moving mid value up or down
switch (curve){
switch (curve) {
case 0:
// -4
return multiMap(inputVal,curveIn,curveM4,17);
return multiMap(inputVal, curveIn, curveM4, 17);
break;
case 1:
// -3
return multiMap(inputVal,curveIn,curveM3,17);
return multiMap(inputVal, curveIn, curveM3, 17);
break;
case 2:
// -2
return multiMap(inputVal,curveIn,curveM2,17);
return multiMap(inputVal, curveIn, curveM2, 17);
break;
case 3:
// -1
return multiMap(inputVal,curveIn,curveM1,17);
return multiMap(inputVal, curveIn, curveM1, 17);
break;
case 4:
// 0, linear
@ -1061,35 +1076,35 @@ unsigned int breathCurve(unsigned int inputVal) {
break;
case 5:
// +1
return multiMap(inputVal,curveIn,curveP1,17);
return multiMap(inputVal, curveIn, curveP1, 17);
break;
case 6:
// +2
return multiMap(inputVal,curveIn,curveP2,17);
return multiMap(inputVal, curveIn, curveP2, 17);
break;
case 7:
// +3
return multiMap(inputVal,curveIn,curveP3,17);
return multiMap(inputVal, curveIn, curveP3, 17);
break;
case 8:
// +4
return multiMap(inputVal,curveIn,curveP4,17);
return multiMap(inputVal, curveIn, curveP4, 17);
break;
case 9:
// S1
return multiMap(inputVal,curveIn,curveS1,17);
return multiMap(inputVal, curveIn, curveS1, 17);
break;
case 10:
// S2
return multiMap(inputVal,curveIn,curveS2,17);
return multiMap(inputVal, curveIn, curveS2, 17);
break;
case 11:
// Z1
return multiMap(inputVal,curveIn,curveZ1,17);
return multiMap(inputVal, curveIn, curveZ1, 17);
break;
case 12:
// Z2
return multiMap(inputVal,curveIn,curveZ2,17);
return multiMap(inputVal, curveIn, curveZ2, 17);
break;
default: //Fallback option that should never be reached, use linear
return inputVal;
@ -1120,9 +1135,9 @@ int smooth(int data, float filterVal, float smoothedVal){
// MIDI note value check with out of range octave repeat
int noteValueCheck(int note) {
if (note > 127) {
note = 115+(note-127)%12;
note = 115 + (note - 127) % 12;
} else if (note < 0) {
note = 12-abs(note)%12;
note = 12 - abs(note) % 12;
}
return note;
}
@ -1130,7 +1145,9 @@ int noteValueCheck(int note) {
//**************************************************************
int patchLimit(int value) {
if (value < 1) return 1; else if (value > 128) return 128; else return value;
if (value < 1) return 1;
else if (value > 128) return 128;
else return value;
}
//**************************************************************
@ -1138,13 +1155,13 @@ int patchLimit(int value) {
void statusLEDs() {
if (breathLevel > breathThrVal) { // breath indicator LED, labeled "B" on PCB
//analogWrite(bLedPin, map(breathLevel,0,4096,5,breathLedBrightness));
analogWrite(bLedPin, map(constrain(breathLevel,breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,5,breathLedBrightness));
analogWrite(bLedPin, map(constrain(breathLevel, breathThrVal, breathMaxVal), breathThrVal, breathMaxVal, 5, breathLedBrightness));
} else {
analogWrite(bLedPin, 0);
}
if (biteSensor > portamThrVal) { // portamento indicator LED, labeled "P" on PCB
//analogWrite(pLedPin, map(biteSensor,0,4096,5,portamLedBrightness));
analogWrite(pLedPin, map(constrain(biteSensor,portamThrVal,portamMaxVal),portamThrVal,portamMaxVal,5,portamLedBrightness));
analogWrite(pLedPin, map(constrain(biteSensor, portamThrVal, portamMaxVal), portamThrVal, portamMaxVal, 5, portamLedBrightness));
} else {
analogWrite(pLedPin, 0);
}
@ -1153,17 +1170,17 @@ void statusLEDs() {
//**************************************************************
void breath() {
int breathCCval,breathCCvalFine;
int breathCCval, breathCCvalFine;
unsigned int breathCCvalHires;
breathLevel = constrain(pressureSensor,breathThrVal,breathMaxVal);
breathLevel = constrain(pressureSensor, breathThrVal, breathMaxVal);
//breathLevel = breathLevel*0.6+pressureSensor*0.4; // smoothing of breathLevel value
////////breathCCval = map(constrain(breathLevel,breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,0,127);
breathCCvalHires = breathCurve(map(constrain(breathLevel,breathThrVal,breathMaxVal),breathThrVal,breathMaxVal,0,16383));
breathCCval = (breathCCvalHires >>7) & 0x007F;
breathCCvalHires = breathCurve(map(constrain(breathLevel, breathThrVal, breathMaxVal), breathThrVal, breathMaxVal, 0, 16383));
breathCCval = (breathCCvalHires >> 7) & 0x007F;
breathCCvalFine = breathCCvalHires & 0x007F;
if (breathCCval != oldbreath) { // only send midi data if breath has changed from previous value
if (breathCC){
if (breathCC) {
// send midi cc
midiSendControlChange(ccList[breathCC], breathCCval);
}
@ -1175,8 +1192,8 @@ void breath() {
}
if (breathCCvalHires != oldbreathhires) {
if ((breathCC > 4) && (breathCC < 9)){ // send high resolution midi
midiSendControlChange(ccList[breathCC]+32, breathCCvalFine);
if ((breathCC > 4) && (breathCC < 9)) { // send high resolution midi
midiSendControlChange(ccList[breathCC] + 32, breathCCvalFine);
}
oldbreathhires = breathCCvalHires;
}
@ -1195,46 +1212,46 @@ void pitch_bend() {
halfPitchBendKey = (pinkySetting == PBD) && (touchRead(halfPitchBendKeyPin) > touch_Thr); // SENSOR PIN 1 - PCB PIN "S1" - hold for 1/2 pitchbend value
int vibRead = touchRead(vibratoPin); // SENSOR PIN 15 - built in var cap
calculatedPBdepth = pbDepthList[PBdepth];
if (halfPitchBendKey) calculatedPBdepth = calculatedPBdepth*0.5;
if (halfPitchBendKey) calculatedPBdepth = calculatedPBdepth * 0.5;
vibMax = vibMaxList[vibSens-1];
vibMax = vibMaxList[vibSens - 1];
if (vibRead < vibThr) {
if (UPWD == vibDirection) {
vibSignal=vibSignal*0.5+0.5*map(constrain(vibRead,(vibZero-vibMax),vibThr),vibThr,(vibZero-vibMax),0,calculatedPBdepth*vibDepth[vibrato]);
vibSignal = vibSignal * 0.5 + 0.5 * map(constrain(vibRead, (vibZero - vibMax), vibThr), vibThr, (vibZero - vibMax), 0, calculatedPBdepth * vibDepth[vibrato]);
} else {
vibSignal=vibSignal*0.5+0.5*map(constrain(vibRead,(vibZero-vibMax),vibThr),vibThr,(vibZero-vibMax),0,(0 - calculatedPBdepth*vibDepth[vibrato]));
vibSignal = vibSignal * 0.5 + 0.5 * map(constrain(vibRead, (vibZero - vibMax), vibThr), vibThr, (vibZero - vibMax), 0, (0 - calculatedPBdepth * vibDepth[vibrato]));
}
} else if (vibRead > vibThrLo){
if (UPWD == vibDirection){
vibSignal=vibSignal*0.5+0.5*map(constrain(vibRead,vibThrLo,(vibZero+vibMax)),vibThrLo,(vibZero+vibMax),0,(0 - calculatedPBdepth*vibDepth[vibrato]));
} else if (vibRead > vibThrLo) {
if (UPWD == vibDirection) {
vibSignal = vibSignal * 0.5 + 0.5 * map(constrain(vibRead, vibThrLo, (vibZero + vibMax)), vibThrLo, (vibZero + vibMax), 0, (0 - calculatedPBdepth * vibDepth[vibrato]));
} else {
vibSignal=vibSignal*0.5+0.5*map(constrain(vibRead,vibThrLo,(vibZero+vibMax)),vibThrLo,(vibZero+vibMax),0,calculatedPBdepth*vibDepth[vibrato]);
vibSignal = vibSignal * 0.5 + 0.5 * map(constrain(vibRead, vibThrLo, (vibZero + vibMax)), vibThrLo, (vibZero + vibMax), 0, calculatedPBdepth * vibDepth[vibrato]);
}
} else {
vibSignal = vibSignal*0.5;
vibSignal = vibSignal * 0.5;
}
switch(vibRetn) { // moving baseline
switch (vibRetn) { // moving baseline
case 0:
//keep vibZero value
break;
case 1:
vibZero = vibZero*0.95+vibRead*0.05;
vibZero = vibZero * 0.95 + vibRead * 0.05;
break;
case 2:
vibZero = vibZero*0.9+vibRead*0.1;
vibZero = vibZero * 0.9 + vibRead * 0.1;
break;
case 3:
vibZero = vibZero*0.8+vibRead*0.2;
vibZero = vibZero * 0.8 + vibRead * 0.2;
break;
case 4:
vibZero = vibZero*0.6+vibRead*0.4;
vibZero = vibZero * 0.6 + vibRead * 0.4;
}
vibThr=vibZero-vibSquelch;
vibThrLo=vibZero+vibSquelch;
int pbPos = map(constrain(pbUp,pitchbThrVal,pitchbMaxVal),pitchbThrVal,pitchbMaxVal,0,calculatedPBdepth);
int pbNeg = map(constrain(pbDn,pitchbThrVal,pitchbMaxVal),pitchbThrVal,pitchbMaxVal,0,calculatedPBdepth);
vibThr = vibZero - vibSquelch;
vibThrLo = vibZero + vibSquelch;
int pbPos = map(constrain(pbUp, pitchbThrVal, pitchbMaxVal), pitchbThrVal, pitchbMaxVal, 0, calculatedPBdepth);
int pbNeg = map(constrain(pbDn, pitchbThrVal, pitchbMaxVal), pitchbThrVal, pitchbMaxVal, 0, calculatedPBdepth);
int pbSum = 8193 + pbPos - pbNeg;
int pbDif = abs(pbPos - pbNeg);
/*
@ -1251,24 +1268,24 @@ void pitch_bend() {
if (pbDif < 10) {
pitchBend = 8192;
} else {
pitchBend=pitchBend*0.6+0.4*pbSum;
pitchBend = pitchBend * 0.6 + 0.4 * pbSum;
}
pbTouched = 1;
}
if (!pbTouched) {
pitchBend = pitchBend*0.6+8192*0.4; // released, so smooth your way back to zero
pitchBend = pitchBend * 0.6 + 8192 * 0.4; // released, so smooth your way back to zero
if ((pitchBend > 8187) && (pitchBend < 8197)) pitchBend = 8192; // 8192 is 0 pitch bend, don't miss it bc of smoothing
}
pitchBend=pitchBend+vibSignal;
pitchBend = pitchBend + vibSignal;
pitchBend=constrain(pitchBend, 0, 16383);
pitchBend = constrain(pitchBend, 0, 16383);
if (subVibSquelch && (8192 != pitchBend)) {
digitalWrite(statusLedPin,LOW);
digitalWrite(statusLedPin, LOW);
vibLedOff = 1;
} else if (vibLedOff) {
digitalWrite(statusLedPin,HIGH);
digitalWrite(statusLedPin, HIGH);
vibLedOff = 0;
}
@ -1276,9 +1293,9 @@ void pitch_bend() {
//Serial.print(" - ");
//Serial.println(oldpb);
if (pitchBend != oldpb){// only send midi data if pitch bend has changed from previous value
if (pitchBend != oldpb) { // only send midi data if pitch bend has changed from previous value
midiSendPitchBend(pitchBend);
oldpb=pitchBend;
oldpb = pitchBend;
}
}
@ -1286,31 +1303,30 @@ void pitch_bend() {
void doorKnobCheck() {
int touchValue[12];
for (byte i=0; i<12; i++){
touchValue[i]=touchSensor.filteredData(i);
for (byte i = 0; i < 12; i++) {
touchValue[i] = touchSensor.filteredData(i);
}
if ((touchValue[K4Pin] < ctouchThrVal) && (touchValue[R1Pin] < ctouchThrVal) && (touchValue[R2Pin] < ctouchThrVal) && (touchValue[R3Pin] < ctouchThrVal)){ // doorknob grip on canister
if (pbUp > ((pitchbMaxVal + pitchbThrVal)/2)) {
if ((touchValue[K4Pin] < ctouchThrVal) && (touchValue[R1Pin] < ctouchThrVal) && (touchValue[R2Pin] < ctouchThrVal) && (touchValue[R3Pin] < ctouchThrVal)) { // doorknob grip on canister
if (pbUp > ((pitchbMaxVal + pitchbThrVal) / 2)) {
gateOpen = 1;
digitalWrite(statusLedPin,LOW);
digitalWrite(statusLedPin, LOW);
delay(50);
digitalWrite(statusLedPin,HIGH);
digitalWrite(statusLedPin, HIGH);
delay(50);
}
else if (pbDn > ((pitchbMaxVal + pitchbThrVal)/2)) {
} else if (pbDn > ((pitchbMaxVal + pitchbThrVal) / 2)) {
gateOpen = 0;
midiPanic();
digitalWrite(statusLedPin,LOW);
digitalWrite(statusLedPin, LOW);
delay(50);
digitalWrite(statusLedPin,HIGH);
digitalWrite(statusLedPin, HIGH);
delay(50);
digitalWrite(statusLedPin,LOW);
digitalWrite(statusLedPin, LOW);
delay(50);
digitalWrite(statusLedPin,HIGH);
digitalWrite(statusLedPin, HIGH);
delay(50);
digitalWrite(statusLedPin,LOW);
digitalWrite(statusLedPin, LOW);
delay(50);
digitalWrite(statusLedPin,HIGH);
digitalWrite(statusLedPin, HIGH);
delay(700);
}
}
@ -1320,56 +1336,56 @@ void doorKnobCheck() {
void extraController() {
// Extra Controller is the lip touch sensor (proportional) in front of the mouthpiece
exSensor=exSensor*0.6+0.4*touchRead(extraPin); // get sensor data, do some smoothing - SENSOR PIN 16 - PCB PIN "EC" (marked K4 on some prototype boards)
exSensor = exSensor * 0.6 + 0.4 * touchRead(extraPin); // get sensor data, do some smoothing - SENSOR PIN 16 - PCB PIN "EC" (marked K4 on some prototype boards)
if (extraCT && (exSensor >= extracThrVal)) { // if we are enabled and over the threshold, send data
if (!extracIsOn) {
extracIsOn=1;
extracIsOn = 1;
if (extraCT == 4) { //Sustain ON
midiSendControlChange(64, 127);
}
}
if (extraCT == 1) { //Send modulation
int extracCC = map(constrain(exSensor,extracThrVal,extracMaxVal),extracThrVal,extracMaxVal,1,127);
if (extracCC != oldextrac){
int extracCC = map(constrain(exSensor, extracThrVal, extracMaxVal), extracThrVal, extracMaxVal, 1, 127);
if (extracCC != oldextrac) {
midiSendControlChange(1, extracCC);
}
oldextrac = extracCC;
}
if (extraCT == 2) { //Send foot pedal (CC#4)
int extracCC = map(constrain(exSensor,extracThrVal,extracMaxVal),extracThrVal,extracMaxVal,1,127);
if (extracCC != oldextrac){
int extracCC = map(constrain(exSensor, extracThrVal, extracMaxVal), extracThrVal, extracMaxVal, 1, 127);
if (extracCC != oldextrac) {
midiSendControlChange(4, extracCC);
}
oldextrac = extracCC;
}
if ((extraCT == 3) && (breathCC != 9)) { //Send filter cutoff (CC#74)
int extracCC = map(constrain(exSensor,extracThrVal,extracMaxVal),extracThrVal,extracMaxVal,1,127);
if (extracCC != oldextrac){
int extracCC = map(constrain(exSensor, extracThrVal, extracMaxVal), extracThrVal, extracMaxVal, 1, 127);
if (extracCC != oldextrac) {
midiSendControlChange(74, extracCC);
}
oldextrac = extracCC;
}
} else if (extracIsOn) { // we have just gone below threshold, so send zero value
extracIsOn=0;
if (extraCT == 1){ //MW
if (oldextrac != 0){
extracIsOn = 0;
if (extraCT == 1) { //MW
if (oldextrac != 0) {
//send modulation 0
midiSendControlChange(1, 0);
oldextrac = 0;
}
} else if (extraCT == 2){ //FP
if (oldextrac != 0){
} else if (extraCT == 2) { //FP
if (oldextrac != 0) {
//send foot pedal 0
midiSendControlChange(4, 0);
oldextrac = 0;
}
} else if ((extraCT == 3) && (breathCC != 9)){ //CF
if (oldextrac != 0){
} else if ((extraCT == 3) && (breathCC != 9)) { //CF
if (oldextrac != 0) {
//send filter cutoff 0
midiSendControlChange(74, 0);
oldextrac = 0;
}
} else if (extraCT == 4){ //SP
} else if (extraCT == 4) { //SP
//send sustain off
midiSendControlChange(64, 0);
}
@ -1380,7 +1396,7 @@ void extraController() {
void portamento_() {
// Portamento is controlled with the bite sensor (variable capacitor) in the mouthpiece
biteSensor=touchRead(bitePin); // get sensor data, do some smoothing - SENSOR PIN 17 - PCB PINS LABELED "BITE" (GND left, sensor pin right)
biteSensor = touchRead(bitePin); // get sensor data, do some smoothing - SENSOR PIN 17 - PCB PINS LABELED "BITE" (GND left, sensor pin right)
if (portamento && (biteSensor >= portamThrVal)) { // if we are enabled and over the threshold, send portamento
if (!portIsOn) {
portOn();
@ -1397,15 +1413,15 @@ void portOn() {
if (portamento == 2) { // if portamento midi switching is enabled
midiSendControlChange(CCN_PortOnOff, 127);
}
portIsOn=1;
portIsOn = 1;
}
//***********************************************************
void port() {
int portCC;
portCC = map(constrain(biteSensor,portamThrVal,portamMaxVal),portamThrVal,portamMaxVal,0,127);
if (portCC!=oldport) {
portCC = map(constrain(biteSensor, portamThrVal, portamMaxVal), portamThrVal, portamMaxVal, 0, 127);
if (portCC != oldport) {
midiSendControlChange(CCN_Port, portCC);
}
oldport = portCC;
@ -1420,7 +1436,7 @@ void portOff() {
if (portamento == 2) { // if portamento midi switching is enabled
midiSendControlChange(CCN_PortOnOff, 0);
}
portIsOn=0;
portIsOn = 0;
oldport = 0;
}
@ -1430,8 +1446,8 @@ void readSwitches() {
int qTransp;
// Read touch pads (MPR121) and put value in variables
int touchValue[12];
for (byte i=0; i<12; i++) {
touchValue[i]=touchSensor.filteredData(i);
for (byte i = 0; i < 12; i++) {
touchValue[i] = touchSensor.filteredData(i);
}
// Octave rollers
@ -1446,13 +1462,13 @@ void readSwitches() {
lastOctaveR = octaveR;
// Valves and trill keys
K4=(touchValue[K4Pin] < ctouchThrVal);
K1=(touchValue[K1Pin] < ctouchThrVal);
K2=(touchValue[K2Pin] < ctouchThrVal);
K3=(touchValue[K3Pin] < ctouchThrVal);
K5=(touchValue[K5Pin] < ctouchThrVal);
K6=(touchValue[K6Pin] < ctouchThrVal);
K7=(touchValue[K7Pin] < ctouchThrVal);
K4 = (touchValue[K4Pin] < ctouchThrVal);
K1 = (touchValue[K1Pin] < ctouchThrVal);
K2 = (touchValue[K2Pin] < ctouchThrVal);
K3 = (touchValue[K3Pin] < ctouchThrVal);
K5 = (touchValue[K5Pin] < ctouchThrVal);
K6 = (touchValue[K6Pin] < ctouchThrVal);
K7 = (touchValue[K7Pin] < ctouchThrVal);
pinkyKey = (touchRead(halfPitchBendKeyPin) > touch_Thr); // SENSOR PIN 1 - PCB PIN "S1"
@ -1464,16 +1480,15 @@ void readSwitches() {
qTransp = 0;
}
// Calculate midi note number from pressed keys
#if defined(CASSIDY)
fingeredNote=startNote-2*K1-K2-3*K3-5*K4+2*K5+K6+3*K7+octaveR*12+(octave-3)*12+transpose-12+qTransp;
fingeredNoteUntransposed=startNote-2*K1-K2-3*K3-5*K4+2*K5+K6+3*K7+octaveR*12;
fingeredNote = startNote - 2*K1 - K2 - 3*K3 - 5*K4 + 2*K5 + K6 + 3*K7 + octaveR*12 + (octave - 3)*12 + transpose - 12 + qTransp;
fingeredNoteUntransposed = startNote - 2*K1 - K2 - 3*K3 - 5*K4 + 2*K5 + K6 + 3*K7 + octaveR*12;
#else
fingeredNote=startNote-2*K1-K2-3*K3-5*K4+2*K5+K6+4*K7+octaveR*12+(octave-3)*12+transpose-12+qTransp;
fingeredNoteUntransposed=startNote-2*K1-K2-3*K3-5*K4+2*K5+K6+4*K7+octaveR*12;
fingeredNote = startNote - 2*K1 - K2 - 3*K3 - 5*K4 + 2*K5 + K6 + 4*K7 + octaveR*12 + (octave - 3)*12 + transpose - 12 + qTransp;
fingeredNoteUntransposed = startNote - 2*K1 - K2 - 3*K3 - 5*K4 + 2*K5 + K6 + 4*K7 + octaveR*12;
#endif
//}
if (pinkyKey) pitchlatch = fingeredNoteUntransposed; //use pitchlatch to make settings based on note fingered
}