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ADDAC.cpp
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#include "ADDAC.h"
//#include "ADDAchannels.h"
#include "ADDAgateSequencer.h"
#include <ADDAC_DigitalWriteFast.h>
// FUNCTIONS :
//#include "Functions/RANDOM.h"
//#include "Functions/LISS.h"
//#include "Functions/QUAD.h"
/*
ADDAsequencer1 ADDAgateSequencer(1, 1, 1, 50, 8, 0); // id, expansion, outputChannel, bpm, steps, byte sequence
ADDAgateSequencer.changeStep(2, 1); // step, gate
ADDAgateSequencer.changeStep(4, 0); // step, gate
ADDAgateSequencer.add8Steps(0, B10101010); // slot, 8 steps
ADDAgateSequencer.add8Steps(1, B10101010); // slot, 8 steps
ADDAgateSequencer.stepOffset(3); // stepOffset
ADDAgateSequencer.memoryPreset(3); //memoryPreset
//volatile irparams_t irparams;
//ADDAchannel channel1(1, 0);
//ADDAchannel channel2(2, 20000);
//ADDAchannel channel3(3, 40000);
*/
// POINTERS
long *pointerDACvolts;
//-----------------------------------------------------------------------ADDAC-----------------
/*! \brief Default constructor for ADDAC. */
ADDAC::ADDAC(){
for(int i=0;i<8;i++){
DACvolts[i]=0;
DACtimes[i]=0;
direction[i]=true;
Direction=true;
rndStep[i]=0;
}
Serial.println("SETUP COMPLETE");
}
/*! \brief Setup the ADDAC main class, this should be called in the setup() from Arduino environment. */
void ADDAC::setup(){
//EXTERNALS
//
//manual INS A
truthTableA[0]=0;
truthTableA[1]=1;
truthTableA[2]=0;
truthTableA[3]=1;
truthTableA[4]=0;
truthTableA[5]=1;
truthTableA[6]=0;
truthTableA[7]=1;
//
truthTableB[0]=0;
truthTableB[1]=0;
truthTableB[2]=1;
truthTableB[3]=1;
truthTableB[4]=0;
truthTableB[5]=0;
truthTableB[6]=1;
truthTableB[7]=1;
//
truthTableC[0]=0;
truthTableC[1]=0;
truthTableC[2]=0;
truthTableC[3]=0;
truthTableC[4]=1;
truthTableC[5]=1;
truthTableC[6]=1;
truthTableC[7]=1;
//define 4051 pin modes
// A
pinMode(manualInAs0, OUTPUT);
pinMode(manualInAs1, OUTPUT);
pinMode(manualInAs2, OUTPUT);
// B
pinMode(manualInBs0, OUTPUT);
pinMode(manualInBs1, OUTPUT);
pinMode(manualInBs2, OUTPUT);
// C
pinMode(manualInCs0, OUTPUT);
pinMode(manualInCs1, OUTPUT);
pinMode(manualInCs2, OUTPUT);
// CV INPUTS A
pinMode(cvInAs0, OUTPUT);
pinMode(cvInAs1, OUTPUT);
pinMode(cvInAs2, OUTPUT);
// B
pinMode(cvInBs0, OUTPUT);
pinMode(cvInBs1, OUTPUT);
pinMode(cvInBs2, OUTPUT);
// C
pinMode(cvInCs0, OUTPUT);
pinMode(cvInCs1, OUTPUT);
pinMode(cvInCs2, OUTPUT);
//
// GATES INPUTS A
pinMode(gateInAlatch, OUTPUT);
pinMode(gateInAclock, OUTPUT);
pinMode(gateInAdata, INPUT);
// GATES INPUTS B
pinMode(gateInBlatch, OUTPUT);
pinMode(gateInBclock, OUTPUT);
pinMode(gateInBdata, INPUT);
// GATES INPUTS C
pinMode(gateInClatch, OUTPUT);
pinMode(gateInCclock, OUTPUT);
pinMode(gateInCdata, INPUT);
//
// GATES OUTPUT A
pinMode(gateOutAlatch, OUTPUT);
pinMode(gateOutAclock, OUTPUT);
pinMode(gateOutAdata, OUTPUT);
// GATES OUTPUT B
pinMode(gateOutBlatch, OUTPUT);
pinMode(gateOutBclock, OUTPUT);
pinMode(gateOutBdata, OUTPUT);
// GATES OUTPUT C
pinMode(gateOutClatch, OUTPUT);
pinMode(gateOutCclock, OUTPUT);
pinMode(gateOutCdata, OUTPUT);
// GATES OUT A VALUES
gateValuesOutA[0]=0;
gateValuesOutA[1]=0;
gateValuesOutA[2]=0;
gateValuesOutA[3]=0;
gateValuesOutA[4]=0;
gateValuesOutA[5]=0;
gateValuesOutA[6]=0;
gateValuesOutA[7]=0;
//ONBOARD
//
//define shiftIn pin modes
pinMode(latchPin, OUTPUT);
pinMode(clockPin, OUTPUT);
pinMode(dataPin, INPUT);
//set AD5668 pin modes
pinMode(ENVELOPE, INPUT);
pinMode(DATAOUT, OUTPUT);
pinMode(SPICLK, OUTPUT);
pinMode(SLAVESELECT, OUTPUT);
pinMode(CLR, OUTPUT);
//INIT AD5668
//disable DAC to start with
digitalWriteFast(DATAOUT,LOW);
digitalWriteFast(SPICLK, LOW);
digitalWriteFast(SLAVESELECT, LOW);
digitalWriteFast(CLR, LOW);
delay(50);
digitalWriteFast(CLR, HIGH);
delay(50);
write(SETUP_INTERNAL_REGISTER, 0, 1); //set up internal register on DAC
delay(100);
write(POWER, 0, 0);
delay(100);
write(RESET, 0, 0);
delay(100);
fMin=0;
fMax=2000;
fSeed=300;
vMin=0;
vMax=addacMaxResolution;
//Start the timer and get the timer reload value.
//timerLoadValue=SetupTimer2(40000);
//set up interupt for zero crossing detector
//attachInterrupt(0, zero, RISING);
pointerDACvolts=DACvolts;
}
// --------------------------------------------------------------------------- ONBOARD POT -------------------------
//
/*! \brief Update the ADDAC main class, this should be called in the update() from Arduino environment. */
void ADDAC::update(){
readMODEswitch();
#ifndef VS3
onboardVal=analogRead(onboardPotPin);
onboardValMapped=onboardVal/1023.0f*65535.0f;
#endif
}
// --------------------------------------------------------------------------- ONBOARD POT -------------------------
//
/*! \brief Read and return on Board Pot Value (VS.I & II only) */
int ADDAC::readOnboardPot(){
return onboardVal;
}
// --------------------------------------------------------------------------- READ CVS IN - ADDAC002 -----------
//
/*! \brief Read and return all Cv Inputs from ADDAC002 expansion
\param _socket connected socket : A or B
*/
void ADDAC::ReadCvs(int _socket){ // INTERNAL READING
if(_socket == A){
for(int i=0;i<6;i++){
StoreCvs(_socket,i);
//cvValuesAMapped[i]=cvValuesA[i]/1023.0f*65535.0f;
}
}else if(_socket == B){
for(int i=0;i<6;i++){
StoreCvs(_socket,i);
//cvValuesBMapped[i]=cvValuesB[i]/1023.0f*65535.0f;
}
}else if(_socket == C){
for(int i=0;i<6;i++){
StoreCvs(_socket,i);
//cvValuesCMapped[i]=cvValuesC[i]/1023.0f*65535.0f;
}
}
}
/*! \brief Read and return selected Cv Input from ADDAC002 expansion
\param _socket connected socket : A or B
\param _channel input to rea : 0 - 5
*/
float ADDAC::ReadCv(int _socket, int _channel){ // EXTERNAL READING
if(_socket == A){
digitalWriteFast(cvInAs0, truthTableA[_channel]);
digitalWriteFast(cvInAs1, truthTableB[_channel]);
digitalWriteFast(cvInAs2, truthTableC[_channel]);
cvValuesA[_channel]=analogRead(cvInApin)/1023.0f;
return cvValuesA[_channel];
}else if(_socket == B){
digitalWriteFast(cvInBs0, truthTableA[_channel]);
digitalWriteFast(cvInBs1, truthTableB[_channel]);
digitalWriteFast(cvInBs2, truthTableC[_channel]);
cvValuesB[_channel]=analogRead(cvInBpin)/1023.0f;
return cvValuesB[_channel];
}else if(_socket == C){
digitalWriteFast(cvInCs0, truthTableA[_channel]);
digitalWriteFast(cvInCs1, truthTableB[_channel]);
digitalWriteFast(cvInCs2, truthTableC[_channel]);
cvValuesC[_channel]=analogRead(cvInCpin)/1023.0f;
return cvValuesC[_channel];
}
}
/*! \ Store CV inputs - internal usage*/
void ADDAC::StoreCvs(int _socket, int _channel){ // Store for prints
if(_socket == A){
digitalWriteFast(cvInAs0, truthTableA[_channel]);
digitalWriteFast(cvInAs1, truthTableB[_channel]);
digitalWriteFast(cvInAs2, truthTableC[_channel]);
cvValuesA[_channel]=analogRead(cvInApin)/1023.0f;
}else if(_socket == B){
digitalWriteFast(cvInBs0, truthTableA[_channel]);
digitalWriteFast(cvInBs1, truthTableB[_channel]);
digitalWriteFast(cvInBs2, truthTableC[_channel]);
cvValuesB[_channel]=analogRead(cvInBpin)/1023.0f;
}else if(_socket == C){
digitalWriteFast(cvInCs0, truthTableA[_channel]);
digitalWriteFast(cvInCs1, truthTableB[_channel]);
digitalWriteFast(cvInCs2, truthTableC[_channel]);
cvValuesC[_channel]=analogRead(cvInCpin)/1023.0f;
}
}
/*! \brief Print all Cv Inputs from ADDAC002 expansion in Monitor Log - usefull for DEBUG
\param _socket connected socket - A or B
*/
void ADDAC::PrintCvs(int _socket){
if(_socket==A){
Serial.print(" | CV0:");
Serial.print(cvValuesA[0]);
Serial.print(" | CV1:");
Serial.print(cvValuesA[1]);
Serial.print(" | CV2:");
Serial.print(cvValuesA[2]);
Serial.print(" | CV3:");
Serial.print(cvValuesA[3]);
Serial.print(" | CV4:");
Serial.print(cvValuesA[4]);
Serial.print(" | CV5:");
Serial.print(cvValuesA[5]);
}
else if(_socket==B){
Serial.print(" | CV0:");
Serial.print(cvValuesB[0]);
Serial.print(" | CV1:");
Serial.print(cvValuesB[1]);
Serial.print(" | CV2:");
Serial.print(cvValuesB[2]);
Serial.print(" | CV3:");
Serial.print(cvValuesB[3]);
Serial.print(" | CV4:");
Serial.print(cvValuesB[4]);
Serial.print(" | CV5:");
Serial.print(cvValuesB[5]);
}
else if(_socket==C){
Serial.print(" | CV0:");
Serial.print(cvValuesC[0]);
Serial.print(" | CV1:");
Serial.print(cvValuesC[1]);
Serial.print(" | CV2:");
Serial.print(cvValuesC[2]);
Serial.print(" | CV3:");
Serial.print(cvValuesC[3]);
Serial.print(" | CV4:");
Serial.print(cvValuesC[4]);
Serial.print(" | CV5:");
Serial.print(cvValuesC[5]);
}
}
/*! \brief Print selected Cv Input from ADDAC002 expansion in Monitor Log - usefull for DEBUG
\param _socket connected socket : A or B
\param _channel input to rea : 0 - 5
*/
void ADDAC::PrintCv(int _socket, int _channel ){
if(_socket==A){
Serial.print(" | CV" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(cvValuesA[_channel]);
}
else if(_socket==B){
Serial.print(" | CV" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(cvValuesB[_channel]);
}
else if(_socket==C){
Serial.print(" | CV" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(cvValuesC[_channel]);
}
}
// --------------------------------------------------------------------------- READ manualS IN - ADDAC003 -----------
//
/*! \brief Read and return all Manual inputs from ADDAC003 expansion
\param _socket connected socket - A or B
*/
void ADDAC::ReadManuals(int _socket){ // INTERNAL READING
for(int i=0;i<5;i++){
if(_socket == A){
StoreManuals(_socket,i);
//manualValuesAMapped[i]=manualValuesA[i]/1023.0f*65535.0f;
}
else if(_socket == B){
for(int i=0;i<5;i++){
StoreManuals(_socket,i);
// manualValuesBMapped[i]=manualValuesB[i]/1023.0f*65535.0f;
}
}
else if(_socket == C){
for(int i=0;i<5;i++){
manualValuesC[i]=ReadManual(_socket,i);
//manualValuesCMapped[i]=manualValuesC[i]/1023.0f*65535.0f;
}
}
}
}
/*! \brief Read and return selected Manual input from ADDAC003 expansion
\param _socket connected socket - A or B
\param _channel input to rea : 0 - 4
*/
float ADDAC::ReadManual(int _socket,int _channel){ // EXTERNAL READING
if(_socket == A){
digitalWriteFast(manualInAs0, truthTableA[_channel]);
digitalWriteFast(manualInAs1, truthTableB[_channel]);
digitalWriteFast(manualInAs2, truthTableC[_channel]);
manualValuesA[_channel] =1-( analogRead(manualInApin)/1023.0f);
return manualValuesA[_channel];
}
else if(_socket == B){
digitalWriteFast(manualInBs0, truthTableA[_channel]);
digitalWriteFast(manualInBs1, truthTableB[_channel]);
digitalWriteFast(manualInBs2, truthTableC[_channel]);
manualValuesB[_channel] =1-( analogRead(manualInBpin)/1023.0f);
return manualValuesB[_channel];
}
else if(_socket == C){
digitalWriteFast(manualInCs0, truthTableA[_channel]);
digitalWriteFast(manualInCs1, truthTableB[_channel]);
digitalWriteFast(manualInCs2, truthTableC[_channel]);
manualValuesC[_channel] = 1-(analogRead(manualInCpin)/1023.0f);
return manualValuesC[_channel];
}
}
/*! \ Store Manual inputs - internal usage*/
void ADDAC::StoreManuals(int _socket,int _channel){ // EXTERNAL READING
if(_socket == A){
digitalWriteFast(manualInAs0, truthTableA[_channel]);
digitalWriteFast(manualInAs1, truthTableB[_channel]);
digitalWriteFast(manualInAs2, truthTableC[_channel]);
manualValuesA[_channel]=1-(analogRead(manualInApin)/1023.0f);
}
else if(_socket == B){
digitalWriteFast(manualInBs0, truthTableA[_channel]);
digitalWriteFast(manualInBs1, truthTableB[_channel]);
digitalWriteFast(manualInBs2, truthTableC[_channel]);
manualValuesB[_channel]=1-(analogRead(manualInBpin)/1023.0f);
}
else if(_socket == C){
digitalWriteFast(manualInCs0, truthTableA[_channel]);
digitalWriteFast(manualInCs1, truthTableB[_channel]);
digitalWriteFast(manualInCs2, truthTableC[_channel]);
manualValuesC[_channel]=1-(analogRead(manualInCpin)/1023.0f);
}
}
/*! \brief Print all Manual inputs from ADDAC003 expansion in Monitor Log - usefull for DEBUG
\param _socket connected socket - A or B
*/
void ADDAC::PrintManuals(int _socket){
if(_socket==A){
Serial.print(" | MANUAL0:");
Serial.print(manualValuesA[0]);
Serial.print(" | MANUAL1:");
Serial.print(manualValuesA[1]);
Serial.print(" | MANUAL2:");
Serial.print(manualValuesA[2]);
Serial.print(" | MANUAL3:");
Serial.print(manualValuesA[3]);
Serial.print(" | MANUAL4:");
Serial.print(manualValuesA[4]);
}
else if(_socket==B){
Serial.print(" | MANUAL0:");
Serial.print(manualValuesB[0]);
Serial.print(" | MANUAL1:");
Serial.print(manualValuesB[1]);
Serial.print(" | MANUAL2:");
Serial.print(manualValuesB[2]);
Serial.print(" | MANUAL3:");
Serial.print(manualValuesB[3]);
Serial.print(" | MANUAL4:");
Serial.print(manualValuesB[4]);
}
else if(_socket==C){
Serial.print(" | MANUAL0:");
Serial.print(manualValuesC[0]);
Serial.print(" | MANUAL1:");
Serial.print(manualValuesC[1]);
Serial.print(" | MANUAL2:");
Serial.print(manualValuesC[2]);
Serial.print(" | MANUAL3:");
Serial.print(manualValuesC[3]);
Serial.print(" | MANUAL4:");
Serial.print(manualValuesC[4]);
}
}
/*! \brief Print selected Manual input from ADDAC003 expansion in Monitor Log - usefull for DEBUG
\param _socket connected socket - A or B
\param _channel input to rea : 0 - 4
*/
void ADDAC::PrintManual(int _socket, int _channel ){
if(_socket==A){
Serial.print(" | MANUAL" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(manualValuesA[_channel]);
}
else if(_socket==B){
Serial.print(" | MANUAL" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(manualValuesB[_channel]);
}
else if(_socket==C){
Serial.print(" | MANUAL" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(manualValuesC[_channel]);
}
}
// --------------------------------------------------------------------------- READ GATES IN - ADDAC004 -----------
//
/*! \brief Read and return all Gate inputs from ADDAC004 expansion
\param _socket connected socket - A or B
\param _invert inverted read - true or false
*/
void ADDAC::ReadGates(int _socket, bool _invert){ // READS GATES AND UPDATES ARRAY
// BJORN REQUEST FOR INVERTING / NON_INVERTING GATE READS
// (ALSO AVAILABLE TO CORRECT CIRCUIT "BUG" WITH INVERTED READINGS FROM ADDAC004)
if(_socket==A){
byte gatesValsAbin = ReadGates(_socket);
if(_invert){ // INVERTING MODE
for(int i=0;i<8;i++){
gateValuesA[i] = gatesValsAbin & (1<<i);
gateValuesA[i]=gateValuesA[i]>>i;
gateValuesA[i]=!gateValuesA[i];
}
}else{ // NON-INVERTING MODE
for(int i=0;i<8;i++){
gateValuesA[i] = gatesValsAbin & (1<<i);
gateValuesA[i]=gateValuesA[i]>>i;
}
}
}
else if(_socket==B){
byte gatesValsBbin = ReadGates(_socket);
if(_invert){ // INVERTING MODE
for(int i=0;i<8;i++){
gateValuesB[i] = gatesValsBbin & (1<<i);
gateValuesB[i]=gateValuesB[i]>>i;
gateValuesB[i]=!gateValuesB[i];
}
}else{ // NON-INVERTING MODE
for(int i=0;i<8;i++){
gateValuesB[i] = gatesValsBbin & (1<<i);
gateValuesB[i]=gateValuesB[i]>>i;
}
}
}
else if(_socket==C){
byte gatesValsCbin = ReadGates(_socket);
if(_invert){ // INVERTING MODE
for(int i=0;i<8;i++){
gateValuesC[i] = gatesValsCbin & (1<<i);
gateValuesC[i]=gateValuesC[i]>>i;
gateValuesC[i]=!gateValuesC[i];
}
}else{ // NON-INVERTING MODE
for(int i=0;i<8;i++){
gateValuesC[i] = gatesValsCbin & (1<<i);
gateValuesC[i]=gateValuesC[i]>>i;
}
}
}
}
/*! \brief Read and return selected Gate input from ADDAC004 expansion
\param _socket connected socket - A or B
\param _invert inverted read - true or false
\param _channel input to read : 0 - 7
*/
boolean ADDAC::ReadGate(int _socket, bool _invert, int _channel){ // READS GATES AND UPDATES ARRAY
if(_socket==A){
byte gatesValsAbin = ReadGates(_socket);
if(_invert){ // INVERTING MODE
gateValuesA[_channel] = gatesValsAbin & (1<<_channel);
gateValuesA[_channel]=gateValuesA[_channel]>>_channel;
gateValuesA[_channel]=!gateValuesA[_channel];
}else{ // NON-INVERTING MODE
gateValuesA[_channel] = gatesValsAbin & (1<<_channel);
gateValuesA[_channel]=gateValuesA[_channel]>>_channel;
}
return gateValuesA[_channel];
}
else if(_socket==B){
byte gatesValsBbin = ReadGates(_socket);
if(_invert){ // INVERTING MODE
gateValuesB[_channel] = gatesValsBbin & (1<<_channel);
gateValuesB[_channel]=gateValuesB[_channel]>>_channel;
gateValuesB[_channel]=!gateValuesB[_channel];
}else{ // NON-INVERTING MODE
gateValuesB[_channel] = gatesValsBbin & (1<<_channel);
gateValuesB[_channel]=gateValuesB[_channel]>>_channel;
}
return gateValuesB[_channel];
}
else if(_socket==C){
byte gatesValsCbin = ReadGates(_socket);
if(_invert){ // INVERTING MODE
gateValuesC[_channel] = gatesValsCbin & (1<<_channel);
gateValuesC[_channel]=gateValuesC[_channel]>>_channel;
gateValuesC[_channel]=!gateValuesC[_channel];
}else{ // NON-INVERTING MODE
gateValuesC[_channel] = gatesValsCbin & (1<<_channel);
gateValuesC[_channel]=gateValuesC[_channel]>>_channel;
}
return gateValuesC[_channel];
}
}
/*! \Internal usage for Gates Reading
*/
byte ADDAC::ReadGates(int _socket){ // GATES A READING
if(_socket==A){
byte tempA = 0;
//Pulse the latch pin:
//set it to 1 to collect parallel data
digitalWriteFast(gateInAlatch,1);
//set it to 1 to collect parallel data, wait
delayMicroseconds(20);
//set it to 0 to transmit data serially
digitalWriteFast(gateInAlatch,0);
//while the shift register is in serial mode
//collect each shift register into a byte
tempA=shiftIn(gateInAdata, gateInAclock);
return tempA;
}
else if(_socket==B){
byte tempB = 0;
digitalWriteFast(gateInBlatch,1);
delayMicroseconds(20);
digitalWriteFast(gateInBlatch,0);
tempB=shiftIn(gateInBdata, gateInBclock);
return tempB;
}
else if(_socket==C){
byte tempC = 0;
digitalWriteFast(gateInClatch,1);
delayMicroseconds(20);
digitalWriteFast(gateInClatch,0);
tempC=shiftIn(gateInCdata, gateInCclock);
return tempC;
}
}
/*! \brief Sends values to MAX-MSP when the communication is enabled
\param _socket connected socket - A or B
*/
void ADDAC::MAXsendGates(int _socket){
if(_socket==A){
Serial.print("GateA0 ");
Serial.println(gateValuesA[0],BIN);
Serial.print("GateA1 ");
Serial.println(gateValuesA[1],BIN);
Serial.print("GateA2");
Serial.println(gateValuesA[2],BIN);
Serial.print("GateA3 ");
Serial.println(gateValuesA[3],BIN);
Serial.print("GateA4 ");
Serial.println(gateValuesA[4],BIN);
Serial.print("GateA5 ");
Serial.println(gateValuesA[5],BIN);
Serial.print("GateA6 ");
Serial.println(gateValuesA[6],BIN);
Serial.print("GateA7 ");
Serial.println(gateValuesA[7],BIN);
}
else if(_socket==B){
Serial.print("GateB0 ");
Serial.println(gateValuesB[0],BIN);
Serial.print("GateB1 ");
Serial.println(gateValuesB[1],BIN);
Serial.print("GateB2 ");
Serial.println(gateValuesB[2],BIN);
Serial.print("GateB3 ");
Serial.println(gateValuesB[3],BIN);
Serial.print("GateB4 ");
Serial.println(gateValuesB[4],BIN);
Serial.print("GateB5 ");
Serial.println(gateValuesB[5],BIN);
Serial.print("GateB6 ");
Serial.println(gateValuesB[6],BIN);
Serial.print("GateB7 ");
Serial.println(gateValuesB[7],BIN);
}
else if(_socket==C){
Serial.print("GateC0 ");
Serial.println(gateValuesC[0],BIN);
Serial.print("GateC1 ");
Serial.println(gateValuesC[1],BIN);
Serial.print("GateC2 ");
Serial.println(gateValuesC[2],BIN);
Serial.print("GateC3 ");
Serial.println(gateValuesC[3],BIN);
Serial.print("GateC4 ");
Serial.println(gateValuesC[4],BIN);
Serial.print("GateC5 ");
Serial.println(gateValuesC[5],BIN);
Serial.print("GateC6 ");
Serial.println(gateValuesC[6],BIN);
Serial.print("GateC7 ");
Serial.println(gateValuesC[7],BIN);
}
}
/*! \brief print all Gate inputs from ADDAC004 expansion
\param _socket connected socket - A or B
*/
void ADDAC::PrintGates(int _socket){
if(_socket==A){
Serial.print(" | GATE0:");
Serial.print(gateValuesA[0],BIN);
Serial.print(" | GATE1:");
Serial.print(gateValuesA[1],BIN);
Serial.print(" | GATE2:");
Serial.print(gateValuesA[2],BIN);
Serial.print(" | GATE3:");
Serial.print(gateValuesA[3],BIN);
Serial.print(" | GATE4:");
Serial.print(gateValuesA[4],BIN);
Serial.print(" | GATE5:");
Serial.print(gateValuesA[5],BIN);
Serial.print(" | GATE6:");
Serial.print(gateValuesA[6],BIN);
Serial.print(" | GATE7:");
Serial.print(gateValuesA[7],BIN);
}
else if(_socket==B){
Serial.print(" | GATE0:");
Serial.print(gateValuesB[0],BIN);
Serial.print(" | GATE1:");
Serial.print(gateValuesB[1],BIN);
Serial.print(" | GATE2:");
Serial.print(gateValuesB[2],BIN);
Serial.print(" | GATE3:");
Serial.print(gateValuesB[3],BIN);
Serial.print(" | GATE4:");
Serial.print(gateValuesB[4],BIN);
Serial.print(" | GATE5:");
Serial.print(gateValuesB[5],BIN);
Serial.print(" | GATE6:");
Serial.print(gateValuesB[6],BIN);
Serial.print(" | GATE7:");
Serial.print(gateValuesB[7],BIN);
}
else if(_socket==C){
Serial.print(" | GATE0:");
Serial.print(gateValuesC[0],BIN);
Serial.print(" | GATE1:");
Serial.print(gateValuesC[1],BIN);
Serial.print(" | GATE2:");
Serial.print(gateValuesC[2],BIN);
Serial.print(" | GATE3:");
Serial.print(gateValuesC[3],BIN);
Serial.print(" | GATE4:");
Serial.print(gateValuesC[4],BIN);
Serial.print(" | GATE5:");
Serial.print(gateValuesC[5],BIN);
Serial.print(" | GATE6:");
Serial.print(gateValuesC[6],BIN);
Serial.print(" | GATE7:");
Serial.print(gateValuesC[7],BIN);
}
}
/*! \brief print selected Gate input from ADDAC004 expansion in Monitor Log - usefull for DEBUG
\param _socket connected socket - A or B
\param _channel selected input : 0 - 7
*/
void ADDAC::PrintGate(int _socket, int _channel ){
if(_socket==A){
Serial.print(" | GATE" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(gateValuesA[_channel]);
}
else if(_socket==B){
Serial.print(" | GATE" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(gateValuesB[_channel]);
}
else if(_socket==C){
Serial.print(" | MANUAL" );
Serial.print(_channel );
Serial.print(": " );
Serial.print(gateValuesC[_channel]);
}
}
// --------------------------------------------------------------------------- WRITE GATES OUT - ADDAC005 -----------
//
int ADDAC::WriteGates(int _socket, byte _data, int bpm){ // WRITE 74HC595
int waitTime=1000*(60.0f/bpm);//bpm to millis
if(_socket==A){
gatesOutMillisA=millis();
if(gatesOutMillisA>oldGatesOutMillisA+waitTime){
oldGatesOutMillisA=gatesOutMillisA;
digitalWriteFast(gateOutAlatch, 0);
shiftOutGates(gateOutAdata, gateOutAclock, _data);
digitalWriteFast(gateOutAlatch, 1);
return 1;
}else{
return 0;
}
}
else if(_socket==B){
gatesOutMillisB=millis();
if(gatesOutMillisB>oldGatesOutMillisB+waitTime){
oldGatesOutMillisB=gatesOutMillisB;
digitalWriteFast(gateOutBlatch, 0);
shiftOutGates(gateOutBdata, gateOutBclock, _data);
digitalWriteFast(gateOutBlatch, 1);
return 1;
}else{
return 0;
}
}
else if(_socket==C){
gatesOutMillisC=millis();
if(gatesOutMillisC>oldGatesOutMillisC+waitTime){
oldGatesOutMillisC=gatesOutMillisC;
digitalWriteFast(gateOutClatch, 0);
shiftOutGates(gateOutCdata, gateOutCclock, _data);
digitalWriteFast(gateOutClatch, 1);
return 1;
}else{
return 0;
}
}
}
/*! \brief Write selected Gate from ADDAC005 expansion
\param _socket connected socket - A or B
\param _pos selected input : 0 - 7
\param _data gate value : true or false */
void ADDAC::WriteGatesStraight(int _socket, int _pos, int _data){ // WRITE 74HC595
if(_socket==A){
digitalWriteFast(gateOutAlatch, 0);
shiftOutGates(gateOutAdata, gateOutAclock, _pos, _data);
digitalWriteFast(gateOutAlatch, 1);
}
else if(_socket==B){
digitalWriteFast(gateOutBlatch, 0);
shiftOutGates(gateOutBdata, gateOutBclock, _pos, _data);
digitalWriteFast(gateOutBlatch, 1);
}
else if(_socket==C){
digitalWriteFast(gateOutClatch, 0);
shiftOutGates(gateOutCdata, gateOutCclock, _pos, _data);
digitalWriteFast(gateOutClatch, 1);
}
}
//
// --------------------------------------------------------------------------- GATE DELAY -----------
//
/*
TENHO DE CRIAR .H PARALELO PARA INICIAR QD ME APETECER E MANTER O TIMER...
void ADDAC::gateDelayFunctionInit(int _gateInput, int _channelIn, int _channelOut, int _delayTime){ // INIT FUNCTION
int gateID = _gateInput*100 + _channelIn;
int DelayFunctionTimeOld
byte gatesValsAbin=ADDAC.ReadGatesA(8);
for(int i=0;i<8;i++){
gatesValsA[i] = gatesValsAbin & (1<<i);
gatesValsA[i]=gatesValsA[i]>>i;
}
}
byte ADDAC::ReadGatesA(int _channel){ // EXTERNAL READING
byte tempA = 119;
//Pulse the latch pin:
//set it to 1 to collect parallel data
digitalWriteFast(gateInAlatch,1);
//set it to 1 to collect parallel data, wait
delayMicroseconds(20);
//set it to 0 to transmit data serially
digitalWriteFast(gateInAlatch,0);
//while the shift register is in serial mode
//collect each shift register into a byte
tempA=shiftIn(gateInAdata, gateInAclock);
return tempA;
}
*/
// --------------------------------------------------------------------------- MIXER MODE -------------------------
/*! \brief Mix and calculates the average of the first 7 channels and updates channel 7 with the result.*/
void ADDAC::mixerMode(){ // MIX ALL 7 FIRST
unsigned long avg=0;
for(int i=0; i<7; i++){
avg+=DACvolts[i];
}
DACvolts[8]=avg/7;
// UPDATE CHANNEL
writeChannel(7,DACvolts[8]);
}
/*! \brief Mix and calculates the average of the channels up to the selected channel, and updates channel 7 with the result.
\param _upToX mix up to this channel : 0 - 7
*/
void ADDAC::mixerMode(int _upToX){ // MIX ALL FIRSTS up to X
unsigned long avg=0;
for(int i=0; i<_upToX; i++){
avg+=DACvolts[i];
}
DACvolts[8]=avg/_upToX;
// UPDATE CHANNEL