{

	// Interrupts when pulse received from Geiger tube

	counts++;	// Increment counter.

}

uint16_t geiger_getCpm()

{

	return cpm;

}

uint8_t geiger_getCount()	//DEBUG

{

}

 */ 

#include "../config.h"

#include <avr/io.h>

#include <avr/interrupt.h>

#include <util/delay.h>

#include "loopTimer.h"

volatile uint32_t millis = 0; // Milliseconds since initialization

void time_setup()

{

	// Generic microcontroller config options

	OCR0A = 173; // Approx 172.7969 ticks per ms with 64 prescaler

	TCCR0A |= (1 << WGM01) | (1 << WGM00); // Count until OCR0A, then overflow (wgm02 in the next line specifies this as well)

	TCCR0B |= (1 << CS01) | (1 << CS00) | (1 << WGM02); // clock div by 64

	TIFR0 |= ( 1 << TOV0 ); // clear pending interrupts

	TIMSK0 |= (1 << TOIE0); // enable overflow interrupt

}

ISR(TIMER0_OVF_vect)

{

}

uint32_t time_millis()

{

	return millis; // meh accuracy, but that's OK

}

/*

 * loopTimer.h

 *

 * Created: 11/29/2012 3:35:34 PM

 *  Author: kripperger

 */ 

#ifndef LOOPTIMER_H_

#define LOOPTIMER_H_

uint32_t time_millis();

#endif /* LOOPTIMER_H_ */

	//temperature = (temperature & (0x2000)) ? (temperature & 0xC000) : temperature;	// Sign extend

	temperature = (two & 0x01) ? 0x00DE : temperature;	// Error Condition. If error is detected output is set to 222 degrees (0x00DE)

	// Note: Temperature still needs to be scaled in order to be accurate (eg. boil water). Do this before implementing.

	spiTemp = temperature;

}

void sensors_readBoardTemp()

{

	boardTemp = i2c_read(BOARDTEMP_ADDR, 0x00);		// Read only the first byte of data (we don't need the resolution here)

	boardTemp = ((boardTemp*18)/10) + (32);			// Converting Celsius to Fahrenheit

}

int16_t sensors_getSpiTemp(void)	// Gets spi temperature from variable

{

	return spiTemp;

}

int8_t sensors_getBoardTemp(void)	// Gets board temperature from variable

{

	return boardTemp;

}

void micro_setup()

{

	// Generic microcontroller config options

	sei();	// Enable interrupts

}

int main(void)

{

	// Initialize		

	micro_setup();			// Generic microcontroller config options

	led_configure();		// Configure ports and registers for LED operation

	io_configure();			// Configure IO ports and registers

	i2c_init();				// Setup I2C

	serial0_setup();		// Config serial port

	uint8_t moduleID = io_getModuleId();	// Slave Module ID from rotary dip switch

	modules_setup(moduleID);				// Run setup functions for specific module

	uint8_t test;	//Debug

	uint8_t test2;	//Debug	

	//PORTA &= ~(1 << PA1);	//DEBUG////////////////OFF///////////////////////////////////////////////////////////////

	//PORTA |= (1 << PA1);	//DEBUG///////////////ON////////////////////////////////////////////////////////////////

	// This is just a serial output example

	char buff[32];	//DEBUG///////////////////////////////////////////////////////////////////////////////////////

		x = geiger_getCpm();			//Data get

		x = sensors_getSpiTemp();		//Data get

		x = sensors_getBoardTemp();		//Data get

		sensors_readSpiTemp();			//Data Read

		sensors_readBoardTemp();		//Data Read

		**************************************************************/

		test2 = sensors_getBoardTemp();	//DEBUG///////////////////////////////////////////////////////////////////////////

		sprintf(buff, "|ModuleID: %u |BoardTemp: %u |Seconds: %u\r\n",moduleID,test2,test); //DEBUG

		serial0_sendString(buff); //DEBUG

    }

	return 0;

}