int main()
{
/* Initializations and setup */
init_platform();
init_UART(&Uart1InstancePtr, UART1_DEVICE_ID);
Set_DataFormat_UART(&Uart1InstancePtr, 115200, XUARTPS_FORMAT_8_BITS, XUARTPS_FORMAT_NO_PARITY, XUARTPS_FORMAT_1_STOP_BIT);
init_UART(&Uart0InstancePtr, UART0_DEVICE_ID);
Set_DataFormat_UART(&Uart0InstancePtr, 115200, XUARTPS_FORMAT_8_BITS, XUARTPS_FORMAT_NO_PARITY, XUARTPS_FORMAT_1_STOP_BIT);
init_XADC_WIZ(CHANNEL_6,SINGLE_CHANNEL_MODE );
init_GPIO_BUTTONS(&ButtonsInstancePtr, GPIO_BTNS_ID);
init_GPIO_LEDS(&LedsInstancePtr, GPIO_LEDS_ID);
init_GIC();
xil_printf("Hello World\n\r");
XGpio_DiscreteWrite(&LedsInstancePtr, 1, 0xA);
while(1)
{
}
return 0;
}
void main(void)
{
WDTCTL = WDTPW+WDTHOLD; // Paramos el watchdog timer
init_botons(); // Iniciamos los botones y Leds.
_enable_interrupt(); // Activamos las interrupciones a nivel global del chip
init_LCD(); // Inicializamos la pantalla
init_UCS(); //Inicialitzem UCS
init_UART(); //Inicialitzem UART
halLcdPrintLine( saludo,linea,textstyle);
linea++;
sprintf(cadena,"bID = %d",bID);
halLcdPrintLine( cadena,linea,textstyle);
Encendre_LED();
TxPacket(0xFE, 2, 0x19);
do
{
P1OUT ^= 0x03;
i = 25000;
do {
i--;
}
while (i != 0);
}
while(1);
}
int main(void)
{
DDRA = 0xFF; //set port A as output
DDRC = 0x00; //set port C as input
PORTA = 0x00; //clear output
PORTC = 0xFF; //turn on pull-up resistors
init_UART(); //initialize serial connections
uint8_t value = 0; //set counter value to 0. number will be output in binary on 8 LEDs, so 8 bit unsigned integer is enough
uint8_t DelayTime_ms = 2; //set delay time to satisfy debounce need
printf("ECET179_Lab6_Step7 DeBouncing with Software by setting delay time - Yizhou Zhang \n\r");
printf("The delay time should be at least %d ms \n\r", DelayTime_ms);
while(1)
{
//TODO:: Please write your application code
PORTA = value; //output counter value to LEDs
while (PINC == 0) //wait for a push button to be pressed
{
}
printf("%d - 1\n\r", value); //delay to debounce, by printing current counter value. -1 represents contacting debounce
value = value + 1; //increment counter value
while (PINC != 0) //wait for the push button to be released
{
}
printf("%d - 2\n\r",value); //delay to debounce, by printing current counter value. -2 represents releasing debounce
}
}
/*---------------------------------------------------------------------------*/
void init(void) {
init_PORT();
init_TRIS();
init_ANSEL();
init_UART();
init_SPI();
init_TMR();
init_OSC();
}
/* Functions */
int main(void) {
u32 OutputEnableTimeout;
init_SystemClock(); //RCC config
init_Discovery(); //leds & user button
init_TimeBase(); //timebase & clock
init_LCD(); //HD44780 based display
init_UART(&urt2,2);
init_IO();
/* program loop */ //******************************************* main loop
time.fast = actualTime() + FASTINTERVAL;
time.slow = actualTime() + SLOWINTERVAL;
while (1) {
//realtick:
if(gValues.filter.output){
//output enable, timeout restart
OutputEnableTimeout = actualTime() + OUTPUT_TIMEOUT;
GPIO_WriteBit(GPIOC, GPIO_Pin_9, (BitAction)1);
}else if (timeElapsed(OutputEnableTimeout)){
//output disable after timeout
GPIO_WriteBit(GPIOC, GPIO_Pin_9, (BitAction)0);
}
if(timeElapsed(time.fast)){
time.fast += FASTINTERVAL;
//fasttick
fast_Tick();
}
if(timeElapsed(time.slow)){
time.slow += SLOWINTERVAL;
//slowtick
LCD_periodic_update();
slow_Tick();
}
//COMM_DESC * PC_com = &urt2.parent;
/*Ticks*/
//PC_com->Tick(PC_com);
//urt2.Tick(&urt2.parent);
} //end while
} //end main()
void main() {
TRISC = 0b00000000; // portC : output
LATC = 0b00000000; // portC = 0
init_UART();
init_I2C();
//init_GYRO();
init_ACC();
LED_RED_On();
LED_GREEN_On();
while (1) {
};
}
/*! \brief Initializes all configuration variables.
*/
void Configuration::init() {
// MISC
Oscillator_Freq = 16000000; //Oscillator frequency in Hz
CPUCLK = Oscillator_Freq;
PBACLK = Oscillator_Freq;
PWMCLK = Oscillator_Freq;
ADCCLK = Oscillator_Freq;
init_Timer();
init_PWM();
init_Motor();
init_Sensors();
init_UART();
init_StatusLEDs();
}
int main()
{
init_UART();
while(1)
{
if(flag==1)
{
ES=0;
flag=0;
SBUF=i;
while(!TI);
TI=0;
ES=1;
}
}
return 0;
}
int main() {
char c;
int count;
init_clock_and_pins();
AD1PCFGL = 0xFFFF; // turn off ADC
init_UART();
QEI_enable(1, 0xFFFF);
QEI_enable(2, 0xFFFF);
QEI_reset(1);
QEI_reset(2);
while (1) {
// wait for data to be received.
while (!U1STAbits.URXDA);
c = U1RXREG;
switch (c) {
case RESET:
QEI_reset(1); // reset QEI 1
QEI_reset(2); // reset QEI 2
break;
case ENABLE:
QEI_enable(1, 0xFFFF); // enable QEI 1, threshold=65,535
QEI_enable(2, 0xFFFF); // enable QEI 2, threshold=65,535
break;
case DISABLE:
QEI_disable(1); // disable QEI 1
QEI_disable(2); // disable QEI 2
break;
case READ:
//printf("%u\n", QEI_read(1)); // print QEI 1 value to UART
//printf("%u\n", QEI_read(2)); // print QEI 2 value to UART
count=QEI_read(1);
U1TXREG=count>>8;
U1TXREG=MASK&&count;
break;
case TEST:
printf("%c", 'y'); // Send 'y' over UART
//IFS3bits.QEI1IF = 1; // Set interrupt flag to 1
break;
}
}
}
int main(void)
{
init_UART(); //initialize serial communication to CoolTerm
init_ADC(); //initialize ADC
uint8_t ADC_0; //reading from ADC0
uint8_t ADC_1; //reading from ADC1
uint8_t ADC_2; //reading from ADC2
uint8_t i;
uint8_t j;
uint8_t k;
DDRB = 0b11110000; //T0A T1B T1A T2A
DDRG = 0b00100000; //T0B
//DDRC = 0x00; //configure PortC as input
//PORTC = 0xFF; //turn on pull-up resisotrs of PortC
//DDRE = DDRE | 0b00111000; //T3C T3B T3A
//channel0
//TCCR0A = 0x00; //clear registers
//TCCR0B = 0x00; //clear registers
TCCR0A = TCCR0A | 0b11110000; //clear OC0A on compare match
TCCR0A = TCCR0A | 0b00000011; //set WGM01& WGM00 to configure FAST PWM
TCCR0B = TCCR0B & 0x11110111; //clear WGM02 to configure FAST PWM
TCCR0B = TCCR0B | 0x00000001; //no prescaling
//channel2
//TCCR2A = 0x00; //clear registers
//TCCR2B = 0x00; //clear registers
TCCR2A = TCCR2A | 0b11110000; //clear OC0A on compare match
TCCR2A = TCCR2A | 0b00000011; //set WGM01& WGM00 to configure FAST PWM
TCCR2B = TCCR2B & 0x11110111; //clear WGM02 to configure FAST PWM
TCCR2B = TCCR2B | 0x00000001; //no prescaling
while(1)
{
//TODO:: Please write your application code
do
{
do
{
do
{
OCR0A = i;
i++;
//printf("i = %d\n\r",i);
} while (i < 255);
OCR0B = j;
j++;
//printf("j = %d\r\n",j);
} while (j < 254);
OCR2A = k;
k++;
//printf("k = %d\n\r",k);
} while (k<254);
k = 0;
j = 0;
i = 0;
}
}
int main(void)
{
/* Initialize Interfaces */
if(PINB & (1<<SEL2)){ //SEL2 not installed, modeA
init_StepDir();
//init_pwm();
} else { //SEL2 installed, modeB
init_SPI();
init_UART(12,1); //For 1MHz testing, change to 14.7456Mhz
init_I2C();
}
//init_I2C();
//init_SPI();
//init_UART(95,0); /* Run UART at 9600 baud */
//init_StepDir();
init_stepper();
init_chopper();
sei();
int8_t motor_state = 0;
motor_enable = WAVE;
while(1)
{
if(motor_enable == FULL){
if(desired_step_cnt < 0){ //backwards
if(motor_state == 0) normstep4();
if(motor_state == 2) normstep1();
if(motor_state == 4) normstep2();
if(motor_state == 6) normstep3();
motor_state -= 2;
if(motor_state < 0) motor_state = 6;
desired_step_cnt++;
} else if(desired_step_cnt > 0){
if(motor_state == 0) normstep2();
if(motor_state == 2) normstep3();
if(motor_state == 4) normstep4();
if(motor_state == 6) normstep1();
motor_state += 2;
if(motor_state > 6) motor_state = 0;
desired_step_cnt--;
}
} else if(motor_enable == HALF){
if(desired_step_cnt < 0){
if(motor_state == 0) halfstep8();
if(motor_state == 1) halfstep1();
if(motor_state == 2) halfstep2();
if(motor_state == 3) halfstep3();
if(motor_state == 4) halfstep4();
if(motor_state == 5) halfstep5();
if(motor_state == 6) halfstep6();
if(motor_state == 7) halfstep7();
motor_state--;
if(motor_state < 0) motor_state = 7;
desired_step_cnt++;
} else if(desired_step_cnt > 0){
if(motor_state == 0) halfstep2();
if(motor_state == 1) halfstep3();
if(motor_state == 2) halfstep4();
if(motor_state == 3) halfstep5();
if(motor_state == 4) halfstep6();
if(motor_state == 5) halfstep7();
if(motor_state == 6) halfstep8();
if(motor_state == 7) halfstep1();
motor_state++;
if(motor_state > 7) motor_state = 0;
desired_step_cnt--;
}
} else if(motor_enable == WAVE){
if(desired_step_cnt < 0){
if(motor_state == 1) wavestep4();
if(motor_state == 3) wavestep1();
if(motor_state == 5) wavestep2();
if(motor_state == 7) wavestep3();
motor_state -= 2;
if(motor_state < 1) motor_state = 7;
desired_step_cnt++;
} else if(desired_step_cnt > 0){
if(motor_state == 1) wavestep2();
if(motor_state == 3) wavestep3();
if(motor_state == 5) wavestep4();
if(motor_state == 7) wavestep1();
motor_state += 2;
if(motor_state > 7) motor_state = 1;
desired_step_cnt--;
}
}
_delay_ms(100);//Change according to speed input
// normstep1();
// _delay_ms(100);
// normstep2();
// _delay_ms(100);
// normstep3();
// _delay_ms(100);
// normstep4();
// _delay_ms(100);
// halfstep1();
// _delay_ms(100);
// halfstep2();
// _delay_ms(100);
// halfstep3();
// _delay_ms(100);
// halfstep4();
// _delay_ms(100);
// halfstep5();
// _delay_ms(100);
// halfstep6();
// _delay_ms(100);
// halfstep7();
// _delay_ms(100);
// halfstep8();
// _delay_ms(100);
// wavestep1();
// _delay_ms(100);
// wavestep2();
// _delay_ms(100);
// wavestep3();
// _delay_ms(100);
// wavestep4();
// _delay_ms(100);
}
return 0;
}
int main (void){
//Start UART
init_UART();
stdout = &uart_tx;
stdin = &uart_rx;
//Start ADC
init_ADC();
//Set pins for display as output
//Digit 1
DDRD |= (1 << PD5); //A
DDRD |= (1 << PD6); //B
DDRD |= (1 << PD7); //C
DDRB |= (1 << PB0); //D
//Digit 2
DDRC |= (1 << PC1); //A
DDRC |= (1 << PC2); //B
DDRC |= (1 << PC3); //C
DDRC |= (1 << PC4); //D
//Lights Pin Output
DDRC |= (1 << PC5);
//Start/Stop Button
DDRB &= ~(1 << PB1); //Start button input
DDRB &= ~(1 << PB2); //Stop button input
//Buzzer Pin
DDRD |= (1 << PD2); //Output
int first_digit = 9;
int second_digit = 10;
static long reading;
static bool btnStart;
//Blink display to let me know everything is good!
displayBlink(5);
while(1) {
printf("Raw Reading: %d\t",read_ADC(0,&reading));
long mapped_reading = mapRange(0,1023,0,99,reading);
printf("Mapped Reading: %d\n",mapped_reading);
display_Selection(mapped_reading);
if(PINB & (1 << PB1) && mapped_reading > 0 ){ //If the Start button gets pressed then
displayBlink(2);
int count = 0;
_delay_ms(1000);
PORTC |= (1 << PC5);
for(count = mapped_reading;count >= 0;count--){
//Count Backwards from that number
//Check for stop button quit if set
if(PINB & (1 << PB2))
break;
uint8_t fdigitm = count / 10;
uint8_t sdigitm = count % 10;
firstDisplay(fdigitm);
secondDisplay(sdigitm);
printf("UV Lights on for: %d more secs...\n",count);
_delay_ms(1000);
}
PORTC &= ~(1 << PC5);
//displayBlink(5);
alarmSound(2);
displayBlink(2);
}
}
}
int main(void)
{
//! set the power reduction register to minimize current consumption
init_power_reduction();
//! set CPU clock to 32MHz and enables the DFLL32MHz
clock_init();
//! initialize the LCD module
init_lcd();
//! display all the segments in LCD
lcd_show_all();
//! initialize the GPIO pins
init_ioport();
//! initializes the UART
init_UART();
//! load the calibration data from flash
ADC_CalibrationValues_Load(&ADCA);
//! get the ADC offset value
get_offset();
//! initialize the ADC
init_ADC();
//! load the calibration value from eeprom
init_eeprom();
//! initilize RTC to external clock and 1 sec interrupt
rtc_init();
//! initilize the timer
init_timer();
while(1)
{
//! rtc_flag is set
if (rtc_flag == 1)
{
//! perform the calculation of metering paramters
calculate();
//for debugging
if(cover_open_flag ==1)
PORTD.OUTTGL = PIN3_bm;
//TCC1.CTRLA = ( TCC1.CTRLA & ~TC1_CLKSEL_gm ) | TC_CLKSEL_DIV64_gc;
TCC1.INTCTRLA = (TCC1.INTCTRLA & ~(TC1_OVFINTLVL_gm | TC1_ERRINTLVL_gm))|TC1_OVFINTLVL0_bm;
//! if power on detected
if(power_status_flag == POWER_ON_DETECTED)
{
//! change the clock frequency to 32MHz
CLKSYS_Prescalers_Config( CLK_PSADIV_1_gc, CLK_PSBCDIV_1_1_gc );
//! switch off the battery
PORTD.PIN4CTRL = PORT_OPC_WIREDANDPULL_gc;
//PORTD.OUTSET = PIN4_bm;
//! initialize gpio pins
init_ioport();
//! change the sleep mode to ideal sleep
SLEEP.CTRL = (SLEEP.CTRL & ~SLEEP_SMODE_gm)| SLEEP_SMODE_IDLE_gc;
//! enable ADC & Timer
ADC_Enable(&ADCA);
TCC1.CTRLA = ( TCC1.CTRLA & ~TC1_CLKSEL_gm ) | TC_CLKSEL_DIV64_gc;
//! initialize lcd module
init_lcd();
//! update power status flag
power_status_flag = POWERED_UP;
}
//! update the LCD display
lcd_disp_key();
tamper_check();
if( active_power[0] > max_demand )
{
max_demand = active_power[0];
}
//! check for calibration flag and proceed and call the appropriate calibration funtion
if(calibration_flag != 0)
{
//! checking the calibration flag for calibrating the date & time
if (calibration_flag == 1)
{ calibrate_time_date(); }
//! checking the calibration flag for calibrating the voltage
else if (calibration_flag == 2)
{ calibrate_voltage(); }
//! checking the calibration flag for calculating the offset value
else if (calibration_flag == 3)
{ calibrate_no_load(); }
//! checking the calibration flag for calculating the phase angle variation
else if (calibration_flag == 4)
{ calibrate_phase(); }
//! checking the calibration flag for calculating watt varition
else if (calibration_flag == 5)
{ calibrate_watt(); }
else if (calibration_flag == 6)
//! checking the calibration flag for calibrating the current
{ calibrate_current(); }
}
rtc_flag = 0;
__watchdog_reset();
}
//! checking the power_status, if power off is detected
else if(power_status_flag == POWER_OFF_DETECTED)
{
//! switch on the battery
PORTD.PIN4CTRL = PORT_OPC_WIREDAND_gc;
//PORTD.OUTCLR = PIN4_bm;
//! change the sleep mode to power save mode
SLEEP.CTRL = (SLEEP.CTRL & ~SLEEP_SMODE_gm)| SLEEP_SMODE_PSAVE_gc;
//! switch off the LCD
lcd_command(LCD_COMMAND,0x02);
//! change reset the gpio pin
facilitatePowersaving();
//! disable the ADC
ADC_Disable(&ADCA);
//! disable the timer
TCC1.CTRLA = ( TCC1.CTRLA & ~TC1_CLKSEL_gm ) | TC_CLKSEL_OFF_gc;
//! clear all the varilable used in for energy calculation
meter_flush();
//! reduce the cpu clock frequency to minimize power consumption
CLKSYS_Prescalers_Config( CLK_PSADIV_64_gc, CLK_PSBCDIV_1_1_gc );
//! update power status flag
power_status_flag = POWER_OFF;
__watchdog_reset();
}
//! goes to sleep
SLEEP.CTRL |= SLEEP_SEN_bm;
asm("sleep");
}
}
