Singing Smiley Gadget.

Here is an other recent project, full schematic etc of a gadget that displays a smiley face on a  5×7 matrix led screen which sings along with the music around.

U4 is a temperature sensor and not used in the current program, so its place can be left empty.

The CCS C code is below


#include <16F88.h>
//#device ADC=8
//#use delay(clock=4000000,RESTART_WDT)
//#fuses INTRC_IO,NOWDT,NOPROTECT,NOPUT,NOBROWNOUT,NOLVP, NOMCLR

#fuses INTRC_IO,NOWDT,NOPROTECT,NOLVP, MCLR, NOPUT, NOBROWNOUT, NOFCMEN, NOIESO
#use delay(clock=8000000)



#use fast_io(B)

#rom  0x2100={0}

#define  clock pin_a0
#define  reset pin_a1

#define  tarhiz 5
#define  anaval 4

#define XTAL_FREQUENCY  8000000 
#define TIMER1_FREQUENCY (XTAL_FREQUENCY / 4) 

int32 Ticker; 
int1 flag;
int CONST TABLE [100]= {

//                  X0
                0b11111110,    
                0b11101111,
                0b11101111,
                0b11101111,
                0b11111110,
//                  X1
                0b11111110,    
                0b11101111,
                0b10111111,
                0b11101111,
                0b11111110,               
//                  X2
                0b11111110,    
                0b11101111,
                0b10101111,
                0b11101111,
                0b11111110,                
//                  X3
                0b11111110,    
                0b11101111,
                0b10110111,
                0b11101111,
                0b11111110,
//                  X4
                0b11111110,
                0b11100111,
                0b10110111,
                0b11100111,
                0b11111110,
//                  X5
                0b11111110,    
                0b10100111,
                0b10110111,
                0b10100111,
                0b11111110,
//                  X6
                0b11101110,    
                0b10110111,
                0b10110111,
                0b10110111,
                0b11101110,
//                  X7
                0b11101110,    
                0b10110111,
                0b01111011,
                0b10110111,
                0b11101110,                
//                  X8
                0b10100110,    
                0b01110111,
                0b01110111,
                0b01110111,
                0b10100110, 
//                  X9
                0b10100110,    
                0b01111011,
                0b01110111,
                0b01111011,
                0b10100110, 
//                  X10
                0b10100110,    
                0b01111011,
                0b01110011,
                0b01111011,
                0b10100110, 
//                  X11
                0b11100010,    
                0b10111011,
                0b01111011,
                0b10111011,
                0b11100010,                 
//                  X12
                0b00100010,    
                0b01111011,
                0b01111011,
                0b01111011,
                0b00100010, 
//                  X13
                0b00100010,    
                0b01111011,
                0b00101011,
                0b01111011,
                0b00100010, 
//                  X14
                0b00100010,    
                0b01110011,
                0b00111011,
                0b01110011,
                0b00100010,                 
};


#int_TIMER1                                
void TIMER1_isr()                          
{ 
  Ticker -= 565536;                        // Decrement ticker by clocks per interrupt 
  if ( Ticker < 565536 )                   // If second has expired 
  {  Ticker += TIMER1_FREQUENCY;          //   Increment ticker by clocks per second 
     flag=1;                           //   Increment number of seconds 
  } 

} 

void Initialize_RTC(void) 
{ 
  Ticker = TIMER1_FREQUENCY;                  // initialize clock counter to number of clocks per second 
  setup_timer_1( T1_INTERNAL | T1_DIV_BY_1 ); // initialize 16-bit Timer1 to interrupt 
                                              // exactly every 65536 clock cycles 
                                              // (about 76 times per second) 
  enable_interrupts( INT_TIMER1 );            // Start RTC 
} 

void main()
{

   int  sayac,index=0,index0=0,indsay=10;

   //setup_counters(RTCC_INTERNAL,RTCC_DIV_2);
   //setup_timer_1(T1_DISABLED);
   //setup_timer_2(T2_DISABLED,0,1);
   //setup_vref(FALSE);
   set_tris_B(0b10000000);   



   Initialize_RTC();
   enable_interrupts( GLOBAL );
   SETUP_ADC_PORTS(sAN6);
   


//output_B(0b11111111);
//delay_ms(1000);
   setup_adc(ADC_CLOCK_INTERNAL); 
   set_adc_channel(6);
   delay_ms(100);
   
     
   
flag=1;

while(TRUE)
{
   indsay--;


//if(anasay2 == 0){   
//   anasay2=5;
if(flag==1){
   index0=(255 - read_adc())/18;
   index = index0 *5;
   flag=0;
}
//}
//else anasay2--;

//index=20;



//delay_ms(10);
//value = read_adc();

   //for ( sayac=0 ; sayac<4 ; )
   //{
   
      
      output_A(table[index+sayac]);
      output_B(0b00000001);
      delay_ms(tarhiz);
      sayac++;
      output_A(0b11111111);


      output_A(table[index+sayac]);
      output_B(0b0000010); 
      delay_ms(tarhiz);
      sayac++;      
      output_A(0b11111111);


      output_A(table[index+sayac]);
      output_B(0b0000100); 
      delay_ms(tarhiz);
      sayac++;      
      output_A(0b11111111);            


      output_A(table[index+sayac]);
      output_B(0b0001000); 
      delay_ms(tarhiz);
      sayac++;
      output_A(0b11111111);            


      output_A(table[index+sayac]);
      output_B(0b0010000);
      delay_ms(tarhiz);
      sayac = 0;                  
      output_A(0b11111111);            


   

}
}

Social tagging: singing smiley module