Source code
int NOTE_B0 =31;
int NOTE_C1 =33;
int NOTE_CS1 =35;
int NOTE_D1 =37;
int NOTE_DS1 =39;
int NOTE_E1 =41;
int NOTE_F1 =44;
int NOTE_FS1 =46;
int NOTE_G1 =49;
int NOTE_GS1 =52;
int NOTE_A1 =55;
int NOTE_AS1 =58;
int NOTE_B1 =62;
int NOTE_C2 =65;
int NOTE_CS2 =69;
int NOTE_D2 =73;
int NOTE_DS2 =78;
int NOTE_E2 =82;
int NOTE_F2 =87;
int NOTE_FS2 =93;
int NOTE_G2 =98;
int NOTE_GS2 =104;
int NOTE_A2 =110;
int NOTE_AS2 =117;
int NOTE_B2 =123;
int NOTE_C3 =131;
int NOTE_CS3 =139;
int NOTE_D3 =147;
int NOTE_DS3 =156;
int NOTE_E3 =165;
int NOTE_F3 =175;
int NOTE_FS3 =185;
int NOTE_G3 =196;
int NOTE_GS3 =208;
int NOTE_A3 =220;
int NOTE_AS3 =233;
int NOTE_B3 =247;
int NOTE_C4 =262;
int NOTE_CS4 =277;
int NOTE_D4 =294;
int NOTE_DS4 =311;
int NOTE_E4 =330;
int NOTE_F4 =349;
int NOTE_FS4 =370;
int NOTE_G4 =392;
int NOTE_GS4 =415;
int NOTE_A4 =440;
int NOTE_AS4 =466;
int NOTE_B4 =494;
int NOTE_C5 =523;
int NOTE_CS5 =554;
int NOTE_D5 =587;
int NOTE_DS5 =622;
int NOTE_E5 =659;
int NOTE_F5 =698;
int NOTE_FS5 =740;
int NOTE_G5 =784;
int NOTE_GS5 =831;
int NOTE_A5 =880;
int NOTE_AS5 =932;
int NOTE_B5 =988;
int NOTE_C6 =1047;
int NOTE_CS6 =1109;
int NOTE_D6 =1175;
int NOTE_DS6 =1245;
int NOTE_E6 =1319;
int NOTE_F6 =1397;
int NOTE_FS6 =1480;
int NOTE_G6 =1568;
int NOTE_GS6 =1661;
int NOTE_A6 =1760;
int NOTE_AS6 =1865;
int NOTE_B6 =1976;
int NOTE_C7 =2093;
int NOTE_CS7 =2217;
int NOTE_D7 =2349;
int NOTE_DS7 =2489;
int NOTE_E7 =2637;
int NOTE_F7 =2794;
int NOTE_FS7 =2960;
int NOTE_G7 =3136;
int NOTE_GS7 =3322;
int NOTE_A7 =3520;
int NOTE_AS7 =3729;
int NOTE_B7 =3951;
int NOTE_C8 =4186;
int NOTE_CS8 =4435;
int NOTE_D8 =4699;
int NOTE_DS8 =4978;
int noteDuration;
int pauseBetweenNotes = 0;
int negra;
int pushbutton = 3;
int value;
int x1 = 0;
int x2 = 0;
int x3 = 0;
int x4 = 0;
int x5 = 0;
int check = 0;
const int FLEX_PIN0 = A0; // Pin connected to voltage divider output
const int FLEX_PIN1 = A1; // Pin connected to voltage divider output
const int FLEX_PIN2 = A2; // Pin connected to voltage divider output
const int FLEX_PIN3 = A3; // Pin connected to voltage divider output
const int FLEX_PIN4 = A4; // Pin connected to voltage divider output
// Measure the voltage at 5V and the actual resistance of your
// 47k resistor, and enter them below:
const float VCC = 3.3; // Measured voltage of Ardunio 3.3V line
const float R_DIV = 47500.0; // Measured resistance of 3.3k resistor
const float STRAIGHT_RESISTANCE = 37300.0; // resistance when straight
const float BEND_RESISTANCE = 90000.0; // resistance at 90 deg
int minangle0 = 1000;
int maxangle0 = 9000;
void setup() {
negra = 640;
pinMode(pushbutton, INPUT);
Serial.begin(9600);
pinMode(FLEX_PIN0, INPUT);
pinMode(FLEX_PIN1, INPUT);
pinMode(FLEX_PIN2, INPUT);
pinMode(FLEX_PIN3, INPUT);
pinMode(13,OUTPUT);
pinMode(5,OUTPUT);
digitalWrite(5,LOW);
}
void loop() {
digitalWrite(5,LOW);
// Read the ADC, and calculate voltage and resistance from it
int flexADC = analogRead(FLEX_PIN0);
float flexV = flexADC * VCC / 1023.0;
float flexR = R_DIV * (VCC / flexV - 1.0);
// Use the calculated resistance to estimate the sensor's
// bend angle:
float angle = map(flexR, STRAIGHT_RESISTANCE, BEND_RESISTANCE,
0, 90.0);
// Serial.println("Bend: " + String(angle) + " degrees");
Serial.println();
int avg = (minangle0 + maxangle0) / 2;
//Serial.println(angle);
//Serial.println(minangle0);
if (angle < minangle0) {
x1 = 0;
} else {
if (angle < avg) {
x1 = 1;
} else if (angle >= avg) {
x1 = 2;
}
}
delay(50);
flexADC = analogRead(FLEX_PIN1);
//Serial.println(flexADC);
flexV = flexADC * VCC / 1023.0;
flexR = R_DIV * (VCC / flexV - 1.0);
// Use the calculated resistance to estimate the sensor's
// bend angle:
angle = map(flexR, STRAIGHT_RESISTANCE, BEND_RESISTANCE,
0, 90.0);
Serial.println();
avg = (minangle0 + maxangle0) / 2;
//Serial.println(angle);
//Serial.println(minangle0);
if (angle < minangle0) {
x2 = 0;
} else {
if (angle < avg) {
x2 = 1;
} else if (angle >= avg) {
x2 = 2
}
}
delay(50);
// Read the ADC, and calculate voltage and resistance from it
flexADC = analogRead(FLEX_PIN2);
//Serial.println(flexADC);
flexV = flexADC * VCC / 1023.0;
flexR = R_DIV * (VCC / flexV - 1.0);
//Serial.println("Resistance: " + String(flexR) + " ohms");
// Use the calculated resistance to estimate the sensor's
// bend angle:
angle = map(flexR, STRAIGHT_RESISTANCE, BEND_RESISTANCE,
0, 90.0);
// Serial.println("Bend: " + String(angle) + " degrees");
// Serial.println();
avg = (minangle0 + maxangle0);
//Serial.println(angle);
//Serial.println(minangle0);
if (angle < minangle0) {
x3 = 0;
} else {
if (angle < avg) {
x3 = 1;
} else if (angle >= avg) {
x3 = 2;
}
}
delay(50);
// Read the ADC, and calculate voltage and resistance from it
flexADC = analogRead(FLEX_PIN3);
//Serial.println(flexADC);
flexV = flexADC * VCC / 1023.0;
flexR = R_DIV * (VCC / flexV - 1.0);
//Serial.println("Resistance: " + String(flexR) + " ohms");
// Use the calculated resistance to estimate the sensor's
// bend angle:
angle = map(flexR, STRAIGHT_RESISTANCE, BEND_RESISTANCE,
0, 90.0);
// Serial.println("Bend: " + String(angle) + " degrees");
// Serial.println();
avg = (minangle0 + maxangle0);
//Serial.println(angle);
//Serial.println(minangle0);
if (angle < minangle0) {
x4 = 0;
} else {
if (angle < avg) {
x4 = 1;
} else if (angle >= avg) {
x4 = 2;
}
}
delay(50);
// Read the ADC, and calculate voltage and resistance from it
flexADC = analogRead(FLEX_PIN4);
//Serial.println(flexADC);
flexV = flexADC * VCC / 1023.0;
flexR = R_DIV * (VCC / flexV - 1.0);
//Serial.println("Resistance: " + String(flexR) + " ohms");
// Use the calculated resistance to estimate the sensor's
// bend angle:
angle = map(flexR, STRAIGHT_RESISTANCE, BEND_RESISTANCE,
0, 90.0);
// Serial.println("Bend: " + String(angle) + " degrees");
// Serial.println();
avg = (minangle0 + maxangle0);
//Serial.println(angle);
//Serial.println(minangle0);
if (angle < minangle0) {
x5 = 0;
} else {
if (angle < avg) {
x5 = 1;
} else if (angle >= avg) {
x5 = 2;
}
}
delay(50);
Serial.println(angle);
//
//
value = digitalRead(pushbutton);
//Serial.println(value);
delay(50);
//Serial.println(value);
while (value == HIGH) { // If button is pressed, play desplacito melody . Link - https://create.arduino.cc/projecthub/msr048/despacito-melody-9dcab7
notars(negra, NOTE_D5);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra, NOTE_CS5);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 2, NOTE_B4);
notars(negra / 4, NOTE_FS4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_FS4);
notars(negra / 4, NOTE_FS4);
notars(negra / 4, NOTE_FS4);
notars(negra / 4, NOTE_FS4);
notars(negra / 4, NOTE_FS4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_B4);
notars(negra / 4, NOTE_B4);
notars(negra / 4, NOTE_B4);
notars(negra / 2, NOTE_B4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_A4);
notars(negra / 4, NOTE_B4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
delay(negra / 4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_G4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_G4);
notars(negra / 4, NOTE_G4);
notars(negra / 4, NOTE_G4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_G4);
notars(negra / 4, NOTE_G4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_B4);
notars(negra / 4, NOTE_B4);
notars(negra / 4, NOTE_B4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 2, NOTE_B4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_CS5);
notars(negra / 4, NOTE_D5);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
delay(negra / 4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_A4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_A4);
notars(negra / 4, NOTE_A4);
notars(negra / 4, NOTE_A4);
notars(negra / 4, NOTE_A4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 4, NOTE_D5);
notars(negra / 4, NOTE_CS5);
notars(negra / 4, NOTE_D5);
notars(negra / 4, NOTE_CS5);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
notars(negra / 2, NOTE_D5);
notars(negra / 4, NOTE_E5);
notars_jai(negra / 2, NOTE_E5, negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
//-----------------------------------------------
tone(3, NOTE_CS5 , negra * 3 / 4);
//-----------------------------------------------
delay(negra / 4);
delay(negra / 4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
noTone(3);
delay(negra / 4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
delay(negra / 4);
delay(negra / 4);
value = digitalRead(pushbutton);
if (value != HIGH) {
break;
}
}
while (value == LOW) {
//Serial.println("yes");
int l[5];
l[0] = x1;
l[1] = x2;
l[2] = x3;
l[3] = x4;
l[4] = x5;
maincode(l);
value = digitalRead(pushbutton);
}
}
void maincode(int l[]) {
int buzzer = 6;
int flag = 0;
if (l[0] == 0 and l[1] == 0) {
if (l[2] == 0 and l[3] == 0) {
if (l[4] == 0) {
flag = 1;
noTone(buzzer);
}
}
}
// Serial.println("hii");
//Serial.println(flag);
if (flag == 0) {
int freq = 0;
int count = 0;
for (int i = 0; i < 5; i++) {
if (l[i] == 1) {
int g = ran(count,i);
freq += (200 + (i) * 400);
count += 1;
} else if (l[i] == 2) {
int g = ran(count,i);
freq += (300 + i * 400);
count += 1;
}
}
tone(buzzer, freq / count);
}
}
void notars(int noteDuration, int LaNota ) {
//noteDuration=negra/4;
tone(6, LaNota , noteDuration * 0.9);
// pauseBetweenNotes = noteDuration * 1.30;
pauseBetweenNotes = noteDuration * 1.1;
delay(pauseBetweenNotes);
noTone(6);
}
void notars_jai(int noteDuration, int LaNota , int Desfase) {
//noteDuration=negra/4;
tone(6, LaNota , noteDuration * 0.9);
// pauseBetweenNotes = noteDuration * 1.30;
pauseBetweenNotes = noteDuration * 1.1;
delay(Desfase);
delay(pauseBetweenNotes - Desfase);
noTone(6);
int ran(int i,int p)
{
int j=2;
int k=4;
int l= 6;
int m=8
if (p==0)
return i*k;
else if(p==1);
return i*j;
else if(p==2);
return i*l;
else
return i*m;
}