Problem with array of objects

Hi, so I have changed a couple of things and it is still not working.
The program compiles, uploads but no code comes on.
@AWOL I tried having byte arrays, but the same thing happens.
@GoForSmoke I currently have it in progmem, but still nothing is happening.

Binary sketch size: 10,190 bytes (of a 32,256 byte maximum)

Any ideas on how to fix this?

here is all of my code:

orangeLOL:

/*
  Orange section of planetarium, twinkle the stars then show constellations. not working as of 6pm 18/8
*/

#include "Charliplexing.h"  //initializes the LoL Sheild library
#include "planet.h" 
#include <avr/pgmspace.h>

//#define colour "orange"
#define cons 23// how many constellations there are
 //orange = 23
 //pink = 20

int GLOBALDELAY = 100;
int scrollSpeed = 50;      //delay between frames


int xPosition = 0;          //x position 0-13
int yPosition = 0;          //y position 0-8
int frameCounter = 0;       //used to find when the frame has filled up (126 leds)
int greyscale = 1;          //greyscale color 0-7
bool set = true;

  stargroup con[23];


void setup()                // run once, when the sketch starts
{
    Serial.begin(9600); 
Serial.print(" start set up ");


  LedSign::Init(GRAYSCALE); //initializes a grayscale frame buffer
  
 // if (colour == "orange")
 // {
  
//declaring the constella
prog_int16_t xL[] = {2, 2 ,3, 3, 3, 3};
prog_int16_t yL[] = {1, 0, 8, 7, 6, 5};
stargroup L(6, xL, yL);
con[0] = L; //Set(L);

prog_int16_t xM[] = {3,3,3,3}; 
prog_int16_t yM[] = {4,3,2,1};
stargroup M(4, xM, yM);
con[1] = M; //Set(M);

prog_int16_t xN[] = {4,4,4,4};
prog_int16_t yN[] = {8,7,6,5};
stargroup N(4, xN, yN);
con[2] = N; 

prog_int16_t xO[] = {4,4,4,4}; 
prog_int16_t yO[] = {4,3,2,1};
stargroup O(4, xO, yO);
con[3] = O; 

prog_int16_t xq[] = {5,5,5,5,5}; 
prog_int16_t yq[] = {7,6,5,4,3};
stargroup q(5, xq, yq);
con[4] = q; //Set(M);

prog_int16_t xe[] = {13, 13}; 
prog_int16_t ye[] = {8,7};
stargroup e(2, xe, ye);
con[5] = e; //Set(M);

prog_int16_t xf[] = {0,0,0,0,0};  //06 05 04 03 02
prog_int16_t yf[] = {6,5,4,3,2};
stargroup f(5, xf, yf);
con[6] = f; //Set(M);

prog_int16_t xg[] = {0,0,1,1};  //01 00 18 17
prog_int16_t yg[] = {1,0,8,7};
stargroup g(4, xg, yg);
con[7] = g; //Set(M);

prog_int16_t xh[] = {1,1,1,1,1};  
prog_int16_t yh[] = {6,5,4,3,2};
stargroup h(5, xh, yh);
con[8] = h; //Set(M);

prog_int16_t xi[] = {1,4};  //10 48
prog_int16_t yi[] = {0,8};
stargroup i(2, xi, yi);
con[9] = i; //Set(M);

prog_int16_t xj[] = {2,2};  //27 26
prog_int16_t yj[] = {7,6};
stargroup j(2, xj, yj);
con[10] = j; //Set(M);

prog_int16_t xk[] = {2,2,2,2};  
prog_int16_t yk[] = {5,4,3,2};
stargroup k(4, xk, yk);
con[11] = k; //Set(M);

prog_int16_t xa[] = {5,5,5,6,6,6};  //52 51 50 68 67 66
prog_int16_t ya[] = {2,1,0,8,7,6};
stargroup a(6, xa, ya);
con[12] = a; //Set(M);

prog_int16_t xb[] = {6,6,6,6};  
prog_int16_t yb[] = {5,4,3,2};
stargroup b(4, xb, yb);
con[13] = b; //Set(M);

prog_int16_t xc[] = {6,6,7,7,7,7,7,7,7,7};  //61 60 78 77 76 75 74 73 72 71
prog_int16_t yc[] = {1,0,8,7,6,5,4,3,2,1};
stargroup c(10, xc, yc);
con[14] = c; //Set(M);

prog_int16_t xd[] = {7,8,8,8,8,8};  //06 05 04 03 02
prog_int16_t yd[] = {0,8,7,6,5,4};
stargroup d(6, xd, yd);
con[15] = d; //Set(M);

prog_int16_t xs[] = {8,8};  
prog_int16_t ys[] = {3,2};
stargroup s(2, xs, ys);
con[16] = s; //Set(M);

prog_int16_t xt[] = {8,8,9,9};  
prog_int16_t yt[] = {1,0,8,7};
stargroup t(4, xt, yt);
con[17] = t; //Set(M);

prog_int16_t xv[] = {9,9,9,9};  
prog_int16_t yv[] = {6,5,4,3};
stargroup v(4, xv, yv);
con[18] = v; //Set(M);

prog_int16_t xw[] = {9,9,9,10,10,10}; 
prog_int16_t yw[] = {2,1,0,8,7,6};
stargroup w(6, xw, yw);
con[19] = w; //Set(M);

prog_int16_t xx[] = {10,10,10,10,10};  
prog_int16_t yx[] = {5,4,3,2,1};
stargroup x(5, xx, yx);
con[20] = x; //Set(M);

prog_int16_t xy[] = {10, 11};  
prog_int16_t yy[] = {0,8};
stargroup y(2, xy, yy);
con[21] = y; //Set(M);

prog_int16_t xz[] = {11,11,11};  
prog_int16_t yz[] = {7,6,5};
stargroup z(3, xz, yz);
con[22] = z; //Set(M);


prog_int16_t xzz[] = {11,11};  
prog_int16_t yzz[] = {4,3};
stargroup zz(2, xzz, yzz);
con[23] = zz; 
}


void loop()                 // run over and over again
{ 
  
    Serial.print(" we are here ");
 // int count = 0; //used for timing
  bool up = true;  //up is used for twinkle direction.
  int lightup = 0; //used for which constellation is to be chosen.
 


 for (int k = 0; k < 10000; k++)
  {
  //If the frame counter is full, then it delays for scrollSpeed.
    if(frameCounter == 126)
    {
      delay(scrollSpeed);
      frameCounter=0;
    //  LedSign::Set(random(13), random(8), random(7));
     // count++;  
    }
  //at the end of the row, it advances Y to the next one
  if(xPosition == 13)yPosition++;
  //at the end of the row, it starts from the first LED in the next one
  if(xPosition > 13)xPosition=0;
   //at the end of the frame, it starts from the begining again
  if(yPosition > 8)yPosition=0;
  

   
   //twinkle the lights between 2 and 6 so they dont turn off completly
  if(greyscale > 6) up = false; 
  if(greyscale < 2) up = true;
  if (up) greyscale++;
  if (!up) greyscale--;
  // here are some variations for twinkles, but they are commented out

   // greyscale = random(7); //random (comment out increment above)
   // if(greyscale > 7)greyscale= 0;  // original
   //  if(greyscale > 7)greyscale= 4;   //light twinkle

  //sends the current x, y, and color to the frame, one LED at a time
  LedSign::Set(xPosition, yPosition, greyscale);  //set normal light to twinkle
  LedSign::Set(random(13), random(8), random(2,6)); //set random light to random value.


  //the counters are at the end of the loop, which will advance everything
  //for the next frame
  xPosition++;
  frameCounter++;
  }
 
  for (int i = 0; i < cons; i++)
  {
    con[i].fadeOffAll(); 
  }
  
  delay(1000);
  
for (int i = 0; i < 5; i++)
{
  lightup = random(cons);
  con[lightup].fadeOn();
  delay(500);
  con[lightup].fadeOff();
  delay(500);
}
 
  
 // count = 0;
}




/////////////////////////////////////////

planet.h

/*
//  planet.h
//  
    This is the header file for the planatarium. This provides a class for each of the constelations. There is a global array set up in the main file that has as many constellations for that section. (EG oragne has 27)
 Individual constellations are defined as x and y pos in the setup loop. The main loop then just uses the global array of objects to trigger the events.//
//  Created by Rory McKay on 12/08/12.
// TODO: clean up privacy issues, take out any extra code.
*/

#ifndef _planet_h
#define _planet_h
#include "Charliplexing.h"
#include <avr/pgmspace.h>

class stargroup

{
public:
        //constructors
    stargroup();
    stargroup(int, prog_int16_t[], prog_int16_t[]);
    stargroup& operator= (const stargroup &source);
    
        //patterns
    void fadeOn();
    void on();
    void fadeOff();
    void fadeOffAll();
    void off();
    
        //variables
    prog_int16_t xPos[16];
    prog_int16_t yPos[16];
    int noOfStars;
    
};

void empty(int[], int[]);
#endif