float m ;
float time;
float timeNormalized;
float sine;


float sineWave(float period) {

  float timeInversed = 1/period;

  m = millis();
  time = m % period;
  timeNormalized =  time*timeInversed;

  sine = sin(timeNormalized*TWO_PI);
  return sine;

}

  
//import processing.opengl.*;
//import javax.media.opengl.GL;


float meridian;
float equator;

int TOTAL_BOXES = 50;

float PERIOD = 5000;
float periodX;
float periodY;
float periodZ;

float RANGE = 100;
float rangeX;
float rangeY;
float rangeZ;

float xpos;
float ypos;
float zpos;
float prevXpos;
float prevYpos;
float prevZpos;

float radX;
float radY;
float radZ;

int H;
int S;
int B;

int digital1;
int digital2;
int digital3;
int digital4;

float analog1;
float analog2;
float analog3;
float analog4;
float analog5;

void setup() {
  noCursor();

  size(1024, 768, P3D);
  frameRate(60);
 // enableVSync();

  // setupArduino();

  meridian = width*.5;
  equator = height*.5;
}

void draw() {

  noCursor();

  analog1 =sineWave(1000000.0);
  analog2= sineWave(2000000.0);
  analog3= sineWave(3000000.0);
  analog4= sineWave(4000000.0);
  analog5= sineWave(5000000.0);

  digital1 = round(random(1));
  digital2 =round(random(1));
  digital3 =round(random(1));
  digital4 =round(random(1));


  background(0);
  lights();
  lightFalloff(1, .001, .001);
lightSpecular(255, 200, 200);

  translate(sineWave(analog2*3333)*meridian+meridian,sineWave(analog2*7777)*equator+equator, -300);
  ambientLight(100, 0,100, 0, 0, 0);
  
  colorMode(HSB, 100);
  H = round(sineWave(analog1*20000)*25);
  S = round(sineWave(analog2*20000)*50);
  B = round((sineWave(analog3*200000)*10)+90);
  noStroke();
  fill(H, S, B, 50);


  ambientLight(100-H, S,B, xpos, ypos, zpos);
  ambientLight(100-H, S,B, width-xpos, height-ypos, zpos);

  drawBoxes();

}

void drawBoxes() {

  prevXpos = xpos;
  prevYpos = ypos;

  if(digital4==1) {
    periodX = analog2*PERIOD+100000;
    rangeX = analog3*RANGE;

    periodY = analog5*PERIOD+100000; 
    rangeY = analog4*RANGE;

    periodZ = analog1*PERIOD+100000; 
    rangeZ = analog1*RANGE;

  }

  xpos = sineWave(periodX)*rangeX;
  ypos = sineWave(periodY)*rangeY;
  zpos = sineWave(periodZ)*rangeZ;

  for(int k=0;k<=TOTAL_BOXES;++k) {
    xpos += k*sineWave(111111)*.5;
    ypos += k*sineWave(222222)*.7;
    zpos += k*sineWave(555555);

    radX = sineWave(1111111*analog5+200000)*TWO_PI;
    radY = sineWave(1111111*analog4+200000)*TWO_PI;
    radZ = sineWave(1111111*analog3+200000)*TWO_PI;

    radX += k*TWO_PI*sineWave(1111111*analog4+100000);
    radY += k*TWO_PI*sineWave(1111111*analog4+100000);
    radZ += k*PI*sineWave(1111111*analog3+100000);

    pushMatrix();
    rotateX(radX);
    rotateY(radY);
    rotateZ(radZ);

    //  rect(xpos,ypos, prevXpos,prevYpos);  
    translate(xpos, ypos, zpos);

    beginShape();
    

    
    
    vertex(k*sineWave(2000), k*sineWave(3000));
    vertex(k*sineWave(3000), k*sineWave(4000));
    vertex(k*sineWave(5000), k*sineWave(6000));
    vertex(k*sineWave(7000), k*sineWave(7000));
    vertex(k*sineWave(8000)+random(7), k*sineWave(8000)+random(3));
    vertex(k*sineWave(9000)+random(7), k*sineWave(9000)+random(3));
    vertex(k*sineWave(10000)+random(7), k*sineWave(10000)+random(3));
    vertex(k*sineWave(11000)+random(7), k*sineWave(11000)+random(3));
    endShape();
    popMatrix();

  }


}

/*
PGraphicsOpenGL pgl;
GL gl;
void enableVSync()
{
  pgl = (PGraphicsOpenGL) g; //processing graphics object
  gl = pgl.beginGL(); //begin opengl
  gl.setSwapInterval(1); //set vertical sync on
  pgl.endGL(); //end opengl
}*/