int main(void){
//Local variables for xbee
char transmitString[8];
uint8_t errorTimer = 20;
//Locals for ADXL
int16_t z = 0;
int16_t z_low = 0;
int16_t z_high = 0;
int16_t x = 0;
int16_t x_low = 0;
int16_t x_high = 0;
char messurementString[6];
//variable for iterations
int i;
//variables for gps
char* ptr;
char* tmpPtr;
char ts[11] = " ";
char lat[11] = " ";
char latd[2]= " ";
char lon[11]= " ";
char lond[2]= " ";
char fix[2]= "0";
char sats[3]= " ";
char velocity[6] = " ";
char *ptrToNMEA[] = {ts, lat, latd, lon, lond, fix, sats};
uint8_t messageIterator;
//variables for sd card
//initialize sdcard (it uses the same SPI as Xbee)
uint8_t sdBuffer[512];
uint16_t sdBufferCurrentSymbol = 0;
uint8_t sector = 0;
uint32_t mstrDir = 0;
uint32_t cluster = 0;
uint32_t filesize = 0;
uint16_t fatSect, fsInfoSector;
//Periph variable
uint16_t ADC_value;
//Timer string
char timerString[8];
//Leds and buttons, gpio's
initializeUserButton();
initializeEveryGreenLed();
initializeEveryRedLed();
setupGpsGpio();
//SPI attention pin for incoming data alert
initializeXbeeATTnPin();
//Usart1 for debugging and serial communication
Usart1_Init(9600);
//System clock for delays
initialiseSysTick();
//SPI1 for xbee
InitialiseSPI1_GPIO();
InitialiseSPI1();
//Timer for counter (1s)
Initialize_timer();
Timer_interrupt_enable();
//ADC for voltage control
adcPinConfig();
adcConfig();
//Xbee initialization (check if there arent unread data)
//... transmitter shouldn't have any received messages from others
XBEE_CS_LOW();
while(errorTimer--){
SPI1_TransRecieve(0x00);
}
XBEE_CS_HIGH();
//Dewi Module wont start until the button is pressed
while(moduleStatus == MODULE_NOT_RUNNING){
ADC_value = (ADC_GetConversionValue(ADC1));
ADC_value = (ADC_value * 330) / 128;
batteryIndicationStartup(ADC_value);
blinkGreenLeds(7);
}
//12 seconds to choose the modules to use
//One redStartup take about 500ms, so let it spin for twenty times
//Default state is 1 (only acc is on)
turnOnGreenLeds(state);
for(errorTimer = 0 ; errorTimer < 6 ; errorTimer++){
redStartup(REAL_REAL_SLOW_DELAY);
}
//Setup state is cleared
moduleStatus = MODULE_APPLYING_PARAMS;
//ADXL362Z
if(state&0x01){
//SPI2 for ADXL
InitialiseSPI2_GPIO();
InitialiseSPI2();
initializeADXL362();
blinkRedLed3();
while(!return_ADXL_ready()){
//wait time for caps to discharge
delayMs(2000);
initializeADXL362();
delayMs(1000);
blinkRedLed3();
}
}
//GPS
if((state&0x02) >> 1){
//Usart 2 for gps communication
Usart2_Init(BAUD_4800);
ConfigureUsart2Interrupt();
errorTimer = 40;
turnGpsOn();
while(!GPIO_ReadInputDataBit(GPS_PORTC,WAKEUP_PIN)){
blinkRedLed2();
delayMs(1000);
}
delayMs(400);
gps_dissableMessage($GPGSA);
delayMs(400);
gps_dissableMessage($GPGSV);
delayMs(400);
gps_dissableMessage($GPRMC);
delayMs(400);
gps_dissableMessage($GPVTG);
delayMs(400);
gps_setRate($GPGGA, 1);
//Wait for enough satellites
while(fix[0] == '0' && errorTimer > 0 ){
if(gpsDataUpdated){
errorTimer--;
gpsDataUpdated = false;
messageIterator = 0;
// Make sure that you are comparing GPGGA message
// $PSRF and $GPVTG messages are possable at the startup
if(strncmp(gpsReceiveString,"$GPGGA", 6) == 0){
ptr = &gpsReceiveString[7]; //This value could change whether the $ is used or not
for(; messageIterator < 7; messageIterator ++){
tmpPtr = ptrToNMEA[messageIterator];
while(*ptr++ != ','){
*ptrToNMEA[messageIterator]++ = *(ptr-1);
}
ptrToNMEA[messageIterator] = tmpPtr;
}
}
SEND_SERIAL_MSG("Waiting for sats...\r\n");
blinkRedLed4();
}
}
//if not enough satellites are found, turn off gps
if(!errorTimer){
SEND_SERIAL_MSG("GPS timeout...\r\n");
hibernateGps();
state &= 0xFD;
}
else{
//if satellites found -> turn on $GPVTG to monitor velocity
/* delayMs(400);
gps_setRate($GPVTG,1);
delayMs(400);
blinkRedLed4();
gps_dissableMessage($GPGGA);*/
SEND_SERIAL_MSG("SATs found...\r\n");
}
}
//SD
if((state&0x04) >> 2){
errorTimer = 10;
while(!initializeSD() && errorTimer-- > 1){
delayMs(300);
blinkRedLed5();
}
if(!errorTimer){
//If sd card doesnt turn on, dont log anything to it
state &= 0xFB;
}
else{
findDetailsOfFAT(sdBuffer,&fatSect,&mstrDir, &fsInfoSector);
findDetailsOfFile("LOGFILE",sdBuffer,mstrDir,&filesize,&cluster,§or);
SEND_SERIAL_BYTE(errorTimer+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":ERROR_TIMER\r\n");
SEND_SERIAL_BYTE(filesize+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":FILESIZE\r\n");
SEND_SERIAL_BYTE(sector+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":SECTOR\r\n");
SEND_SERIAL_BYTE(cluster+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":CLUSTER\r\n");
SEND_SERIAL_BYTE((fatSect%10000)/1000+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((fatSect%1000)/100+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((fatSect%100)/10+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((fatSect%10)+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":FAT_SECT\r\n");
SEND_SERIAL_BYTE((mstrDir%100000)/10000+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((mstrDir%10000)/1000+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((mstrDir%1000)/100+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((mstrDir%100)/10+ASCII_DIGIT_OFFSET);
SEND_SERIAL_BYTE((mstrDir%10)+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":MSTR_DIR\r\n");
SEND_SERIAL_BYTE(fsInfoSector+ASCII_DIGIT_OFFSET);
SEND_SERIAL_MSG(":FS_INFO_SECT\r\n");
/*
* Program halts during this function
*/
findLastClusterOfFile("LOGFILE",sdBuffer, &cluster,fatSect,mstrDir);
if(filesize < 512)
filesize = 512;
appendTextToTheSD("\nNEW LOG", '\n', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
}
}
moduleStatus = MODULE_IDLE_READY;
turnOnGreenLeds(state);
SEND_SERIAL_MSG("NODE READY!!!\r\n");
while(moduleStatus == MODULE_IDLE_READY){
blinkGreenLeds(state);
redStartup(DELAY);
}
while(1){
switch(moduleStatus){
case MODULE_RUNNING:
delayMs(600);
//Transmit acc data
if(state&0x01){
getX(&x,&x_low,&x_high);
itoa(x, messurementString);
transmitString[0] = '0';
transmitString[1] = ' ';
strcpy(&transmitString[2],&messurementString[0]);
transmitRequest(0x0013A200, 0x40E3E13C, TRANSOPT_DISACK, transmitString);
//if sd card is active, log data to it
if((state&0x04) >> 2){
itoa(globalCounter,timerString);
appendTextToTheSD(timerString, '\t', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
appendTextToTheSD(transmitString, '\t', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
xorGreenLed(2);
}
xorGreenLed(0);
}
delayMs(600);
//Transmit gps data
if((state&0x02) >> 1){
if(strncmp(gpsReceiveString,"$GPVTG" , 6) == 0){
gps_parseGPVTG(gpsReceiveString,velocity);
}
else{
strcpy(velocity,"999.9");
}
SEND_SERIAL_MSG(gpsReceiveString);
SEND_SERIAL_MSG(":GPS\r\n");
transmitString[0] = '1';
transmitString[1] = ' ';
strcpy(&transmitString[2],velocity);
transmitRequest(0x0013A200, 0x40E3E13C, TRANSOPT_DISACK, transmitString);
if((state&0x04) >> 2){
appendTextToTheSD(transmitString, '\n', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
xorGreenLed(2);
}
SEND_SERIAL_MSG(transmitString);
SEND_SERIAL_MSG(" MESSAGE_SENT\r\n");
xorGreenLed(1);
}
break;
case MODULE_IDLE_READY:
if(turnOffTimer > 0){
turnOffTimer--;
blinkGreenLeds(state);
redStartup(DELAY);
}
else{
blinkGreenLeds(state);
ADC_value = (ADC_GetConversionValue(ADC1));
ADC_value = (ADC_value * 330) / 128;
batteryIndicationStartup(ADC_value);
}
break;
case MODULE_TURNING_OFF:
if((state&0x04) >> 2){
goToIdleState();
}
if((state&0x02) >> 1){
hibernateGps();
}
state = 0;
turnOffTimer = 0;
moduleStatus = MODULE_IDLE_READY;
break;
}
}
int main(void){
/*
* Local variables for XBEE
*/
char xbeeTransmitString[32];
/*
* Local variables for Accelerometer
*/
int16_t z = 0;
int16_t z_low = 0;
int16_t z_high = 0;
int16_t x = 0;
int16_t x_low = 0;
int16_t x_high = 0;
char messurementString[6];
/*
* Local variables for GPS
*/
char* ptr;
char* tmpPtr;
char ts[11] = " ";
char lat[11] = " ";
char latd[2]= " ";
char lon[11]= " ";
char lond[2]= " ";
char fix[2]= "0";
char sats[3]= " ";
char velocity[6] = " ";
char *ptrToNMEA[] = {ts, lat, latd, lon, lond, fix, sats};
uint8_t messageIterator;
/*
* Local variables for SD card
*/
uint8_t sdBuffer[512];
uint16_t sdBufferCurrentSymbol = 0;
uint8_t sector = 0;
uint32_t mstrDir = 0;
uint32_t cluster = 0;
uint32_t filesize = 0;
uint16_t fatSect, fsInfoSector;
/*
* ADC, Timer and other loco's
*/
uint16_t ADC_value;
uint8_t errorTimer = 20;
char timerString[16] = " ";
/*
* Initializing gpio's
*/
initializeUserButton();
initializeEveryRedLed();
initializeEveryGreenLed();
setupGpsGpio();
adcPinConfig();
initializeXbeeATTnPin();
/*
* Initializing peripherals
*/
Usart2_Init(BAUD_4800);
Usart1_Init(BAUD_9600);
ConfigureUsart2Interrupt();
//used for delayMs()
//not meant for using in interrupt routines
initialiseSysTick();
//SPI1 for XBEE and SD card
InitialiseSPI1_GPIO();
InitialiseSPI1();
//SPI2 used for accelerometer
InitialiseSPI2_GPIO();
InitialiseSPI2();
//ADC is used for battery monitoring
adcConfig();
//Timer counter with i=100ms
Initialize_timer();
Timer_interrupt_enable();
/*
* Initializing XBEE
*/
XBEE_CS_LOW();
while(errorTimer--){
SPI1_TransRecieve(0x00);
}
XBEE_CS_HIGH();
delayMs(1000);
errorTimer = 20;
XBEE_CS_LOW();
while(errorTimer--){
SPI1_TransRecieve(0x00);
}
XBEE_CS_HIGH();
/*
* Start module only when button is pressed
* Meanwhile, check the battery voltage
*/
while(moduleStatus == MODULE_NOT_RUNNING){
ADC_value = (ADC_GetConversionValue(ADC1));
ADC_value = (ADC_value * 330) / 128;
batteryIndicationStartup(ADC_value);
blinkGreenLeds(7);
//if node is initialized through another XBEE
if(xbeeDataUpdated){
if(xbeeReceiveBuffer[XBEE_DATA_MODE_OFFSET] == 'C'){
if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'G'){
state = 0x07;
delayMs(100);
strcpy(&xbeeTransmitString[0],"C O#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
xbeeDataUpdated = false;
break;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'H'){
//Accelerometer
state |=0x01;
delayMs(100);
strcpy(&xbeeTransmitString[0],"C O#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
xbeeDataUpdated = false;
break;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'I'){
//GPS
state |=0x02;
delayMs(100);
strcpy(&xbeeTransmitString[0],"C O#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
xbeeDataUpdated = false;
break;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'J'){
//SD
state &=0x04;
delayMs(100);
strcpy(&xbeeTransmitString[0],"C O#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
xbeeDataUpdated = false;
break;
}
}
}
}
/*
* LED blinking that indicates need to...
* choose the method for integrity detection
*/
turnOnGreenLeds(state);
for(errorTimer = 0 ; errorTimer < 8 ; errorTimer++){
redStartup(REAL_REAL_SLOW_DELAY);
turnOnGreenLeds(state);
if(xbeeDataUpdated){
if(xbeeReceiveBuffer[XBEE_DATA_MODE_OFFSET] == 'C'){
if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'G'){
state = 0x07;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'H'){
//Accelerometer
state |=0x01;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'I'){
//GPS
state |=0x02;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'J'){
//SD
state |=0x04;
}
}
xbeeDataUpdated = false;
delayMs(100);
strcpy(&xbeeTransmitString[0],"C O#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
}
}
moduleStatus = MODULE_APPLYING_PARAMS;
/*
* Initialize Accelerometer if chosen
*/
if(state&0x01){
//SPI2 for ADXL
initializeADXL362();
blinkRedLed1();
while(!return_ADXL_ready()){
//wait time for caps to discharge
delayMs(2000);
initializeADXL362();
delayMs(1000);
blinkRedLed1();
}
}
/*
* Initialize GPS if chosen
*/
//GPS module has 40 seconds to find enough satellites
errorTimer = 50;
if((state&0x02) >> 1){
turnGpsOn();
while(!GPIO_ReadInputDataBit(GPS_PORTC,WAKEUP_PIN) && errorTimer > 0){
turnGpsOn();
delayMs(1000);
blinkRedLed2();
errorTimer--;
SEND_SERIAL_MSG("Pulling GPS pin...\r\n");
}
delayMs(GPS_MSG_INIT_DELAY);
gps_dissableMessage($GPGSA);
delayMs(GPS_MSG_INIT_DELAY);
gps_dissableMessage($GPGSV);
delayMs(GPS_MSG_INIT_DELAY);
gps_dissableMessage($GPRMC);
delayMs(GPS_MSG_INIT_DELAY);
gps_dissableMessage($GPVTG);
delayMs(GPS_MSG_INIT_DELAY);
gps_setRate($GPGGA, 1);
while(fix[0] == '0' && errorTimer > 0 ){
if(gpsDataUpdated){
errorTimer--;
gpsDataUpdated = false;
messageIterator = 0;
// Make sure that you are comparing GPGGA message
// $PSRF and $GPVTG messages are possable at the startup
if(strncmp(gpsReceiveString,"$GPGGA", 6) == 0){
ptr = &gpsReceiveString[7]; //This value could change whether the $ is used or not
for(; messageIterator < 7; messageIterator ++){
tmpPtr = ptrToNMEA[messageIterator];
while(*ptr++ != ','){
*ptrToNMEA[messageIterator]++ = *(ptr-1);
}
ptrToNMEA[messageIterator] = tmpPtr;
}
}
SEND_SERIAL_MSG("Waiting for sats...\r\n");
blinkRedLed2();
}
}
//if not enough satellites are found, turn off gps
if(!errorTimer){
SEND_SERIAL_MSG("GPS timeout...\r\n");
hibernateGps();
state &= 0xFD;
}
else{
//if satellites found -> turn on $GPVTG to monitor velocity
delayMs(400);
gps_setRate($GPVTG,1);
delayMs(400);
blinkRedLed2();
gps_dissableMessage($GPGGA);
SEND_SERIAL_MSG("SATs found...\r\n");
}
}
/*
* Initialize SD if chosen
*/
if((state&0x04) >> 2){
errorTimer = 10;
while(!initializeSD() && errorTimer-- > 1){
delayMs(300);
blinkRedLed3();
}
if(!errorTimer){
//If sd card doesnt turn on, dont log anything to it
state &= 0xFB;
}
else{
findDetailsOfFAT(sdBuffer,&fatSect,&mstrDir, &fsInfoSector);
findDetailsOfFile("LOGFILE",sdBuffer,mstrDir,&filesize,&cluster,§or);
/*
* Program halts during this function
*/
findLastClusterOfFile("LOGFILE",sdBuffer, &cluster,fatSect,mstrDir);
if(filesize < 512)
filesize = 512;
appendTextToTheSD("\nNEW LOG", '\n', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
}
}
/*
* Send request to coordinator for time synchronization
*/
transmitRequest(COORDINATOR_ADDR_HIGH,COORDINATOR_ADDR_LOW,TRANSOPT_DISACK, 0x00,"C 0");
/*
* Send response to serial node about readiness
*/
delayMs(100);
strcpy(&xbeeTransmitString[0],"C N#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
/*
* Wait for input to start communication
*/
moduleStatus = MODULE_IDLE_READY;
turnOnGreenLeds(state);
while(moduleStatus == MODULE_IDLE_READY){
/*
* While indicating need for input
* Check if coordinator has sent ACK message
*/
if(xbeeDataUpdated){
if(xbeeReceiveBuffer[XBEE_DATA_MODE_OFFSET] == 'C'){
if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == '1'){
globalCounter = atoi(&xbeeReceiveBuffer[16]) + TIMER_SYNC_DELAY;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'K'){
moduleStatus = MODULE_RUNNING;
}
}
xbeeDataUpdated = false;
}
blinkGreenLeds(state);
redStartup(DELAY);
}
while(1){
/*
* Check in what state module is running
*/
switch(moduleStatus){
case MODULE_RUNNING:
delayMs(800);
/*
* Send Accelerometer data if chosen
*/
if(state&0x01){
getZ(&z,&z_low,&z_high);
itoa(z, messurementString);
xbeeTransmitString[0] = 'M';
xbeeTransmitString[1] = ' ';
xbeeTransmitString[2] = '0';
xbeeTransmitString[3] = ' ';
strcpy(&xbeeTransmitString[4],&messurementString[0]);
transmitRequest(0x0013A200, 0x40E3E13C, TRANSOPT_DISACK, 0x00, xbeeTransmitString);
/*
* Log data to SD card if chosen
*/
if((state&0x04) >> 2){
itoa(globalCounter,timerString);
appendTextToTheSD(timerString, '\t', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
appendTextToTheSD(xbeeTransmitString, '\t', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
xorGreenLed(2);
}
xorGreenLed(0);
}
delayMs(800);
/*
* Send GPS data if chosen
*/
if((state&0x02) >> 1){
if(strncmp(gpsReceiveString,"$GPVTG" , 6) == 0){
gps_parseGPVTG(gpsReceiveString,velocity);
}
else{
strcpy(velocity,"999.9");
}
xbeeTransmitString[0] = 'M';
xbeeTransmitString[1] = ' ';
xbeeTransmitString[2] = '1';
xbeeTransmitString[3] = ' ';
strcpy(&xbeeTransmitString[4],velocity);
transmitRequest(0x0013A200, 0x40E3E13C, TRANSOPT_DISACK, 0x00, xbeeTransmitString);
/*
* Log data to SD card if chosen
*/
if((state&0x04) >> 2){
appendTextToTheSD(xbeeTransmitString, '\n', &sdBufferCurrentSymbol, sdBuffer, "LOGFILE", &filesize, mstrDir, fatSect, &cluster, §or);
xorGreenLed(2);
}
xorGreenLed(1);
}
break;
case MODULE_IDLE_READY:
if(turnOffTimer > 0){
turnOffTimer--;
blinkGreenLeds(state);
redStartup(DELAY);
}
else{
blinkGreenLeds(state);
ADC_value = (ADC_GetConversionValue(ADC1));
ADC_value = (ADC_value * 330) / 128;
batteryIndicationStartup(ADC_value);
}
break;
case MODULE_TURNING_OFF:
if((state&0x04) >> 2){
goToIdleState();
}
if((state&0x02) >> 1){
hibernateGps();
}
state = 0;
turnOffTimer = 0;
moduleStatus = MODULE_IDLE_READY;
break;
}
if(xbeeDataUpdated){
if(xbeeReceiveBuffer[XBEE_DATA_MODE_OFFSET] == 'C'){
if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'K'){
moduleStatus = MODULE_RUNNING;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'L'){
moduleStatus = MODULE_IDLE_READY;
}
else if(xbeeReceiveBuffer[XBEE_DATA_TYPE_OFFSET] == 'M'){
moduleStatus = MODULE_TURNING_OFF;
}
}
xbeeDataUpdated = false;
delayMs(100);
strcpy(&xbeeTransmitString[0],"C O#");
xbeeTransmitString[4] = state + ASCII_DIGIT_OFFSET;
xbeeTransmitString[5] = '\0';
transmitRequest(SERIAL_ADDR_HIGH,SERIAL_ADDR_LOW,TRANSOPT_DISACK, 0x00,xbeeTransmitString);
}
}
int main(void){
int c;
int b;
int counterNewPassword = 0;
int counterInputPassword = 0;
int counterOldPassword = 0;
initPins();
initCounterValues();
initTimers();
initSerial();
while (1) {
c = getchar();
if (isdigit(c)) {
previousChar = c;
if (c == '6') {
if (strcmp(password, inputPassword) == 0) {
allowEntry();
}
else {
prohibitEntry();
}
delayMS(counterDelay);
disableLedsAndRelay();
memset(inputPassword, 0, 9);
memset(oldPassword, 0, 9);
previousChar = '~';
counterInputPassword = 0;
counterOldPassword = 0;
}
else if (c == '7') {
if (strlen(newPassword) > 0 & strcmp(oldPassword, password) == 0) {
memset(password, 0, 9);
strcpy(password, newPassword);
memset(newPassword, 0, 9);
previousChar = '~';
counterNewPassword = 0;
blinkGreenLeds();
}
else {
blinkRedLeds();
}
memset(oldPassword, 0, 9);
counterOldPassword = 0;
}
else {
memset(inputPassword, 0, 9);
memset(newPassword, 0, 9);
counterNewPassword = 0;
counterInputPassword = 0;
}
}
else if (c >= 'A' & c <= '|') {
switch (previousChar) {
case '1':
if (c >= 'A' & c <= 'J' & counterInputPassword < 8) {
//unosimo password u string inputPassword
inputPassword[counterInputPassword] = c;
counterInputPassword++;
}
if (c >= 'a' & c <= 'j' & counterInputPassword < 8) {
newPassword[counterNewPassword] = c - 32;
counterNewPassword++;
}
break;
case '2':
if (islower(c)) {
if (c <= 'm') {
//dozvoli paljenje ledica
ledStatus = 1;
}
else {
//blokiraj paljene ledica
ledStatus = 0;
}
}
else {
if (c <= 'M') {
//dozvoli koristenje senzora
sensorStatus = 1;
blinkGreenLeds();
}
else {
//blokiraj koristenje senzora
sensorStatus = 0;
blinkGreenLeds();
}
}
break;
case '3':
if (islower(c)) {
if (c <= 'x') {
//radno vrijeme u satima, npr. 1,2,3...
workingHours = c - 'a';
}
}
else {
if (c <= 'X') {
//sati koji ovise o trenutnoj vrijednosti brojaca; droid aplikacija ih racuna te salje ovdje
currentCounterHours = c - 'A';
}
}
break;
case '4':
//trenutne minute
counterMinutes = c - 'A';
break;
case '5':
if (islower(c)) {
if (c <= 'm') {
for (b = 0; b < 3; b++) {
blinkGreenLeds();
}
}
else {
for (b = 0; b < 3; b++) {
blinkRedLeds();
}
}
}
else {
if (c >= 'D' & c <= 'K') {
//kasnjenje ulaza u milisekundama, npr.1000,2000....10000
counterDelay = 1000 * (c - 'A');
}
}
break;
case '8':
if (c >= 'A' & c <= 'J' & counterOldPassword < 8) {
//unosimo password u string oldPassword
oldPassword[counterOldPassword] = c;
counterOldPassword++;
}
break;
;
default:
disableLedsAndRelay();
break;
}
}
if (sensorStatus) {
if (IO0PIN & (1 << sensorPin)) {
if (currentCounterHours < workingHours) {
allowEntry();
}
else {
prohibitEntry();
}
}
else {
disableLedsAndRelay();
}
}
else {
disableLedsAndRelay();
}
}
}
