void USER_FUNC changeSwitchStatus(SWITCH_PIN_FLAG switchFlag)
{
if(getSwitchStatus(switchFlag) == SWITCH_OPEN)
{
setSwitchStatus(SWITCH_CLOSE, switchFlag);
}
else
{
setSwitchStatus(SWITCH_OPEN, switchFlag);
}
}
bool CloudWatcherController::getAllData(CloudWatcherData *cwd) {
int skyTemperature[NUMBER_OF_READS];
int sensorTemperature[NUMBER_OF_READS];
int rainFrequency[NUMBER_OF_READS];
int internalSupplyVoltage[NUMBER_OF_READS];
int ambientTemperature[NUMBER_OF_READS];
int ldrValue[NUMBER_OF_READS];
int rainSensorTemperature[NUMBER_OF_READS];
int check = 0;
totalReadings++;
timeval begin;
gettimeofday(&begin, NULL);
for (int i = 0 ; i < NUMBER_OF_READS ; i++) {
check = getIRSkyTemperature(&skyTemperature[i]);
if (!check) {
return false;
}
check = getIRSensorTemperature(&sensorTemperature[i]);
if (!check) {
return false;
}
check = getRainFrequency(&rainFrequency[i]);
if (!check) {
return false;
}
check = getValues(&internalSupplyVoltage[i], &ambientTemperature[i], &ldrValue[i], &rainSensorTemperature[i]);
if (!check) {
return false;
}
}
timeval end;
gettimeofday(&end, NULL);
float rc = float(end.tv_sec - begin.tv_sec) + float(end.tv_usec - begin.tv_usec) / 1000000.0;
cwd->readCycle = rc;
cwd->sky = aggregateInts(skyTemperature, NUMBER_OF_READS);
cwd->sensor = aggregateInts(sensorTemperature, NUMBER_OF_READS);
cwd->rain = aggregateInts(rainFrequency, NUMBER_OF_READS);
cwd->supply = aggregateInts(internalSupplyVoltage, NUMBER_OF_READS);
cwd->ambient = aggregateInts(ambientTemperature, NUMBER_OF_READS);
cwd->ldr = aggregateInts(ldrValue, NUMBER_OF_READS);
cwd->rainTemperature = aggregateInts(rainSensorTemperature, NUMBER_OF_READS);
cwd->totalReadings = totalReadings;
check = getIRErrors(&cwd->firstByteErrors, &cwd->commandByteErrors, &cwd->secondByteErrors, &cwd->pecByteErrors);
if (!check) {
return false;
}
cwd->internalErrors = cwd->firstByteErrors + cwd->commandByteErrors + cwd-> secondByteErrors + cwd->pecByteErrors;
check = getPWMDutyCycle(&cwd->rainHeater);
if (!check) {
return false;
}
check = getSwitchStatus(&cwd->switchStatus);
if (!check) {
return false;
}
return true;
}
void USER_FUNC setSwitchStatus(SWITCH_STATUS action, SWITCH_PIN_FLAG switchFlag)
{
SWITCH_STATUS switchStatus = getSwitchStatus(switchFlag);
#if !defined(LIGHT_CHENGE_SUPPORT) && !defined(CHANGE_BRIGHTNESS_SUPPORT)
S32 fid;
fid = lum_getSwitchFlag(switchFlag);
#endif
if(SWITCH_OPEN == action)
{
#ifdef LIGHT_CHENGE_SUPPORT
lum_lightChangeLevel(MAX_LIGHT_LEVEL);
if(g_lightDimStatus != GET_AC_FREQ)
{
hfgpio_fenable_interrupt(HFGPIO_F_ZERO_DETECTER);
}
#elif defined(CHANGE_BRIGHTNESS_SUPPORT)
lum_setLedLightStatus(LIGHT_LED_OPEN);
#else
hfgpio_fset_out_high(fid);
#endif
#ifdef SPECIAL_RELAY_SUPPORT
hfgpio_fset_out_high(HFGPIO_F_RELAY_2);
hfgpio_fset_out_low(HFGPIO_F_RELAY_1);
startSpecialRelayTimer();
#endif
#ifdef DEVICE_RELAY_LED_SUPPORT
hfgpio_fset_out_low(HFGPIO_F_RELAY_LED);
#endif
}
else
{
#ifdef LIGHT_CHENGE_SUPPORT
lum_lightChangeLevel(0);
if(g_lightDimStatus != GET_AC_FREQ)
{
hfgpio_fdisable_interrupt(HFGPIO_F_ZERO_DETECTER);
}
#elif defined(CHANGE_BRIGHTNESS_SUPPORT)
lum_setLedLightStatus(LIGHT_LED_CLOSE);
#else
hfgpio_fset_out_low(fid);
#endif
#ifdef SPECIAL_RELAY_SUPPORT
hfgpio_fset_out_low(HFGPIO_F_RELAY_2);
hfgpio_fset_out_high(HFGPIO_F_RELAY_1);
startSpecialRelayTimer();
#endif
#ifdef DEVICE_RELAY_LED_SUPPORT
hfgpio_fset_out_high(HFGPIO_F_RELAY_LED);
#endif
}
if(action != switchStatus)
{
GPIO_CHANGE_REPORT data;
data.action = action;
data.pinFlag = switchFlag;
if(!lum_bEnterFactoryTest())
{
insertLocalMsgToList(MSG_LOCAL_EVENT, (U8*)(&data), sizeof(GPIO_CHANGE_REPORT), MSG_CMD_REPORT_GPIO_CHANGE);
}
}
}
int main (int argc, char *argv[])
{
char msg[32] = "\n\rHallo Welt!\n\r";
char msg_key1[32] = " Pushbutton 1 ";
char msg_key2[32] = " Pushbutton 2 ";
char msg_key3[32] = " Pushbutton 3 ";
char msg_pos1[32] = "\r";
char msg_tmp[32] = "";
UART_Cfg cfg;
// Initialize peripheral components ...
// UART
cfg.fclk = 50000000;
cfg.baud = UART_CFG_BAUD_115200;
cfg.frame.msg_len = UART_CFG_MSG_LEN_8;
cfg.frame.parity = UART_CFG_PARITY_EVEN;
cfg.frame.stop_bits = UART_CFG_STOP_BITS_1;
UART_init (cfg);
// 7-Segment
dis7seg_initHandle(&display_handle, DISP7SEG_BADDR, 8);
dis7seg_displayHexUInt32(&display_handle, 0, 0x00000042);
uint32_t keys, keys_old, led_port;
uint8_t i;
keys_old = 0;
led_port = 0;
UART_write(0, msg, strlen(msg));
//register interrupt to line 2
REGISTER_INTERRUPT(isr, 2);
// unmask interrupt line 2
UMASKI(2);
// globally enable interrupts
SEI();
// timer 80000 ticks = 1ms, 80 ticks = 1s
config_timer(50000000, 0);
timer_initHandle(&timer_handle, TIMER_BADDR);
start_timer();
while(1) {
// pushbuttons
keys = getButtonStatus();
if(keys != keys_old) {
if(keys & (1<<BUTTON3)) {
UART_write(0, msg_key3, strlen(msg_key3));
}
if(keys & (1<<BUTTON2)) {
UART_write(0, msg_key2, strlen(msg_key2));
}
if(keys & (1<<BUTTON1)) {
UART_write(0, msg_key1, strlen(msg_key1));
}
}
keys_old = keys;
// switches & leds
led_port = 0;
for(i=0; i<18; i++)
{
if (getSwitchStatus(i) == SW_ON) {
led_port |= (SW_ON<<i);
//(void) sprintf(msg_tmp, "KEY %i ON", i);
//UART_write(0, msg_tmp, strlen(msg_tmp));
}
}
UART_write(0, msg_pos1, strlen(msg_pos1));
// leds
//setLeds(led_port);
}
return 0;
}
