Bunny Jump Code!

// NeoPixel test program showing use of the WHITE channel for RGBW

// pixels only (won't look correct on regular RGB NeoPixel strips).

#include <Adafruit_NeoPixel.h>

#ifdef __AVR__

#include <avr/power.h> // Required for 16 MHz Adafruit Trinket

#endif

// Which pin on the Arduino is connected to the NeoPixels?

#define LED_PIN   4 //DIN pin

#define CTRL_PIN  8 //Button pin

// How many NeoPixels are attached to the Arduino?

#define LINES     8 // number of rows in the LED matrix

#define COLUMNS   16 //number of columns in the LED matrix

#define LED_COUNT COLUMNS*LINES

// NeoPixel brightness, 0 (min) to 255 (max)

#define BRIGHTNESS 10 // Set BRIGHTNESS to about 1/5 (max = 255)

// Declare our NeoPixel strip object:

Adafruit_NeoPixel strip(LED_COUNT, LED_PIN, NEO_GRB + NEO_KHZ800);

// Argument 1 = Number of pixels in NeoPixel strip

// Argument 2 = Arduino pin number (most are valid)

// Argument 3 = Pixel type flags, add together as needed:

//   NEO_KHZ800  800 KHz bitstream (most NeoPixel products w/WS2812 LEDs)

//   NEO_KHZ400  400 KHz (classic 'v1' (not v2) FLORA pixels, WS2811 drivers)

//   NEO_GRB     Pixels are wired for GRB bitstream (most NeoPixel products)

//   NEO_RGB     Pixels are wired for RGB bitstream (v1 FLORA pixels, not v2)

//   NEO_RGBW    Pixels are wired for RGBW bitstream (NeoPixel RGBW products)

#define GRASS_COLOR strip.Color(0,32,0)

#define SKY_COLOR strip.Color(0,0,32)

#define TEXT_COLOR strip.Color(128,0,0)

int phase;

int xPos;

int yPos;

int Tick;

int RfrshTicks;

int DisplaySpeed;

int StartPhase;

String oPhrase1;

String oPhrase2;

int crtPos[2][2]; //array of carrots position and state

int BunnyState;

int JumpPhase;

int RainbowPhase;

int CtrlPin_State;

int Prgrs;

uint32_t carrotBottom;

uint32_t carrotTop;

uint32_t carrotStumped;

uint32_t RnbClrs[6]; // array for rainbow colors

void setup()

{

  pinMode(CTRL_PIN, INPUT); //initializing pin botton conncted for input 

  randomSeed(analogRead(0)); //initializing random number generator

  strip.begin();           // INITIALIZE NeoPixel strip object (REQUIRED)

  strip.show();            // Turn OFF all pixels ASAP

  strip.setBrightness(BRIGHTNESS); //Setting brightness

  carrotBottom=strip.Color(255,147,8); //set color for bottom part of the carrot

  carrotTop=strip.Color(60,128,32); //set color for top part of the carrot

  carrotStumped=strip.Color(16,16,16); //set color for stumped carrot

  RnbClrs[0]=strip.Color(238,0,238); RnbClrs[1]=strip.Color(163,73,163); RnbClrs[2]=strip.Color(0,0,128); RnbClrs[3]=strip.Color(0,198,64); //setting array of colors for rainbow line

  RnbClrs[4]=strip.Color(196,196,96); RnbClrs[5]=strip.Color(196,96,0); RnbClrs[6]=strip.Color(196,0,0);

  RainbowPhase=-1; //no rainbow at the beginning

  phase=1; //start from setup phase

  xPos=14; //initializing X position for running text - not used

  yPos=2; //initializing Y position for running text - not used

  Tick=1; //counting cicles: we need read button's state more often than change bunny and carrot's positions

  StartPhase=0; //strat phase: 0 show speed, 1 allow to increase speed, 2 allow to decrease speed, 3 start game

  RfrshTicks=50; //how many ticks between refreshing bunny and carrots positions - variable may be changed during setup, smaller number - more often positions are changing

  DisplaySpeed=10; // number displaying on the screen to represent speed: smaller number -> bigger refresh ticks -> slower positions changing

  JumpPhase=0; // used to determine bunny positions during jump: 0 - sitting

  CtrlPin_State=0; // button not pushed at the beginning

  crtPos[0][0]=-5; crtPos[1][0]=-5; crtPos[0][1]=1; crtPos[1][1]=1; //carrot position outside of the screen and carrots were not stumped

  oPhrase1="V"; //first part of the setup message

  oPhrase2=""; // second part of the setup message

  BunnyState=1; // bunny in sitting position

  SetScene(GRASS_COLOR,SKY_COLOR); //set pixels for sky and ground

  displayText("V",0,2,TEXT_COLOR); //set pixels to display V at the left of the screen

  displayText(":"+String(DisplaySpeed),5,2,TEXT_COLOR); //set pixels to display speed number next to the V

  strip.show();            // show setup screen

}

void loop() //infinity loop to catch button's click and refresh screen

{

  if(phase==1 && (((Tick % 100)==0) || (StartPhase==-1))) //refresh setup screen every 100 ticks

  {

    if(StartPhase==-1){StartPhase=3;} //set StartPhase to display speed value

    switch(StartPhase) //changing StartPhase every 100 ticks

    {

      case 0: //changing SatrtPhase to 1 - allow to increase speed

        oPhrase1="V"; oPhrase2=":>";

        StartPhase=1;

        break;

      case 1: //changing SatrtPhase to 2 - allow to deccrease speed

        oPhrase1="V"; oPhrase2=":<";

        StartPhase=2;

        break;

      case 2: //changing SatrtPhase to 3 - allow to start game

        oPhrase1=" GO"; oPhrase2="";

        StartPhase=3;

        break;

      case 3: //changing SatrtPhase to 0 - display speed value

        oPhrase1="V"; oPhrase2=":"+String(DisplaySpeed);

        StartPhase=0;

        crtPos[0][0]=-5; crtPos[1][0]=-5; crtPos[0][1]=1; crtPos[1][1]=1;

       break;

    }

  }

  delay(10); //delay for 10 milliseconds

  if((Tick % RfrshTicks)==0) //prepare screen for refresh

  {

    switch(phase) //determine  is it setup or game

    {

      case 1: //setup process: decrease carrot's position by 1 and check if position out of the screen reset it to the beginning of the screen

        crtPos[0][0]--;

        if(crtPos[0][0]<2){crtPos[0][0]=18;}

        carrot(crtPos[0][0],1);

        break;

      case 2: //game

        crtPos[0][0]--; crtPos[1][0]--; // decrease both carrot's positions

        if(crtPos[0][0]<2){if(crtPos[1][0]<3){if(random(100)<50){crtPos[0][0]=18;crtPos[0][1]=1;}};if(crtPos[1][1]==1){Prgrs++;}else{Prgrs--;RainbowPhase=-1;}}; 

        //if first carrot close to the beginning of the screen randomly move second carrot to the end of the screen

        if(crtPos[1][0]<2){if(crtPos[0][0]<3){if(random(100)<50){crtPos[1][0]=18;crtPos[1][1]=1;}};if(crtPos[0][1]==1){Prgrs++;}else{Prgrs--;RainbowPhase=-1;}};

        //if second carrot close to the beginning of the screen randomly move first carrot to the end of the screen

        if(crtPos[0][0]==-1){if(crtPos[0][1]==1){Prgrs++;RainbowPhase=0;}else{Prgrs--;RainbowPhase=-1;}}; 

        //if first carrot out of the screen and not stumped set rainbow phase to 0

        if(crtPos[1][0]==-1){if(crtPos[1][1]==1){Prgrs++;RainbowPhase=0;}else{Prgrs--;RainbowPhase=-1;}};

        //same for second carrot

        break;

    }

  }

  if((CtrlPin_State==LOW)&&(digitalRead(CTRL_PIN)==HIGH)) //checking if button was pressed during tick

  {

    switch(phase)

    {

      case 1: //setup phase

        switch(StartPhase)

        {

          case 0:

            break; //speed displayed, do nothing

          case 1: //speed increasing - increase display number by one and decrese number of ticks between refresh by 20%

            if(RfrshTicks>0){DisplaySpeed+=1;RfrshTicks-=RfrshTicks/5;}

            StartPhase=3;

            break;

          case 2: //speed decreasing - decrease display number by one and increse number of ticks between refresh by 20%

            if(DisplaySpeed>1){DisplaySpeed-=1;RfrshTicks=1.2*RfrshTicks;}

            StartPhase=3;

            break;

          case 3: //switch to game phase

            oPhrase1=""; oPhrase2=""; Prgrs=0;

            phase=2;

            break;

        }

        break;

      case 2: //Bunny in sitting position and not jumping yet - start jump

        if(BunnyState==2 && JumpPhase==0){JumpPhase=1;}

        break;

    }

    CtrlPin_State=HIGH; //switch button's state to pushed

  }else

  {

    CtrlPin_State=digitalRead(CTRL_PIN); //switch button's state

  }

  if(((Tick % RfrshTicks)==0) || (phase==1 && ((Tick % 100)==0))) //checking if refresh display needed

  {

    SetScene(GRASS_COLOR,SKY_COLOR); //sky and grass

    if(phase==1) //setup

    {

      if(oPhrase1!=""){displayText(oPhrase1,0,2,TEXT_COLOR);}; //if phrase 1 not empty display it

      if(oPhrase2!=""){displayText(oPhrase2,5,2,TEXT_COLOR);}; //if phrase 2 not empty display it

      carrot(crtPos[0][0],1); //display carrot 1 at the position

    }else

    {

      carrot(crtPos[0][0],crtPos[0][1]);carrot(crtPos[1][0],crtPos[1][1]); //display carrots

      ShowRainbow(); //display rainbow if needed

      displayBunny(BunnyState); //display bunny

    }

    if(Prgrs>0) //reserved to indicate progress

    {

    }

    strip.show(); //load display's data to the screen

  }  

  Tick++; //increasing tick

  if(Tick==(100*RfrshTicks)){Tick=0;} //reset tick to 0 to avoid overflow

}

//function to set pixel at particular position to specific color

void setPixelColor(int x,int y,uint32_t color)

{

  if((x % 2)==0) //even columns - pixel's position increases from top to down

  {

    strip.setPixelColor(LED_COUNT-1-x*LINES-y,color);

  }else //odd columns - pixel's position decreases from top to down

  {

    strip.setPixelColor(LED_COUNT-(x+1)*LINES+y,color);

  }

}

//display rainbow on the top of the screen

void ShowRainbow() 

{

  int cC;

  if(RainbowPhase>-1) //if rainbow phase > -1

  {

    for(int x=0; x<COLUMNS; x++) //working with each pixel in the top row

    {

      setPixelColor(x,LINES-1,RnbClrs[(RainbowPhase+x)%6]); //color selected from rainbow colors array

    }

    RainbowPhase+=1; //increase rainbow phase

    if(RainbowPhase>6){RainbowPhase=-1;} //turn off rainbow if phase more than 6

  }

}

//display sky and land

void SetScene(uint32_t clrGrnd, uint32_t clrSky)

{

  for(int x=0; x<COLUMNS; x++) //all columns

  {

    for(int y=0; y<LINES; y++) //all rows

    {

      if(y==0)

      {

        setPixelColor(x,y,clrGrnd); //for lowest row set color to ground

      }else

      {

        setPixelColor(x,y,clrSky); // for all other rows to sky

      }

    }

  }

}

//display carrot in position x, state norm

void carrot(int x, int norm)

{

  if((x>-2)&&(x<18))

  {

    if(norm==1) //normal carrot

    {

      setPixelColor(x,0,carrotBottom); setPixelColor(x+1,0,carrotBottom);

      setPixelColor(x,1,carrotTop); setPixelColor(x+1,1,carrotTop);

    }else

    { //stumped carrot

      setPixelColor(x,0,carrotStumped); setPixelColor(x+1,0,carrotStumped);

      setPixelColor(x,1,carrotStumped); setPixelColor(x+1,1,carrotStumped);

    }

  }

}

//display bunny

void displayBunny(int Bstate)

{

  uint32_t color = strip.Color( 32, 32,  32); //bunny color

  int x = 2; //horizontal position

  int y = 1; //vertical position

  int arrP[7][5] = {{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0}}; //2 dimentional array for bunny

  switch(Bstate)

  {

    case 1: //sitting

      arrP[1][0]=1; arrP[1][1]=1; arrP[2][0]=1; arrP[2][1]=1; arrP[3][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1; arrP[4][1]=1;

      BunnyState=2;

      break;

    default: // jumping

      arrP[0][0]=1; arrP[1][1]=1; arrP[2][1]=1; arrP[2][2]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][4]=1; arrP[4][1]=1; arrP[4][2]=1; arrP[4][3]=1; arrP[5][0]=1; arrP[5][2]=1;

      switch(JumpPhase)

      {

        case 0: // not in jump, back to sitting

          BunnyState=1;

          break;

        case 1: //increase jump phase

          JumpPhase++; 

          break;

        case 2: //one row higher

        case 3:

        case 8:

        case 9:

          JumpPhase++; y=2;

          break;

        case 4: //two rows higher

        case 5:

        case 6:

        case 7:

          JumpPhase++; y=3;

          break;

        case 10: //return to sitting

          BunnyState=1; JumpPhase=0;

          break;

      }

      break;

  }

  //calculating stamping on the carrot

  int ic;

  ic=-1; //funding carrot under bunny

  if(crtPos[0][0]<9 && crtPos[0][0]>1){ic=0;}

  if(crtPos[1][0]<9 && crtPos[1][0]>1){ic=1;}

  if(ic>-1 && y==1 && crtPos[ic][1]==1) //checking if any displayed pixel of bunny is on the carrot's position

  {

    for(int i=1;i<6;i++)

    {

      if(arrP[i][0]==1 && ((x+i)==crtPos[ic][0] || (x+i)==crtPos[ic][0]+1)) //STUMPED!!!

      {

        crtPos[ic][1]=0; RainbowPhase=-1; //set carrot's state to stumped and stop rainbow

        carrot(crtPos[ic][0],crtPos[ic][1]); break;

      }

    }

  }

  for(int i=0;i<7;i++) //set actual pixel on the screen to bunny color

  {

    for(int j=0;j<5;j++)

    {

      if(arrP[i][j]>0 && (x+i)>-1 && (x+i)<COLUMNS && (y+j)>-1 && (y+j)<LINES)

      {

        setPixelColor(x+i,y+j,color);

      }

    }

  }

}

//display symbol at particular position

int displaySymbol(char Symb, int x,int y,uint32_t color)

{

  int cLen=4;

  int arrP[5][5] = {{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0},{0,0,0,0,0}};

  switch(Symb)

  {

   case ' ':

    cLen=3;

    break;

   case 'A':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][4]=1; arrP[1][1]=1; arrP[2][4]=1; arrP[2][1]=1; arrP[3][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1;

    break;

   case 'B':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][4]=1; arrP[1][2]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][3]=1;

    break;

   case 'C':

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][4]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][0]=1; arrP[3][0]=1 ;arrP[3][4]=1;

    break;

   case 'D':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][4]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1;

    break;

   case 'E':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][4]=1; arrP[1][2]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[2][0]=1; arrP[3][4]=1; arrP[3][0]=1;

    break;

   case 'F':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][4]=1; arrP[1][2]=1; arrP[2][4]=1; arrP[2][2]=1;; arrP[3][4]=1;

    break;

   case 'G':

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][4]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[2][0]=1; arrP[3][4]=1; arrP[3][1]=1; arrP[3][2]=1;

    break;

   case 'H':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][2]=1; arrP[2][2]=1; arrP[3][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1; arrP[3][4]=1;

    break;

   case 'I':

    cLen=3;

    arrP[0][0]=1; arrP[0][4]=1; arrP[1][0]=1; arrP[1][1]=1; arrP[1][2]=1; arrP[1][3]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][4]=1;

    break;

   case 'J':

    arrP[0][1]=1; arrP[1][0]=1; arrP[1][4]=1; arrP[2][1]=1; arrP[2][2]=1; arrP[2][3]=1; arrP[2][4]=1; arrP[3][4]=1;

    break;

   case 'K':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][2]=1; arrP[2][1]=1; arrP[2][3]=1; arrP[3][0]=1; arrP[3][4]=1;

    break;

   case 'L':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][0]=1; arrP[2][0]=1; arrP[3][0]=1; arrP[3][0]=1;

    break;

   case 'M':

    cLen=5;

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][3]=1; arrP[2][2]=1; arrP[3][3]=1; arrP[4][0]=1;  arrP[4][1]=1; arrP[4][2]=1; arrP[4][3]=1; arrP[4][4]=1;

    break;

   case 'N':

    cLen=5;

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][3]=1; arrP[2][2]=1; arrP[3][1]=1; arrP[4][0]=1; arrP[4][1]=1; arrP[4][2]=1; arrP[4][3]=1; arrP[4][4]=1;

    break;

   case 'O':

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][4]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1;

    break;

   case 'P':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][4]=1; arrP[1][2]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[3][3]=1;

    break;

   case 'Q':

    cLen=5;

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][4]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1; arrP[4][0]=1;

    break;

   case 'R':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][4]=1; arrP[1][2]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[2][1]=1; arrP[3][3]=1; arrP[3][0]=1;

    break;

   case 'S':

    arrP[0][0]=1; arrP[0][3]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][1]=1; arrP[3][4]=1;

    break;

   case 'T':

    cLen=5;

    arrP[0][4]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][1]=1; arrP[2][2]=1; arrP[2][3]=1; arrP[2][4]=1; arrP[3][4]=1; arrP[4][4]=1;

    break;

   case 'U':

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][0]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1; arrP[3][4]=1;

    break;

   case 'V':

    cLen=5;

    arrP[0][4]=1; arrP[0][3]=1; arrP[1][2]=1; arrP[1][1]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[4][3]=1; arrP[4][4]=1;

    break;

   case 'W':

    cLen=5;

    arrP[0][4]=1; arrP[0][3]=1; arrP[0][2]=1; arrP[0][1]=1; arrP[1][0]=1; arrP[2][1]=1; arrP[2][2]=1; arrP[3][0]=1; arrP[4][1]=1; arrP[4][2]=1; arrP[4][3]=1; arrP[4][4]=1;

    break;

   case '0':

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][4]=1; arrP[1][3]=1; arrP[1][0]=1; arrP[2][4]=1; arrP[2][2]=1; arrP[2][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1;

    break;

   case '1':

    cLen=3;

    arrP[0][0]=1; arrP[0][3]=1; arrP[1][0]=1; arrP[1][1]=1; arrP[1][2]=1; arrP[1][3]=1; arrP[1][4]=1; arrP[2][0]=1;

    break;

   case '2':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][4]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][0]=1; arrP[3][3]=1;

    break;

   case '3':

    arrP[0][0]=1; arrP[0][4]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][1]=1; arrP[3][3]=1;

    break;

   case '4':

    arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][1]=1; arrP[2][1]=1; arrP[3][0]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1; arrP[3][4]=1;

    break;

   case '5':

    arrP[0][0]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][1]=1; arrP[3][4]=1;

    break;

   case '6':

    arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][1]=1;

    break;

   case '7':

    arrP[0][0]=1; arrP[0][4]=1; arrP[1][1]=1; arrP[1][4]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][3]=1; arrP[3][4]=1;

    break;

   case '8':

    arrP[0][1]=1; arrP[0][3]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][1]=1; arrP[3][3]=1;

    break;

   case '9':

    arrP[0][3]=1; arrP[1][0]=1; arrP[1][2]=1; arrP[1][4]=1; arrP[2][0]=1; arrP[2][2]=1; arrP[2][4]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[3][3]=1;

    break;

   case '=':

    cLen=3;

    arrP[0][1]=1; arrP[0][3]=1; arrP[1][1]=1; arrP[1][3]=1; arrP[2][1]=1; arrP[2][3]=1;

    break;

   case ':':

    cLen=1;

    arrP[0][1]=1; arrP[0][3]=1;

    break;

   case '>':

    cLen=5;

    arrP[0][2]=1; arrP[1][2]=1; arrP[1][3]=1; arrP[2][2]=1; arrP[2][3]=1; arrP[2][4]=1; arrP[3][2]=1; arrP[3][3]=1; arrP[3][2]=1; arrP[4][2]=1;

    break;

   case '<':

    cLen=5;

    arrP[0][2]=1; arrP[1][2]=1; arrP[1][1]=1; arrP[2][2]=1; arrP[2][1]=1; arrP[2][0]=1; arrP[3][2]=1; arrP[3][1]=1; arrP[3][2]=1; arrP[4][2]=1;

    break;

   case '~':

    arrP[0][0]=1; arrP[0][1]=1; arrP[0][2]=1; arrP[0][3]=1; arrP[0][4]=1; arrP[1][1]=1; arrP[1][2]=1; arrP[1][3]=1; arrP[2][2]=1;

    break;

   default:

    for(int i=0;i<5;i++){for(int j=0;j<5;j++){arrP[i][j]=1;}};

    color=strip.Color(32,32,32);

    break;

  }

  for(int i=0;i<cLen;i++)

  {

    for(int j=0;j<5;j++)

    {

      if(arrP[i][j]>0 && (x+i)>-1 && (x+i)<COLUMNS && (y+j)>-1 && (y+j)<LINES)

      {

        setPixelColor(x+i,y+j,color);

      }

    }

  }

  return cLen;

}

//display string at particular position

int displayText(String Val, int x,int y,uint32_t color)

{

  int cP=x;

  int sL = Val.length();

  for(int i=0;i<sL;i++)

  {

    cP+=displaySymbol(Val[i],cP,y,color)+1;

  }

}