Project 1

Comment: At first Mathew and I didn't know what we wanted to do for the first project. After bouncing around a few ideas we settled on a a dj box that does shoots light/lasers depending on the CDS analog value. We cut holes in the cups then wedge the CDS sensor then attached the lasers and led to the arduino. What Mathew and I had the most trouble was the wiring since we had 4 CDS, 4 lasers, and 4 led. We also ran out of wires so we had to strip and solder a lot of wires together, which got really messy rally fast. The final project didn't work as intended, the connections of the wires were really bad, so some of the lights didn't work.
//Project 4 Mason
int BUTTON_1 = 4;// First button on pin 4 is a mute button for the music
int BUTTON_2 = 3;// Second button on pin 3 controls Imperial March music

int buttonState_1 = LOW;//This variable stores the on/off state of the mute button
int buttonState_2 = LOW;//This variable stores the on/off state of the music button

int SPEAKER_1 = 9;// First Speaker on pin 9
int SPEAKER_2 = 8;
int SPEAKER_3 = 7;
int SPEAKER_4 = 6;
int SPEAKER_5 = 5;// This speaker plays Imperial March

const int RLED = 10;// Two Red LEDs connected in parallel on pin 10 (PWM)
const int GLED = 11;
const int BLED = 0;
const int GLED_RGB = 1;// Green LED on pin 1
const int RLED_RGB = 2;// Red LED on pin 2

const int LASER_1 = 12;// Two cheap lasers connected in parallel on pin 12
const int LASER_2 = 13;

const int LIGHT = A0;// Light Sensor (aka photoresistor) on analog pin 0
const int LIGHT_2 = A1;
const int LIGHT_3 = A4;
const int LIGHT_4 = A2;

const int MIN_LIGHT = 10; //MINIMUM expected light value for first photoresistor
const int MAX_LIGHT = 240;//MAXIMUM Expected Light value for first photoresistor

const int MIN_LIGHT_2 = 20;
const int MAX_LIGHT_2 = 650;

const int MIN_LIGHT_3 = 10;
const int MAX_LIGHT_3 = 240;

const int MIN_LIGHT_4 = 10;
const int MAX_LIGHT_4 = 240;

int val = 0; //variable to hold the analog reading for the light value of photoresistor
int val_2 = 0;
int val_3 = 0;
int val_4 = 0;


void setup()
{
 Serial.begin(9600); // Set the bit rate for serial communication to 9600

 pinMode(RLED, OUTPUT); //Set LED pin as output
 pinMode(GLED, OUTPUT);
 pinMode(BLED, OUTPUT);
 pinMode(GLED_RGB, OUTPUT);
 pinMode(RLED_RGB, OUTPUT);


 pinMode(LASER_1,OUTPUT); //Set laser pin as output
 pinMode(LASER_2,OUTPUT);

 pinMode(LIGHT, INPUT); //Set Photoresistor as input
 pinMode(LIGHT_2,INPUT);
 pinMode(LIGHT_3,INPUT);
 pinMode(LIGHT_4,INPUT);

 pinMode(BUTTON_1, INPUT); //Set first button as input
 pinMode(BUTTON_2, INPUT);

 pinMode(SPEAKER_1, OUTPUT); //Set speaker as output
 pinMode(SPEAKER_2, OUTPUT);
 pinMode(SPEAKER_3, OUTPUT);
 pinMode(SPEAKER_4, OUTPUT);
 pinMode(SPEAKER_5, OUTPUT);
}

void loop()
//#define  C0 16.35
//#define Db0 17.32
//#define D0  18.35
//#define Eb0 19.45
//#define E0  20.60
//#define F0  21.83
//#define Gb0 23.12
//#define G0  24.50
//#define Ab0 25.96
//#define LA0 27.50
//
//
//#define C1  32.70
//#define Db1 34.65
//#define D1  36.71
//#define Eb1 38.89
//#define E1  41.20
//#define F1  43.65
//#define Gb1 46.25
//#define G1  49.00
//#define Ab1 51.91
//#define LA1 55.00
//#define Bb1 58.27
//
//#define C2  65.41
//#define Db2 69.30
//#define D2  73.42
//#define Eb2 77.78
//#define E2  82.41
//#define F2  87.31
//#define Gb2 92.50
//#define G2  98.00
//#define Ab2 103.83
//#define LA2 110.00
//#define Bb2 116.54
//#define B2  123.47
//#define C3  130.81
//#define Db3 138.59
//#define D3  146.83
//#define Eb3 155.56
//#define E3  164.81
//#define F3  174.61
//#define Gb3 185.00
//#define G3  196.00
//#define Ab3 207.65
//#define LA3 220.00
//#define Bb3 233.08
//#define B3  246.94
//#define C4  261.63
//#define Db4 277.18
//#define D4  293.66
//#define Eb4 311.13
//#define E4  329.63
//#define F4  349.23
//#define Gb4 369.99
//#define G4  392.00
//#define Ab4 415.30
//#define LA4 440.00
//#define Bb4 466.16
//#define B4  493.88
//#define C5  523.25
//#define Db5 554.37
//#define D5  587.33
//#define Eb5 622.25
//#define E5  659.26
//#define F5  698.46
//#define Gb5 739.99
//#define G5  783.99
//#define Ab5 830.61
//#define LA5 880.00
//#define Bb5 932.33
//#define B5  987.77
//#define C6  1046.50
//#define Db6 1108.73
//#define D6  1174.66
//#define Eb6 1244.51
//#define E6  1318.51
//#define F6  1396.91
//#define Gb6 1479.98
//#define G6  1567.98
//#define Ab6 1661.22
//#define LA6 1760.00
//#define Bb6 1864.66
//#define B6  1975.53
//#define C7  293.00
//#define Db7 2217.46
//#define D7  2349.32
//#define Eb7 2489.02
//#define E7  2637.02
//#define F7  2793.83
//#define Gb7 2959.96
//#define G7  3135.96
//#define Ab7 3322.44
//#define LA7 3520.01
//#define Bb7 3729.31
//#define B7  3951.07
//#define C8  4186.01
//#define Db8 4434.92
//#define D8  4698.64
//#define Eb8 4978.03
//// DURATION OF THE NOTES
//#define BPM 120    //  you can change this value changing all the others
//#define H 2*Q //half 2/4
//#define Q 60000/BPM //quarter 1/4
//#define E Q/2   //eighth 1/8
//#define S Q/4 // sixteenth 1/16
//#define W 4*Q // whole 4/4

{
  buttonState_1 = digitalRead(BUTTON_1);
  buttonState_2 = digitalRead(BUTTON_2);

// The following three variables control: (a) the previous state of the music button,
  // (b) the current state of the music button, and (c) the on/off state of its
  // connected speaker
/*boolean lastButton = LOW;
boolean currentButton = LOW;
boolean SPEAKER_5_On = false;
currentButton = debounce(lastButton);
  if (lastButton == LOW && currentButton == HIGH)
   {
    SPEAKER_5_On = !SPEAKER_5_On;
   }
  lastButton = currentButton;

  if (SPEAKER_5_On)
    {   
 
    }
  else
  {
    boolean SPEAKER_5_On = false;
  }*/

if (buttonState_1 == HIGH) //if mute button has been pressed...
  {
   noTone(SPEAKER_5); //turn off the music speaker
  }
if (buttonState_2 == HIGH)
{   
    // play the Music
    tone(9,146.83,400);//D
      delay(400);
 
    tone(9,146.83,400);//D
       delay(400);
 
    tone(9,146.83,250);//D
       delay(250);
 
    tone(9,174.61,250);//F
       delay(250);
 
    tone(9,196.00,350);//G
       delay(400);
 
    tone(9,146.83,350);//D
      delay(400);
 
    tone(9,146.83,200);//D
       delay(250);
 
    tone(9,146.83,200);//D
       delay(250);
 
     tone(9,130.81,400);//C
       delay(450);
 
     tone(9,130.81,400);//C
       delay(450);
 
    tone(9,146.83,400);//D
       delay(450);
 
    tone(9,146.83,400);//D
       delay(450);
 
     tone(9,146.83,400);//D
       delay(450);
 
    tone(9,174.61,400);//F
       delay(300);
 
    tone(9,196.00,400);//G
       delay(450);
 
     tone(9,146.83,400);//D
       delay(450);
 
    tone(9,146.83,400);//D
       delay(450);
 
     tone(9,146.83,400);//D
       delay(450);
 
    tone(9,130.81,400);//C
       delay(300);
 
     tone(9,130.81,400);//C
       delay(300);
 
    tone(9,130.81,400);//C
       delay(450);
 
    tone(9,174.61,400);//F
       delay(450);
 
    tone(9,146.83,400);//D
       delay(450);
 
    tone(9,220.00,400);//A
       delay(450);
 
     tone(9,174.61,400);//D
       delay(450);
 
    tone(9,146.83,400);//D
       delay(450);
 
    tone(9,207.65,400);//GSHARP
       delay(450);
  }


{
 val = analogRead(LIGHT); //Read the light sensor
 val = map(val, MIN_LIGHT, MAX_LIGHT, 255,0 );//Map the light reading
 val = constrain(val, 0, 255); //Constrain light value
 analogWrite(RLED, val); //Control the LED
 Serial.println(val);
 delay(200);
    if(val > 150)
    {
    tone(SPEAKER_1, val+200,200);
    //digitalWrite(RGB_LED. HIGH)
    delay(10);

    }
}
//////////////////////////////////////////////////////////////////////////////////////////
{
 val_2 = analogRead(LIGHT_2); //Read the light sensor
 val_2 = map(val_2, MIN_LIGHT_2, MAX_LIGHT_2, 255,0 );//Map the light reading
 val_2 = constrain(val_2, 0, 255); //Constrain light value
 analogWrite(GLED, val_2); //Control the LED
 Serial.println(val_2);
 delay(200);
    if(val_2 > 150)
     {
      tone(SPEAKER_2, 2000,100);
      delay(100);
      tone(SPEAKER_2, 1500,100);
      delay(10);
      tone(SPEAKER_2, 1000,100);
      delay(150);
      tone(SPEAKER_2, 2000,100);
      delay(10);
      tone(SPEAKER_2, 1500,200);
      delay(100);
      tone(SPEAKER_2, 2000,200);
      delay(10);
     }
  }
//////////////////////////////////////////////////////////////////////////////////////////
 {
 val_3 = analogRead(LIGHT_3); //Read the light sensor
 val_3 = map(val_3, MIN_LIGHT_3, MAX_LIGHT_3, 255,0 );//Map the light reading
 val_3 = constrain(val_3, 0, 255); //Constrain light value
 analogWrite(LASER_1, val_3); //Control the LED
 //digitalWrite(GLED, HIGH);
 Serial.println(val_3);
 delay(200);
    if(val_3 > 140)
     {
      tone(SPEAKER_3, val_3-600,200);
    delay(10);
     }
  }
//////////////////////////////////////////////////////////////////////////////////////////
   {
 val_4 = analogRead(LIGHT_4); //Read the light sensor
 val_4 = map(val_3, MIN_LIGHT_4, MAX_LIGHT_4, 255,0 );//Map the light reading
 val_4 = constrain(val_4, 0, 255); //Constrain light value
 analogWrite(LASER_2, val_4); //Control the LED
 //digitalWrite(GLED, HIGH);
 Serial.println(val_4);
 delay(200);
    if(val_4 > 140)
     {
      tone(SPEAKER_4, val_4+1000,200);
    delay(10);
     }
  }
  if(val<150)
  {
 digitalWrite(RLED, HIGH);
 digitalWrite(GLED_RGB, LOW);
 digitalWrite(BLED, HIGH);
  }
}


 

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