int main()
{
uint16_t t1RawADC = 0;
uint16_t t2RawADC = 0;
float temp1 = 0;
float temp2 = 0;
initADC();
lcd_init();
while(1)
{
t1RawADC = readADC(TEMP1_ADC_CHANNEL);
t2RawADC = readADC(TEMP2_ADC_CHANNEL);
temp1 = convertRawADCToTemp(t1RawADC);
temp2 = convertRawADCToTemp(t2RawADC);
printTemperatures(temp1, temp2);
// LCD_clear();
// LCD_int(temp1);
_delay_ms(100);
}
}
int main(void) {
volatile int i = 0;
volatile uint32_t resultat = 0;
initModesAndClock(); /* Initialize mode entries and system clock */
initPeriClkGen(); /* Initialize peripheral clock generation for DSPIs */
disableWatchdog(); /* Disable watchdog */
initPads(); /* Initialize pads used in example */
initADC(); /* Init. ADC for normal conversions but don't start yet*/
initCTU(); /* Configure desired CTU event(s) */
initEMIOS_0(); /* Initialize eMIOS channels as counter, SAIC, OPWM */
initEMIOS_0ch3(); /* Initialize eMIOS 0 channel 3 as OPWM and channel 2 as SAIC*/
initEMIOS_0ch0(); /* Initialize eMIOS 0 channel 0 as modulus counter*/
initEMIOS_0ch23(); /* Initialize eMIOS 0 channel 23 as modulus counter*/
initEMIOS_0ch4(); /* Initialize eMIOS 0 channel 0 as OPWM, ch 4 as time base */
initEMIOS_0ch6(); /* Initialize eMIOS 0 channel 0 as OPWM, ch 6 as time base */
initEMIOS_0ch7(); /* Initialize eMIOS 0 channel 1 as OPWM, ch 7 as time base */
init_LinFLEX_0_UART();
SIU.PCR[16].R = 0x0100; /* Potentiomètre en Input"
/* Loop forever */
for (;;) {
reglerPotentio();
// boutonLed();
// SERVO();
}
}
void InitApp(void)
{
/* Setup analog functionality and port direction */
(PPSUnLock);
TRISFbits.TRISF3 = 0;
PORTFbits.RF3 = 1;
PPSOutput(PPS_RP9, PPS_SCK1OUT);
PPSOutput(PPS_RP8, PPS_SDO1);
AD1PCFG = 0xFFFF; // Default all pins to digital
AD1PCFGLbits.PCFG11 = 0; //Disable digital input on AN11
/* Initialize peripherals */
InitMatrixDisplay();
spi1Init(PRI_PRESCAL_1_1);
initHD44780LCD();
initPWM();
initADC();
}
/**
* Initialize all modules
*/
void initAll() {
// initialize ADC
initADC();
// initialize system timer
initTimer0();
// initialize serial com
uart_init();
// redirect printf output to serial port
stdout = &uart_stdout;
// motor.c: initialize motor PWM, pins, encoders and PID
initPWM1();
initMotorPins();
initEncoders();
initTachoVariables();
resetPID();
// clear motor speed and direction just in case
setDirection(LMOTOR, FORWARD);
setDirection(RMOTOR, FORWARD);
setPower100(LMOTOR, 0);
setPower100(RMOTOR, 0);
// odometer.c set initial position and position correction
setOdometerTo(0, 0);
updateRelativePos();
resetPosCorrection();
}
void configureAll(void) {
initADC(nConvertions); // Configure ADC with nConvertions = 8
IFS1bits.AD1IF = 0; // Rest AD1IF
IPC6bits.AD1IP = 6; // Configure interrupt priority
IEC1bits.AD1IE = 1; // Enable AD1 Interrupt
// Configure Timer T1 (4 Hz, interrupts disabled)
T1CONbits.TCKPS = 7; // 1:256 prescaler (i.e fin = 78125 Hz)
PR1 = 19530; // Fout = 20MHz / (256 * (19530 + 1)) = 4 Hz
TMR1 = 0; // Reset timer T1 count register
T1CONbits.TON = 1; // Enable timer T1 (must be the last command of the timer configuration sequence)
IFS0bits.T1IF = 0; // Reset timer T1 interrupt flag
IPC1bits.T1IP = 2; // Interrupt priority (must be in range [1..6])
IEC0bits.T1IE = 1; // Enable timer T1 interrupts
// Configure Timer T3 (100 Hz, interrupts disabled)
T3CONbits.TCKPS = 5; // 1:32 prescaler (i.e fin = 625000 Hz)
PR3 = 6250; // Fout = 20MHz / (32 * (6250 + 1)) = 100 Hz
TMR3 = 0; // Reset timer T1 count register
T3CONbits.TON = 1; // Enable timer T1 (must be the last command of the timer configuration sequence)
IFS0bits.T3IF = 0; // Reset timer T3 interrupt flag
IPC3bits.T3IP = 2; // Interrupt priority (must be in range [1..6])
IEC0bits.T3IE = 1; // Enable timer T3 interrupts
// Configure UART1
configUART(115200, 'N', 1);
enableUARTInterrupts(0);
TRISE = TRISE | 0x0F0; // Configure RE4-RE7 as inputs
}
// Functions
int initDevice() {
int status=0;
// Setup UART
initUSART0STDIO(UBRR_MACRO);
// Setup ADC
initADC();
// Setup BT
initBT();
// Wait for BT Connection
#ifndef SIM
while(!status)
status = PING & (1 << PING0);
#endif
// Enable Timer
initTimer();
// Enable I2C
initI2C();
// Init wifi
_delay_ms(310);
DDRE |= (0x10|0x80|0x20) ; // PE4 = ~RST; PE7= ~WP; PE5=HIB;
PORTE &= ~(0x80); // assert reset and WP
PORTE |= (0x10 | 0x80); // deassert reset and WP
PORTE &= ~(0x20); // De assert HIB
// Enable ZG2100 Interrupt (use INT6)
// Init wifi
zg_init();
ZG2100_ISR_ENABLE();
// Enable Interrupts
sei();
return 0;
}
void Setup(void) {
PinSetMode();
// setup internal clock for 72MHz/36MIPS
// 12 /2 = 6 *24 = 144 / 2=72
CLKDIVbits.PLLPRE = 0; // PLLPRE (N2) 0=/2c
CLKDIVbits.DOZE = 0;
PLLFBD = 22; // pll multiplier (M) = +2
CLKDIVbits.PLLPOST = 0; // PLLPOST (N1) 0=/2
// Initiate Clock Switch to Primary Oscillator with PLL (NOSC = 0b011)
__builtin_write_OSCCONH(0x03);
__builtin_write_OSCCONL(OSCCON | 0x01);
// Wait for Clock switch to occur
while (OSCCONbits.COSC != 0b011);
while (!OSCCONbits.LOCK); // wait for PLL ready
INTCON1bits.NSTDIS = 1; //no nesting of interrupts
timerOne();
initADC();
//timerTwo();
begin(receiveArray, sizeof (receiveArray), SAS_ADDRESS, false, Send_put, Receive_get, Receive_available, Receive_peek);
UART_init();
//UART1_init();
//begin(receiveArray1, sizeof (receiveArray1), SAS_ADDRESS, false, Send_put1, Receive_get1, Receive_available1, Receive_peek1);
}
int main(void) {
float voltage;
// -------- Inits --------- //
initUSART();
printString("\r\nDigital Voltmeter\r\n\r\n");
initADC();
setupADCSleepmode();
// ------ Event loop ------ //
while (1) {
voltage = oversample16x() * VOLTAGE_DIV_FACTOR * REF_VCC / 4096;
printFloat(voltage);
/* alternatively, just print it out:
* printWord(voltage*100);
* but then you have to remember the decimal place
*/
_delay_ms(500);
} /* End event loop */
return 0; /* This line is never reached */
}
int main ( void ) {
// Initalize the a2d converter and the servo controller
initADC();
init_timer1_servos();
// Forever run the servos
while (1) {
unsigned short dist = calcgp2d12(getADC(0));
if(dist > 15) {
// If the distance is greater than 15 centimeters, move forward
set_servo_1a(1000);
set_servo_1b(2000);
} else {
// If not, we have found an obstical! Reverse and turn....
set_servo_1a(2000);
set_servo_1b(1000);
_delay_ms(1500);
// Spin for 1 second
set_servo_1a(2000);
set_servo_1b(2000);
_delay_ms(750);
}
}
return 0;
}
int main(void) {
unsigned int i = 0, speedCounter = 0;
initADC();
EnableInterrupts();
// Configure displays as outputs
TRISB = TRISB & 0xFC00;
while (1) {
delay(5);
if (i++ == 4) {
AD1CON1bits.ASAM = 1;
i = 0;
}
if (speedCounter++ >= speedValues[speed]) {
if (++c >= 12)
c = 0;
speedCounter = 0;
}
send2displays(c);
}
return 0;
}
/* Main Initfunction --------------------------------------------------------*/
void initSystem()
{
/* Configure the system clocks */
RCC_Configuration();
/* Configure TIMs */
TIM_Configuration();
/* Configure the GPIO ports UART */
GPIO_Configuration();
/* UART Interrupt */
NVIC_Configuration();
initUART1();
initUART2();
initUART3();
//initUART4();
/* initDMA for Sensors */
initDMA();
/* initADC for Sensros */
initADC();
/* inti System Ticker */
/* does not work in Interrupt */
/* Pause(ms) function */
initSysTick();
/* init I2C1 for Compas */
initI2C();
}
void vTaskADC(void *parameters){
int i;
for(i = 0;i < 16; i++){
devices[i].port = -1;
}
initADC();
vSemaphoreCreateBinary(adcSemaphore);
ADCinitialized = 1;
while(devices[0].port == -1){
vTaskDelay(10);
}
while(1){
ADCStart(&devices[currDevice]);
currDevice++;
if(currDevice >= 16 || devices[currDevice].port == -1){
currDevice = 0;
}
xSemaphoreTake(adcSemaphore,portMAX_DELAY);
}
}
/*
* main.c
*/
int main(void) {
WDTCTL = WDTPW | WDTHOLD; // Stop watchdog timer
P1DIR |= BIT0; // Set P1.0 to output direction
P1DIR |= BIT6; // Set P1.6 to output direction
P1OUT &= ~BIT0;
P1OUT &= ~BIT6;
initADC();
int output;
while(1){
output = readLeftSensor();
if (output>0x0340){
P1OUT |= BIT0; // Set P1.0 LED on
}else{
P1OUT &= ~BIT0;
}
_delay_cycles(1000);
output = readRightSensor();
if (output>0x0340){
P1OUT |= BIT6; // Set P1.0 LED on
}else{
P1OUT &= ~BIT6;
}
_delay_cycles(1000);
}
return 0;
}
//this loop services user input and passes it to be processed on <enter>
int main(void){
CLKDIVbits.RCDIV0=0; //clock divider to 0
AD1PCFG = 0xFFFF; // Default all pins to digital
OSCCONbits.SOSCEN=0; //Oscilator setup, registar-OSCON bits-SOSCEN
MODE_LED_DIR = 0; //Mode LED set as output
VREG_DIR =0; //VREG is set as output
VREG_EN = 1; //Sets the VREG pin to 1, turns on the Voltage regulators.
MODE_LED = 1; //Turns the MOD LED 0N
InitializeUART1(); //Initialize UART1
initADC(); //Initialise ADC
unsigned int voltage;
/////FOREVER///LOOP//////////
while(1)
{
if(UART1RX() == 'a') //Checks if the recived byte is 'a' if so it sends the two RAW bytes form ADC
{
voltage = getADC(); //reads the ADC pin
UART1TX(voltage>>8); //seds the top byte of ADC to UART
UART1TX(voltage); //sends the bottom byte of ADC to UART
}
}
int main(void) {
initLCD(display_cmd_buffer, 32);
sendLCDCmd(LCD_CMD_CLEAR);
serviceLCD(); // Clear the LCD just to make sure we know where we are.
_delay_ms(2); // This takes a long time
sendLCDCmd(LCD_CMD_DSP_ON);
// Configure the ADC
initADC();
sei();
sendCommand(CMD_STOP);
sendCommand(CMD_SDATAC);
uint8_t registers[] = {0x10, 0x10, 0x10, 0x10, 0x90, 0x90, 0x90, 0x90};
writeRegisters(0x05, registers, 8);
// Configure data ready interrupt
DDRB &= ~(1<<4);
PCMSK0 = 1<<4;
sendCommand(CMD_START);
sendCommand(CMD_RDATAC);
PCICR |= 1;
char buf[6];
while (1) {
itoa(inputBuffer[0], buf, 10);
LCD_MOVE_TO_CHAR(0,0);
writeString(buf, 6);
for (int i = 0; i < 10; i++) {
serviceLCD();
_delay_us(60);
}
_delay_ms(100);
}
}
int main()
{
uint8_t dir = CW;
initPorts();
initADC();
// accel section
halfStep(dir);
_delay_us(10000);
halfStep(dir);
_delay_us(6000);
halfStep(dir);
_delay_us(4667);
halfStep(dir);
_delay_us(3949);
while (1)
{
stepperVal = MOTORPORT;
switch (stepperVal)
{
case 1:
ADMUX = (ADMUX & 0b1110000) | 0x1;
adctested = 1;
break;
case 2:
ADMUX = (ADMUX & 0b1110000) | 0x2;
adctested = 1;
break;
case 4:
ADMUX = (ADMUX & 0b1110000) | 0x3;
adctested = 1;
break;
case 8:
ADMUX = (ADMUX & 0b1110000) | 0x0;
adctested = 1;
break;
default:
ADMUX = (ADMUX & 0b1110000) | 0x31; // GND
adctested = 0;
}
if (adctested)
{
// trigger ADC sample
ADCSRA |= _BV(ADSC);
// poll delay until sample done
loop_until_bit_is_clear( ADCSRA, ADSC );
DEBUGPORT = ADCH;
}
halfStep(dir);
_delay_us(3500);
} // main loop
}
////////////////////////////////////////////////////////////
// MAIN
////////////////////////////////////////////////////////////
void main(void) {
// Configura el Oscilador interno a 8Mhz
OSCCONbits.IRCF = 0b111;
// InitAllLEDs
PORTA = 0x00;
TRISAbits.TRISA0 = 1; // 1 input
TRISAbits.TRISA1 = 1; // 1 input
TRISAbits.TRISA2 = 1; // 1 input
TRISAbits.TRISA3 = 1; // 1 input // FOR ADC
TRISAbits.TRISA4 = 1; // 1 input
TRISAbits.TRISA5 = 1; // 1 input // ICSP VPP
TRISAbits.TRISA6 = 1; // 1 input // OSCILATOR
TRISAbits.TRISA7 = 1; // 1 input // OSCILATOR
PORTB = 0x00;
//TRISB = 0x00; // 0x00 all as output
TRISBbits.TRISB0 = 0; // 0 output
TRISBbits.TRISB1 = 0; // 0 output
TRISBbits.TRISB2 = 0; // 0 output // FOR LCD_D4
TRISBbits.TRISB3 = 0; // 0 output // FOR LCD_D5
TRISBbits.TRISB4 = 0; // 0 output // FOR LCD_D6
TRISBbits.TRISB5 = 0; // 0 output // FOR LCD_D7
TRISBbits.TRISB6 = 0; // 0 output // PGD (1 is value on POR) & LCD_RS
TRISBbits.TRISB7 = 0; // 0 output // PGC (1 is value on POR) & LCD_E
//PORTB = 0x00;
initADC();
Lcd_Init();
//CMCON = 0x07;
while(1) {
// INIT ADC CONVERSION
initADCConversion();
while(isADCConversionReady() == 0) {
;
}
int result = getADC10bitResult(); // result = 0-1023
float minValue = 0.0;
float maxValue = 5.0;
float unitValue = (maxValue-minValue)/1024; // 5.0 / 1024
// Si el voltaje alcanza el máximo valor (Vref+) currentValue=5 y si se queda en el mínimo valor (Vref-) currentValue=0.
float currentValue = result * unitValue;
//setBCDsText(ftoa(currentValue, (int *) 0));
//setBCDCharacterNumber(integ);
Lcd_Clear();
Lcd_Set_Cursor(1,1);
Lcd_Write_String(ftoa(currentValue, (int *) 0));
}
}
int main( void )
{
uint16_t leftLightSensor = 0;
uint16_t rightLightSensor = 0;
char buffer0[5];
char buffer1[5];
initUSART();
initADC();
initPWM();
while ( 1 )
{
/* Start ADC7 conversion */
leftLightSensor = readADC( 7 );
/* Convert 10-bit uint16_t adcValue to ASCII and store in buffer */
itoa( leftLightSensor, buffer0, 10 );
/* Print out leftLightSensor ADC Value */
printString( "ADC Channel 6 (Left CD Sensor): " );
printString( buffer0 );
printString( "\n\n" );
/* Start ADC6 conversion */
rightLightSensor = readADC( 6 );
/* Convert 10-bit uint16_t adcValue to ASCII and store in buffer */
itoa( rightLightSensor, buffer1, 10 );
/* Print out rightLightSensor ADC Value */
printString( "ADC Channel 7 (Right CD Sensor): " );
printString( buffer1 );
printString( "\n\n" );
/* Arch right if rightLightSensor reading is greater than leftLightSensor */
if ( ( rightLightSensor - 100 ) > leftLightSensor )
{
leftwheel( 55, 1 );
rightwheel( 35 , 1 );
}
/* Arch left if leftLightSensor reading is greater than rightLightSensor */
else if ( ( leftLightSensor - 100 ) > rightLightSensor )
{
leftwheel( 35 , 1 );
rightwheel( 45, 1 );
}
/* Go forward if both light sensors have the same reading */
else
{
leftwheel( 35 , 1 );
rightwheel( 35 , 1 );
}
_delay_ms( 500 );
}
}
// Reading PIR status using ADC on channel AN1
void readPIR(void)
{
initADC(1);
readADC();
resPIR = resADC;
if(resPIR > 500)
resPIR = 1;
else
resPIR = 0;
}
int main()
{
initADC();
initUART();
DDRC|=(1<<PC5);
while(1)
{
}
}
interrupt void ADC_isr(void){
EALLOW;
unsigned int value;
initADC();
value = ADC_get();
DAC_set(value);
CpuTimer1.InterruptCount++;
EALLOW;
}
int main(void)
{
unsigned int i;
int sum = 0;
int current = 0;
int hgt_percent = 0;
int degrees = 0;
STATE = IDLE;
initClock();
initADC();
initYaw();
initMotorPin();
initDisplay();
intButton();
initConsole();
initPWMchan();
initCircBuf (&g_inBuffer, BUF_SIZE);
// Enable interrupts to the processor.
IntMasterEnable();
while (1)
{
//double dt = SysCtlClockGet() / SYSTICK_RATE_HZ;
degrees = yawToDeg();
// Background task: calculate the (approximate) mean of the values in the
// circular buffer and display it.
sum = 0;
for (i = 0; i < BUF_SIZE; i++) {
current = readCircBuf (&g_inBuffer);
sum = sum + current;
}
int newHght = ADC_TO_MILLIS(sum/BUF_SIZE);
if(initialRead != 0)
{
hgt_percent = calcHeight(initialRead, newHght);
}
if (STATE == FLYING || STATE == LANDING){
PIDControl(hgt_percent, SysCtlClockGet() / SYSTICK_RATE_HZ);
PWMPulseWidthSet (PWM_BASE, PWM_OUT_1, period * main_duty / 100);
PWMPulseWidthSet (PWM_BASE, PWM_OUT_4, period * tail_duty / 100);
}
displayInfo((int)initialRead, hgt_percent, degrees);
}
}
/* Configures the board hardware and chip peripherals for the project's functionality. */
void configHardware(void){
USB_ConfigureClock();
PORTR.DIRSET = 1 << 1;
PORTR.OUTSET = 1 << 1;
_delay_ms(50);
PORTR.OUTCLR = 1 << 1;
DAC_init();
initADC();
initChannels();
USB_Init();
}
int main(void) {
initADC(1); // Configure ADC with nConvertions = 1
while (1) {
AD1CON1bits.ASAM = 1; // Start conversion
while (IFS1bits.AD1IF == 0); // Wait while conversion not done (AD1IF == 0)
printInt(ADC1BUF0, 0x00030010);
putChar('\n');
IFS1bits.AD1IF = 0; // Rest AD1IF
}
return 0;
}
///////////////??????????????///////////////////////////////
int main(void) // borde heta initADC() sen kanske?
{
initADC();
sei(); // Enable Global Interrupts
for (int i=0; i<5; i++)
{
analogRead(0);
}
while(1);
{ //Wait for button
}
}
int main(void) {
float voltage1;
float voltage2;
float res1;
float res2;
// -------- Inits --------- //
initUSART();
setupADCSleepmode();
printString("\r\nDigital Voltmeter\r\n\r\n");
// ------ Event loop ------ //
while (1) {
initADC(0);
voltage1 = oversample16x();
printString("Thermistor 1:\r\n");
printFloat(voltage1);
//printVoltage(voltage1);
res1 = printThermRes(voltage1);
printTemp(res1);
printString("\r\n");
_delay_ms(100);
initADC(1);
voltage2 = oversample16x();
printString("Thermistor 2:\r\n");
printFloat(voltage2);
//printVoltage(voltage2);
res2 = printThermRes(voltage2);
printTemp(res2);
printString("\r\n");
_delay_ms(2500);
} /* End event loop */
return (0); /* This line is never reached */
}
int main(void){
DisableDog();
EALLOW;
int test = 0;
int laggingValue = 0xFF;
unsigned int value = 0;
EALLOW;
CPUinit();
EALLOW;
DINT;
outputEnable();
initADC();
EALLOW;
outputEnable(); //having issues when not enabling twice
SRAMwrite(0);
SRAMaddress = 0x260000;
//DAC_init();
DAC_init();
timerINIT();
EALLOW;
int oldvalue = 0;
while(1){
// SRAMaddress = 0x2FFFFF;
// *SRAMaddress = 0x77;
if(a == 1){ //cross your fingers folks
value = keypadScan();
*outputPORT = value;
if(value < 0xF && value != 1 && oldvalue != value){
FreqSet(value); //setting the frequency based upon keypad input
oldvalue = value;
}
}
}
EALLOW;
return 0;
}
int main (void) {
initClock(); // clock.h
initSerial(); // serial.h
initTimer(); // timer.h
initADC(); // adc.h
initInterrupt(); // interrupt.h
initJtagShift(); // jtagshift.h
initTdbShell(); // tdbshell.h
tdbShellStart();
return 0;
}
// Functions
int initDevice() {
// Setup UART
initUSART0STDIO(UBRR_MACRO);
// Setup ADC
initADC();
// Setup BT
initBT();
// Enable Timer
initTimer();
// Enable Interrupts
sei();
return 0;
}
int main ( void ) {
init_stdusart0(51, DB8 | P_N | SB1); //init stdio uart at 19.2k baud 8N1 (51 is ubrr value for 19.2k at 16 MHz)
initADC(); //initalize the A2D converter
uint16_t channelnum; //create 2 16 bit variables
uint16_t value;
printf("AVR ADC Test Program\r:"); //print a welcome message
while (1) { //repeat forever
scanf("%d", &channelnum); //get the requested channel number
value = getADC((uint8_t)(channelnum & 0x07)); //get the value of that channel channel num is 16 bits, we need the lower three. mask the non required bits
printf("Channel: %d = %d\r:", channelnum, value); //print the result
}
return 0;
}