/**
* 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 initSymPWM0(uint16_t prescaler, _t_pwm_pol pol)
{
/* Override previous PWM init */
initTimer0(prescaler, TMR_CLK_RISE, PWM, CLKOSC, INT_OFF);
/* DC = 0%*/
pwm0Pins(pol);
}
int main(void) {
// -------- Inits --------- //
uint8_t i;
LED_DDR = 0xff;
initTimer0();
// ------ Event loop ------ //
while (1) {
for (i = 0; i < 255; i++) {
_delay_ms(DELAY);
brightnessA = i;
brightnessB = 255 - i;
}
for (i = 254; i > 0; i--) {
_delay_ms(DELAY);
brightnessA = i;
brightnessB = 255 - i;
}
} /* End event loop */
return (0); /* This line is never reached */
}
void init()
{
PWMInit();
init_1602();
initTimer0();
init_serial();
timePrint();
car.current = TG_START;
}
void main()
{
//Set watchdog off and make correct smclk
WDTCTL = WDTPW + WDTHOLD; // Halt the watchdog timer
BCSCTL1 = CALBC1_16MHZ; // 16MHz SMCLK bits.
DCOCTL = CALDCO_16MHZ;
//Initialize Timer0, then turn the CPU off.
initTimer0();
initGPIO();
_bis_SR_register(GIE+LPM0_bits); // Global interrupts enabled, CPU off
}
int main(void)
{
initTimer0(); // Timer0 - Lys/Lyd
initTimer1(); // Timer1 - Lyd(OCR1A) og Delays
initTimer2(); // Timer2 - Motorstyring
initBackLEDPort();
initFrontLEDPort();
sei();
allLightsOn(); // Tænd alle lys
while(1)
{
do
{
ReflectionCount();
DriveForward1();
brakeLightOff();
if( antalRefleksbrik == 3 ) // Brems ved bakken.
{
Brake();
brakeLightOn();
}
if( antalRefleksbrik == 6 ) // Bremse og bak.
{
Brake();
_delay_us(5000000);
brakeLightOn();
Reverse();
}
if( antalRefleksbrik == 8 ) // Når den holder ved refleksbrik nr 5.
{
Brake();
_delay_us(5000000);
}
} while ( antalRefleksbrik >=0 && antalRefleksbrik <=11 );
Brake();
brakeLightNormal();
StopLevelComplete();
}
return 0;
}
int main(void)
{
initTimer0();
initTimer1();
initTimer2();
initSwitchPort();
sei();
//int antalRefleksbrik;
while(1)
{
do
{
ReflectionCount();
DriveForward1();
/*if( StartReflection() == 1 ) // True = 1.
{
DetekCoin();
}
*/
if( antal == 3 ) // Brems ved bakken.
{
Brake();
}
if( antal == 6 ) // Bremse og bak.
{
Brake();
_delay_us(5000000);
Reverse();
}
if( antal == 8 ) // Når den holder ved refleksbrik nr 5.
{
Brake();
_delay_us(5000000);
}
} while ( antal >=0 && antal <=11 );
Brake();
}
return 0;
}
int main(void)
{
initIO();
initTimer0();
initA2D();
initUART();
initLCD();
sei();
while(1)
{
handleEvents();
}
return 0;
}
void main(void) {
unsigned char tens;
initClock();
initPin();
initTimer0();
initInterruptButtons();
while(1) {
ADCON0bits.GO = 1;
while(!ADCON0bits.DONE);
tens = ADRESH;
if (tens < 254*10/3.2/5) {
PORTBbits.RB5=1;
}
else {
PORTBbits.RB5=0;
}
}
}
// -------------------------------------------------------------------------------------
static void setup(void)
{
cli();
// adjust power saving modes
PRR = (0<<PRTIM0) | // enable timer0
(0<<PRTIM1) | // enable timer1
(1<<PRUSI) | // disable USI
(0<<PRADC); // enable ADC
initDiagLed();
initTimer0();
initTimer1();
initComparator();
pwmOff();
sei();
}
int main()
{
uint8_t i;
cli();
wdt_enable(WDTO_60MS);
for (i = 0; i < 8; i++) {
PORTA = PORTA >> 1;
PORTA |= ((readEEPROM(i) - '0') & 0x01) << 7;
}
for (i = 8; i < 16; i++) {
PORTC = PORTC >> 1;
PORTC |= ((readEEPROM(i) - '0') & 0x01) << 7;
}
DDRA = 0xff;
DDRC = 0xff;
for (stackTail = EEPROM_SIZE - 1; readEEPROM(stackTail) != 0xff; stackTail--);
status = ((uint16_t) PORTC) << 8 | (uint16_t) PORTA;
initUSART();
setDuty();
initTimer0();
initTimer2();
sei();
printf("\nEntering the main loop\n");
while (1) {
wdt_reset();
}
return 0;
}
int main(void) {
uint8_t updateSpeed;
// -------- Inits --------- //
initTimer0();
OCR0B = 0;
ANTENNA_DDR |= (1 << ANTENNA); /* now hooked up to MOSFET, output */
LED_DDR |= (1 << LED0);
LED_DDR |= (1 << LED1);
initUSART();
printString("DC Motor Workout\r\n");
// ------ Event loop ------ //
while (1) {
updateSpeed = getNumber();
/* Ramp up/down to desired speed */
if (OCR0B < updateSpeed) {
LED_PORT |= (1 << LED0);
while (OCR0B < updateSpeed) {
OCR0B++;
_delay_ms(SPEED_STEP_DELAY);
}
}
else {
LED_PORT |= (1 << LED1);
while (OCR0B > updateSpeed) {
OCR0B--;
_delay_ms(SPEED_STEP_DELAY);
}
}
LED_PORT = 0; /* all off */
} /* End event loop */
return (0); /* This line is never reached */
}
void initPWM0(uint16_t prescaler, _t_pwm_pol pol)
{
/* Override previous PWM init */
initTimer0(prescaler, TMR_CLK_RISE, FAST_PWM, CLKOSC, INT_OFF);
/* DC = 0%*/
if ((pol == PWM_NORMAL_A)||(pol == PWM_INVERT_A))
{
set_pwmPol0A = 0;
sbi(DDRD, DDD6);
cbi(PORTD, PORTD6); /* out low */
}
if ((pol == PWM_NORMAL_B)||(pol == PWM_INVERT_B))
{
set_pwmPol0B = 0;
sbi(DDRD, DDD5);
cbi(PORTD, PORTD5); /* out low */
}
pwm0Pins(pol);
if (pol == PWM_NORMAL_A)
{
setDutyPWM0(0, PWM_A);
}
if (pol == PWM_NORMAL_B)
{
setDutyPWM0(0, PWM_B);
}
if (pol == PWM_INVERT_A)
{
setDutyPWM0(0xff, PWM_A);
}
if (pol == PWM_INVERT_B)
{
setDutyPWM0(0xff, PWM_B);
}
startTimer0();
}
void EINT3_IRQHandler() {
int i;
if (count == 0) {
initTimer0();
command = 0;
realCommand = 0;
resetTimer0();
count++;
} else if (count == 1) {
//Startup bit
currentbit = 1;
command = command << 1;
command = command | currentbit;
command = command << 1;
lastbit = currentbit;
resetTimer0();
count++;
} else {
interval[count - 1] = readTimer0();
if (interval[count - 1] <= 1000 & interval[count - 1] >= 600) {
//Short pulse (~800 uS)
if (lastbit == 1) { // We're currently at a low
currentbit = 0;
command = command | currentbit;
command = command << 1;
lastbit = currentbit;
} else { // We're currently at a high
currentbit = 1;
command = command | currentbit;
command = command << 1;
lastbit = currentbit;
}
} else if (interval[count - 1] >= 1400 & interval[count - 1] <= 1800) {
//Long pulse (~1600uS)
if (lastbit == 1) { // We're currently at a low
currentbit = 0;
command = command | currentbit;
command = command << 2;
lastbit = currentbit;
} else { // We're currently at a high
currentbit = 1;
command = command | currentbit;
command = command << 1;
command = command | currentbit;
command = command << 1;
lastbit = currentbit;
}
} else {
//Delay is at around 17k so the current command is over
command = command >> 1;
//Adds a 0 at the end where there is one missing
if ((command & 0x4000000) == 0) {
command = command << 1;
}
//Command in manchester
commands[commandCount] = command & 0xFFF;
currentToggle = command & 0x400000;
currentToggle = currentToggle >> 22;
test[commandCount] = currentToggle;
//Make this into the correct number
for (i = 0; i < 5; i++) {
if ((commands[commandCount] & (0x1 << i * 2))
== (0x1 << i * 2)) {
realCommand = realCommand | (0x1 << i);
}
}
if((currentToggle != lastToggle || commandCount == 0) && count > 20){
realCommands[commandCount] = realCommand;
commandCount++;
}
lastToggle = currentToggle;
realCommand = 0;
command = 0;
count = 0;
}
resetTimer0();
count++;
}
IO2IntClr |= (1 << 6);
__asm("nop");
__asm("nop");
//# end reset
}
int main(void) {
volatile uint32_t valore = 0, i, blink = 0, contatore, lampeggio_led;
volatile int32_t arrot;
volatile int16_t val1 = 0, x, y, z;
distanza DIST;
//--------------------------//
///definizione strutture/////
//-------------------------//
//volatile double d = 1.9845637456;
gyro G;
accelerazione A;
cinematica CIN;
/// servono differenti PID, almeno uno per la rotazione ed uno per lo spostamento
/// per la rotazione sarebbero interessante usarne 2, uno per la ortazione soft ed uno per la rotazione
/// brusca.
pid CTRL[3], * pidPtr;
/// descrittore della sintassi dei comandi
syn_stat synSTATO;
/// modulo zigbee per telemetria
xbee XB;
/// pwm servi e motori
pwm PWM, pwmServi;
/// struttura del sensore di colore
colore COL;
/// sensore di temperatura ad infrarossi
temperatura TEMP;
TEMPER sensIR;
/// indormazioni sul sopravvissuto
survivor SUR;
//inizializzazione struttura per qei
qei QEI;
/// oggetto che riallinea il mezzo
allineamento AL;
/// disabilita le interruzioni
DI();
pidPtr = CTRL;
dPtr = &DIST;
TEMPptr = &TEMP;
CIN.Aptr = &A;
CIN.distPTR = &DIST;
CIN.vel = 0.0;
dati DATA;
//passaggio degli indirizzi delle strutture alla struttura generale
dati_a_struttura(&G, &DIST, &CIN, &COL, &TEMP, &SUR, &DATA);
/// commento per provare il merge su server remoto
/// setup di base
setupMCU();
/// imposta i parametri del PID
setupPID(CTRL);
/// imposta le UART
setupUART();
//inizializzo l'i2c
InitI2C0();
/// messaggio d'inizio
PRINT_WELCOME();
/// inizializza il giroscopio
initGyro(&G, Z_AXIS);
/// inizializza il timer 0 e genera un tick da 10 ms
initTimer0(10, &G);
/// inizializza il timer 1
initTimer1(100);
/// inizializza il contatore della persistenza del comando
synSTATO.tick = 0;
/// inizializza il pwm
pwmMotInit(&PWM);
// TODO: //pwmServoInit (&pwmServi);
/// inizializza l'adc e lo prepara a funzionare ad interruzioni.
initAdc(&DIST);
/// reset dell'automa di analisi della sintassi
resetAutoma(&synSTATO);
//servo = (pwm *) &pwmServi;
/// iniziailizzazione del lettore encoder
qei_init(&QEI);
/// abilita le interruzioni
EI();
/// attende che il sensore vada a regime
if (G.IsPresent == OK){
PRINTF("\nAzzeramento assi giroscopio\n");
while (blink < 70){
if (procCom == 1){
procCom = 0;
blink++;
}
}
blink = 0;
/// azzeramento degli assi
azzeraAssi(&G);
}
/// test della presenza del modulo zig-bee
/// il modulo zig-be si attiva con al sequnza '+++' e risponde con 'OK' (maiuscolo)
if (testXbee() == 0){
// ok;
XB.present = 1;
PRINTF("Modulo xbee presente.\n");
}
else{
XB.present = 0;
PRINTF("Modulo xbee non presente.\n");
}
pwm_power(&PWM);
contatore = 0;
//// inizializza l'accelrometro
//stato = writeI2CByte(CTRL_REG1_A, ODR1 + ODR0 + ZaxEN + YaxEN + XaxEN);
// scrivo nel registro 0x20 il valore 0x0F, cioe' banda minima, modulo on e assi on
/// sintassi: indirizzo slave, num parm, indirizzo reg, valore da scrivere
//I2CSend(ACCEL_ADDR, 2, CTRL_REG1_A, ODR1 + ODR0 + ZaxEN + YaxEN + XaxEN);
A.isPresent = testAccel();
if (A.isPresent)
impostaAccel(&A);
/// taratura sul sensore di luminosita'
whiteBal(&COL);
/// taratura del sensore di temepratura
taraturaTemp(&TEMP);
///
qei_test(&QEI);
/// task principale
while(1){
/// invia la risposta per i comandi di rotazione, quando sono stati eseguiti
if(pidPtr->rispondi == TRUE){
rispostaRotazione(pidPtr, &synSTATO);
pidPtr->rispondi = FALSE;
}
if (procCom == 1 ){
//UARTCharPutNonBlocking(UART1_BASE, 'c');
procCom = 0;
contatore++;
lampeggio_led++;
if(lampeggio_led >= 50)
{
lampeggio_led = 0;
if(DATA.surPtr->isSurvivor == TRUE )
{
if(HWREG(GPIO_PORTF_BASE + (GPIO_O_DATA + (GREEN_LED << 2))) != GREEN_LED )
HWREG(GPIO_PORTF_BASE + (GPIO_O_DATA + (RED_LED << 2))) = 0;
HWREG(GPIO_PORTF_BASE + (GPIO_O_DATA + (GREEN_LED | RED_LED << 2))) ^= GREEN_LED | RED_LED;
}
HWREG(GPIO_PORTF_BASE + (GPIO_O_DATA + (GREEN_LED << 2))) ^= GREEN_LED;
}
/* LETTURA DEL COMANDO */
/// restituisce l'indirizzo del PID da utilizzare nel successivo processo di calcolo
pidPtr = leggiComando(&synSTATO, CTRL, pidPtr, &DATA);
/* LETTURA SENSORI */
/// effettua i calcoli solo se il giroscopio e' presente
/// TODO: il PID viene calcolato ongi 10ms oppure ogni 20ms? Come è meglio?
/* misura gli encoder e calcola spostameti e velocità */
/* misura i sensori di distanza */
if (DIST.run == true)
/// TODO controllare se riesce a funzionare mentre legge le accelerazioni su I2C
ROM_ADCProcessorTrigger(ADC0_BASE, 0);
/// misura i dati forniti dall'accelerometro se disponibili
if(A.isPresent)
misuraAccelerazioni(&A);
/// le misure del giroscopio invece sono effettuate solo dall'apposito pid
/*if(G.IsPresent == OK)
if( contatore == 1){
/// ogni 10 ms effettua il calcolo del PID
contatore = 0;
HWREG(GPIO_PORTB_BASE + (GPIO_O_DATA + (GPIO_PIN_0 << 2))) |= GPIO_PIN_0;
PID(&G, pidPtr, &PWM, &CIN);
setXPWM(&CTRL[1], &PWM);
procCom = 0;
HWREG(GPIO_PORTB_BASE + (GPIO_O_DATA + (GPIO_PIN_0 << 2))) &= ~GPIO_PIN_0;
blink++;
/// lampeggio del led con periodo di 2 s.
if (blink >= 100){
HWREG(GPIO_PORTF_BASE + (GPIO_O_DATA + ((GPIO_PIN_2 | GPIO_PIN_1) << 2))) = 0;
HWREG(GPIO_PORTF_BASE + (GPIO_O_DATA + (GPIO_PIN_3 << 2))) ^= GPIO_PIN_3;
blink = 0;
}
///provvede ad integrare la misura della velcita' angolare ogni 10 ms
//misuraAngoli(&G);
//PRINTF("asse x: %d\t", G.pitch);
//PRINTF("\tasse y: %d\t", G.roll);
//PRINTF("\tasse z: %d\n", G.yaw);
//PRINTF("uscita PID: %d\n", C.uscita);
}*/
/* RISPOSTA AL COMANDO */
inviaSensore(&synSTATO, &DATA);
}
}
}
int main(void)
{
static uint8_t oldPosition;
static uint8_t divVal, modVal;
cli();
wdt_disable();
set_sleep_mode( SLEEP_MODE_IDLE );
initDevice();
DDRD = 0b11111111;
DDRB = 0b11111111;
initTimer2();
initTimer0();
sei();
startTimer2();
startTimer0();
frame = buf1;
buffer = buf2;
CLEAR_BUFFER( frame );
CLEAR_BUFFER( buffer );
setAnimationFunction( anim_fillDot, TRUE, TRUE );
animation.loop = TRUE;
while ( 1 )
{
if( animation.tick )
{
animationTick();
clearTick();
}
if( currentScanPixel == 0 )
{
if( animation.nextFrameReady )
{
animationBufferSwap();
}
}
if( oldPosition != currentScanPixel )
{
modVal = currentScanPixel % 8;
//we need to change columns only so often
if( modVal == 0 )
{
divVal = currentScanPixel / 8;
COL_PIXEL( divVal );
}
if( frame[ divVal ] & _BV( modVal ) )
{
ROW_PIXEL( modVal );
}
else
{
ROW_OFF();
}
oldPosition = currentScanPixel;
}
//if( TIME TO SLEEP ) { sleep_mode(); }
}
}
/**@brief Chiamabile più volte per inizializzare moduli A e B */
void initCompare0 (uint8_t comp_val, _t_compare_sel comp, uint16_t prescaler, _t_edge edge, _t_timer_clock clock, uint8_t timer_int)
{
initTimer0(prescaler, edge, COMPARE_MATCH, clock, timer_int);
switch (comp)
{
case COMP_A_TOGGLE:
sbi(TCCR0A, COM0A0);
cbi(TCCR0A, COM0A1);
sbi(DDRD, DDD6);
OCR0A = comp_val;
break;
case COMP_A_CLEAR:
cbi(TCCR0A, COM0A0);
sbi(TCCR0A, COM0A1);
sbi(DDRD, DDD6);
OCR0A = comp_val;
break;
case COMP_A_SET:
sbi(TCCR0A, COM0A0);
sbi(TCCR0A, COM0A1);
sbi(DDRD, DDD6);
OCR0A = comp_val;
break;
case COMP_B_TOGGLE:
sbi(TCCR0A, COM0B0);
cbi(TCCR0A, COM0B1);
sbi(DDRD, DDD5);
OCR0B = comp_val;
break;
case COMP_B_CLEAR:
cbi(TCCR0A, COM0B0);
sbi(TCCR0A, COM0B1);
sbi(DDRD, DDD5);
OCR0B = comp_val;
break;
case COMP_B_SET:
sbi(TCCR0A, COM0B0);
sbi(TCCR0A, COM0B1);
sbi(DDRD, DDD5);
OCR0B = comp_val;
break;
case COMP_A_DISCONNECT:
cbi(TCCR0A, COM0A0);
cbi(TCCR0A, COM0A1);
OCR0A = comp_val;
break;
case COMP_B_DISCONNECT:
cbi(TCCR0A, COM0B0);
cbi(TCCR0A, COM0B1);
OCR0B = comp_val;
break;
default:
/* lascia OCnx sconnesso come lo è da initTimer0*/
cbi(TCCR0A, COM0B0);
cbi(TCCR0A, COM0B1);
cbi(TCCR0A, COM0A0);
cbi(TCCR0A, COM0A1);
break;
}
switch (timer_int)
{
case INT_ON:
/* Non devo chiamare questa funzione se uso il normale */
if ((comp == COMP_A_CLEAR) || (comp == COMP_A_SET) ||(comp == COMP_A_TOGGLE)||(comp == COMP_A_DISCONNECT))
{
sbi(TIMSK0, OCIE0A);
}
if ((comp == COMP_B_CLEAR) || (comp == COMP_B_SET) ||(comp == COMP_B_TOGGLE)||(comp == COMP_B_DISCONNECT))
{
sbi(TIMSK0, OCIE0B);
}
break;
case INT_OFF:
if ((comp == COMP_A_CLEAR) || (comp == COMP_A_SET) ||(comp == COMP_A_TOGGLE)||(comp == COMP_A_DISCONNECT))
{
cbi(TIMSK0, OCIE0A);
}
if ((comp == COMP_B_CLEAR) || (comp == COMP_B_SET) ||(comp == COMP_B_TOGGLE)||(comp == COMP_B_DISCONNECT))
{
cbi(TIMSK0, OCIE0B);
}
break;
default:
cbi(TIMSK0, OCIE0A);
cbi(TIMSK0, OCIE0B);
break;
}
}
int main(void) {
int i;
char buff1[3];
char buff2[3];
initDisplay();
initSomGenerator();
initTimer0();
initRC5();
resetTimer0();
initRTC();
initRIT();
setPriorities();
int lastAlarmToggle = 0;
char alarmBit;
//////////////////////////////////
char* test = generateSom();
char som[10];
strcpy(som, test);
free(test);
//////////////////////////////////
// char arr[3];
// readRAM(arr, 0x08);
// delay(500);
// alarmBit = arr[2];
// clear();
int arr2[3];
//int arr[3] = {0x00, 0x24, 0x12};
//setTime(arr);
readTime(arr2, 0x00);
if(arr2[2] < 10){
sprintf(buff1, "0%d", arr2[2]);
} else {
sprintf(buff1, "%d", arr2[2]);
}
if(arr2[1] < 10){
sprintf(buff2, "0%d", arr2[1]);
} else {
sprintf(buff2, "%d", arr2[1]);
}
//Set the last known values in RIT.c
lastValues[0] = arr2[0];
lastValues[1] = arr2[1];
lastValues[2] = arr2[2];
sprintf(output, "%s:%s", buff1, buff2);
// printf("%d\n", arr2[0]);
// printf("%d\n", arr2[1]);
// printf("%d\n", arr2[2]);
//Main loop
while (1) {
while (!isTimeForAlarm(alarmBit) && (getCommand(commandCount - 1) != 15 && getCommand(commandCount - 1) != 11)) {
//This is the main loop, all we do here is print the current time to the display since the current time is updated through the RIT and the EINT takes care of the remote control
//Prints the current time
printToDisplay(output);
}
if (getCommand(commandCount - 1) == 15) {
//Goes into the set alarm state
addAlarmState();
}
if (getCommand(commandCount - 1) == 11 && commandCount != lastAlarmToggle) { // '11' needs to be replaced with an other number, because it's an temporary button
//Toggle alar state
alarmBit = !alarmBit;
toggleAlarmState(alarmBit);
lastAlarmToggle = commandCount;
//Give the user some feedback(Tell them wether they set or unset the alarm)
for(i=0; i<200; i++){
asm("nop");
if(alarmBit == 1){
printToDisplay(" + ");
} else {
printToDisplay(" - ");
}
}
}
if (isTimeForAlarm(alarmBit)) {
//Goes into the alarm state
alarmState();
resetAlarmTime();
}
printToDisplay(output);
}
return 0;
}
void main(void)
{
PORTA=0x00;
DDRA=0x00;
PORTB=0x00;
DDRB=0x00;
PORTC=0x00;
DDRC=0x00;
PORTD=0x00;
DDRD=0x00;
PORTE=0x00;
DDRE=0x00;
PORTF=0x00;
DDRF=0x00;
PORTG=0x00;
DDRG=0x00;
initTimer0();
initTimer1();
initTimer2();
initTimer3();
enableTimers();
// External Interrupt(s) initialization
// INT0-INT7: Off
EICRA=0x00;
EICRB=0x00;
EIMSK=0x00;
// Analog Comparator initialization
// Analog Comparator: Off
// Analog Comparator Input Capture by Timer/Counter 1: Off
ACSR=0x80;
SFIOR=0x00;
// ====================== TRUE INITIALIZATION =============================
initLeds();
//initJumpers();
InitFans();
// configure Fans
FanSetPower(&fan1, 5);
FanSetPower(&fan2, 0);
FanSetPower(&fan3, 0);
FanSetPower(&fan4, 0); // max is 27
FanEnable(&fan2);
FanEnable(&fan3);
FanEnable(&fan4);
InitRailControl();
InitPsuControl();
InitPullDownControl();
//InitTemperature(); // no temperature-based control yet // depend on jumper J1
InitSignalControl();
InitADC();
InitBatChargeControl();
initPPC_State();
initUSART();
#asm("sei")
while(1)
{
// read jumpers
// read inputs
// update fans
// update outputs
// enter sleep
/*
// test fan speed debug
if (getTicksDelta(lastFanStepTickCount) > FAN_STEP_INTERVAL)
{
lastFanStepTickCount = getTickCount();
debug_fan_power_step++;
if (debug_fan_power_step > PWR_FAN_MAX)
debug_fan_power_step = PWR_FAN_MIN;
FanSetPower(&fan1, debug_fan_power_step);
};
*/
BatChargeUpdate();
//batChargeState.all_batteries_charged = 1; // !!!
SignalsIndicateCharged(batChargeState.all_batteries_charged);
#if 1
SignalReadUpdate();
switch (ppcState.mode)
{
case(PPC_MODE_WAITING):
{
if (InputsTransientHigh(SIGNAL_INDEX_SPINT_POWER))
{
setPPC_Mode(PPC_MODE_STARTING);
};
break;
}; // waiting mode state
case(PPC_MODE_STARTING):
{
FanEnable(&fan1);
switch(ppcState.stage)
{
case(0):
PsuSet(0,0,1,0);
PsuUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(200);
break;
case(1):
PsuSet(1,0,1,0);
PsuUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(200);
break;
case(2):
PsuSet(1,0,1,1);
PsuUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(200);
break;
case(3):
RailSet(1,0);
RailUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(200);
break;
case(4):
RailSet(1,1);
RailUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(1000);
break;
case(5):
PullDownSet(1,0,0);
PullDownUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(100);
break;
case(6):
PullDownSet(0,0,0);
PullDownUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(100);
break;
default:
setPPC_Mode(PPC_MODE_ACTIVE);
break;
};
ppcState.stage++;
break;
}; // starting mode state
case(PPC_MODE_ACTIVE):
{
FanEnable(&fan1);
if (signalState.current_signal_state[SIGNAL_INDEX_SPINT_POWER] == 0)
{
setPPC_Mode(PPC_MODE_PARKING);
};
//if (InputsTransientLow(SIGNAL_INDEX_SPINT_POWER))
break;
}; // acitve mode state
case(PPC_MODE_PARKING):
{
FanDisable(&fan1);
switch(ppcState.stage)
{
case(0): // turn off PSU power
PsuSet(0,0,0,0);
PsuUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(200);
break;
case(1): // park computer (pull-in)
PullDownSet(1,0,0);
PullDownUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(100);
break;
case(2): // park computer (pull-out)
PullDownSet(0,0,0);
PullDownUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(1000); // wait before clamping power rail
break;
case(3): // turn-off rails
RailSet(0,0);
RailUpdateOutput();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
delay_ms(200);
break;
default:
setPPC_Mode(PPC_MODE_WAITING);
break;
};
ppcState.stage++;
break;
}; // Parking mode state
}; // MODE Switch
// This function locks for 0.2 second minimum
// This must be read in the end of control loop
/*
TemperatureReadUpdate();
if (temperatureState.temperature1 != 0)
{
if (temperatureState.temperature1 <= 30)
{
FanDisable(&fan1);
}
else
{
FanEnable(&fan1);
FanSetPower(&fan1,(unsigned char)(PWR_FAN_MIN + ((signed int)(PWR_FAN_MAX - PWR_FAN_MIN))*temperatureState.temperature1/60));
};
}
else
{
FanDisable(&fan1);
};
*/
RailUpdateOutput();
PsuUpdateOutput();
PullDownUpdateOutput();
networkUpdate();
PORTA = railState.port_value | psuState.port_value | pullDownState.portA_value;
#endif
/*
if (ppcState.mode == PPC_MODE_WAITING)
{
#asm("sleep")
}
*/
}
} // main
int main() {
hc595_init();
initTimer0();
int8_t shiftCounter = 0x00;
int16_t curShift, curMaxShift;
int16_t charCol, row;
int16_t col;
//revspace: 47 cols
uint8_t textLength = 190;//77 + 113+;//198;
//test length
// strlen(s) * 6
//all output
DDRD = 0xFF;
DDRA = 0xFF;
char text[] = "nee";
textLength = strlen(text);//10 * 5 + 9;
int8_t j, i;
while(1) {
if(shiftIn > 80 + textLength)
shiftIn = 0;
curMaxShift = shiftIn;
//scan the rows
for(row = 7; row > 0; row--) {
charCol = textLength; //word length
PORTA = row;
hc595_latchLow();
// all the columns + the length of the text
for(col = 80 + textLength; col >= 0; ) {
if(80 + textLength - curMaxShift > col && charCol >= 0) {
for(i = strlen(text) - 1; i >= 0; i--) {
for(j = 4; j >= 0; j--) {
if(~chars[text[i] - 'a'][j] & (1 << row)) {
hc595_dataHigh();
}
else {
hc595_dataLow();
}
charCol--;
hc595_clk();
}
hc595_dataHigh();
hc595_clk();
}
}
else {
hc595_dataHigh();
}
col--;
hc595_clk();
}
hc595_latchHigh();
// hc595_latchLow();
// for(col = 80 + textLength; col >= 0; col--){
// if( textLength + 80 - curMaxShift > col && charCol >= 0) {
// if(~text[charCol] & (1 << row))
// hc595_dataHigh();
// else
// hc595_dataLow();
// // [>if(~orange[charCol] & (1 << row))<]
// // [>hc595_dataRedHigh();<]
// // [>else<]
// // [>hc595_dataRedLow();<]
// charCol -= 1;
// }
// else {
// hc595_dataHigh();
// }
// hc595_clk();
// }
// hc595_latchHigh();
}
}
}
