bool DS1374RTC::readAlarm(tmElements_t &tm)
{
uint8_t sec;
timeDate_t timeDate;
Wire.beginTransmission(DS1374_CTRL_ID);
#if ARDUINO >= 100
Wire.write((uint8_t)0x04); // Set to alarm register
#else
Wire.send(0x04); // Set to alarm register
#endif
if (Wire.endTransmission() != 0) {
exists = false;
return false;
}
exists = true;
// request the 4 TOD Counts
Wire.requestFrom(DS1374_CTRL_ID, 3);// TODO replace magic number here
if (Wire.available() < 3) return false;
#if ARDUINO >= 100
timeDate.bytes[0] = Wire.read();
timeDate.bytes[1] = Wire.read();
timeDate.bytes[2] = Wire.read();
#else
timeDate.bytes[0] = Wire.receive();
timeDate.bytes[1] = Wire.receive();
timeDate.bytes[2] = Wire.receive();
#endif
breakTime(timeDate.time, tm);
//if (sec & 0x80) return false; // clock is halted TODO - look at an equivalent here
return true;
}
// FLRDDE626>APRS,qAS,EGHL:/074548h5111.32N/00102.04W'086/007/A=000607 id0ADDE626 -019fpm +0.0rot 5.5dB 3e -4.3kHz
void WiFi_forward_to_cloud() {
tmElements_t tm;
char str_lat[8];
char str_lon[8];
breakTime(fo.timestamp, tm);
dtostrf_workaround(take_minutes(fo.latitude), 5, 2, str_lat);
dtostrf_workaround(take_minutes(fo.longtitude), 5, 2, str_lon);
//Serial.print(fo.latitude); Serial.print(" "); Serial.println(fo.longtitude);
snprintf(UDPpacketBuffer, sizeof(UDPpacketBuffer), \
"FLR%X>APRS,qAS,%s:/%02d%02d%02dh%02d%s%s/%03d%s%s/A=%05u TS:%d RAW:%s", \
fo.addr, STATION_ID, tm.Hour, tm.Minute, tm.Second, \
abs(take_degrees(fo.latitude)), str_lat, (fo.latitude < 0 ? "S" : "N"), \
abs(take_degrees(fo.longtitude)), str_lon, (fo.longtitude < 0 ? "W" : "E"), \
fo.altitude, fo.timestamp, fo.raw.c_str() );
#ifdef SERIAL_VERBOSE
Serial.println(UDPpacketBuffer);
#endif
client.println(UDPpacketBuffer);
}
/*
* setTime
*/
bool DS1339::setTime(time_t t) {
byte buffer[7];
tmElements_t tm;
breakTime(t, tm);
buffer[0] = dec2bcd(tm.Second);
buffer[1] = dec2bcd(tm.Minute);
buffer[2] = dec2bcd(tm.Hour);
buffer[3] = dec2bcd(tm.Wday);
buffer[4] = dec2bcd(tm.Day);
buffer[5] = dec2bcd(tm.Month);
buffer[6] = dec2bcd(tmYearToY2k(tm.Year));
buffer[0] |= DS1339_CLOCKHALT; // stop the clock
if(writeBytes(buffer, 0, 7) !=7) {
return false;
}
if(isRunning()) {
buffer[0] &= DS1339_SEC_MASK;
if(writeBytes(buffer, 0, 7) != 7) {
return false;
}
}
return true;
}
void refreshCache( time_t t){
if( t != cacheTime)
{
breakTime(t, tm);
cacheTime = t;
}
}
void MCP7940RTC::setAlarm0(time_t t)
{
tmElements_t tm;
breakTime(t, tm);
Wire.beginTransmission(MCP7940_CTRL_ID);
#if ARDUINO >= 100
Wire.write((uint8_t)0x0a);
Wire.write((uint8_t)dec2bcd(tm.Second) & 0x7f); // Seconds
Wire.write((uint8_t)dec2bcd(tm.Minute) & 0x7f); // Minutes
Wire.write((uint8_t)dec2bcd(tm.Hour) & 0x3f); // Hour
Wire.write((uint8_t)(dec2bcd(tm.Wday) | 0x70) & 0x97);// wDay, trigger on minutes matching
Wire.write((uint8_t)dec2bcd(tm.Day) & 0x3f); // Day
Wire.write((uint8_t)dec2bcd(tm.Month) & 0x1f); // Hour
#else
Wire.send(0x0a);
Wire.send(dec2bcd(tm.Second & 0x7f)); // Seconds
Wire.send(dec2bcd(tm.Minute & 0x7f)); // Minutes
Wire.send(dec2bcd(tm.Hour & 0x3f)); // Hour
Wire.send((dec2bcd(tm.Wday) | 0x70) & 0xf7); // wDay
Wire.send(dec2bcd(tm.Day) & 0x3f); // Day
Wire.send(dec2bcd(tm.Month) & 0x1f); // Hour
#endif
Wire.endTransmission();
// enable alarm 0
Wire.beginTransmission(MCP7940_CTRL_ID);
#if ARDUINO >= 100
Wire.write((uint8_t)0x07);
Wire.write((uint8_t)0x10);
#else
Wire.send(0x07);
Wire.send(0x10);
#endif
Wire.endTransmission();
}
// --------------------------------------------------------
// Set the RTC to the given time_t value.
// Returns the bus status (zero if successful).
uint8_t DS1302RTC::set(time_t t)
{
tmElements_t tm;
breakTime(t, tm);
return ( write(tm) );
}
void godob::printdate(void)
{
char ch;
// Warning!
if(timeStatus() != timeSet) {
LCD->setCursor(0, 1);
LCD->print(F("RTC ERROR: SYNC!"));
}
else{
tmElements_t tm;
breakTime(now(), tm);
// Display abbreviated Day-of-Week in the lower left corner
LCD->setCursor(0, 1);
if(!Connected){
ch = '_';
}
else if(reqPending){
ch = '+';
}
else{
ch = '*';
}
LCD->write(ch);
LCD->write(' ');
LCD->print(dayShortStr(tm.Wday));
LCD->print(" ");
print2digits(tm.Day);
LCD->print("/");
print2digits(tm.Month);
LCD->print("/");
LCD->print(tm.Year+1970);
}
}
/*----------------------------------------------------------------------*
* Set the RTC to the given time_t value. *
* Returns the I2C status (zero if successful). *
*----------------------------------------------------------------------*/
byte DS3232RTC::set(time_t t)
{
tmElements_t tm;
breakTime(t, tm);
return ( write(tm) );
}
bool DS1307RTC::set(time_t t) {
tmElements_t tm;
breakTime(t, tm);
tm.Second |= 0x80; // stop the clock
write(tm);
tm.Second &= 0x7f; // start the clock
write(tm);
}
bool Alarm::isTriggered(time_t currentTime)
{
if (isEnabled())
{
tmElements_t hms_alarm;
tmElements_t hms_time;
breakTime(_alarmTime, hms_alarm);
breakTime(currentTime, hms_time);
if (hms_alarm.Minute == hms_time.Minute &&
hms_alarm.Hour == hms_time.Hour)
{
return true;
}
}
return false;
}
void DS1307RTC::set(time_t t)
{
tmElements_t tm;
breakTime(t, tm);
//tm.Second |= 0x80; // stop the clock ray: removed this step
//write(tm);
//tm.Second &= 0x7f; // start the clock ray: moved to write function
write(tm);
}
// Funtion: Set current time
bool SensorDs1307::setData(time_t t)
{
tmElements_t tm;
breakTime(t, tm);
tm.Second |= 0x80; // stop the clock
write(tm);
tm.Second &= 0x7f; // start the clock
write(tm);
}
char *convert_date(char *twitter_date, int utc_offset)
{
// Twitter date format: Sat, 12 Jan 2012 23:34:45 +0000
// 0123456789012345678901234567890
// 0 1 2 3
// Format in other parts of API: Sat Jan 12 23:34:45 +0000 2012
// Apparently not in search API, however.
// Extract year.
unsigned int year = strtol(twitter_date + 12, NULL, 10);
// Extract abbreviated name of month.
char *month_name = (char *) calloc(3 + 1, sizeof(char));
memcpy(month_name, twitter_date + 8, 3 * sizeof(char));
// Calculate month's number.
uint8_t month = 0;
while (strcmp(month_name, month_names[month]) != 0 && month < 11) {
++month;
}
++month; // Put date within interval 1-12 instead of 0-11.
free(month_name);
// Convert to time structure.
TimeElements utc_date;
utc_date.Year = year - 1970; // Offset from 1970 as required by TimeElements.
utc_date.Month = month;
utc_date.Day = strtol(twitter_date + 5, NULL, 10); // Extract day.
utc_date.Hour = strtol(twitter_date + 17, NULL, 10); // Extract hour.
utc_date.Minute = strtol(twitter_date + 20, NULL, 10); // Extract minute.
utc_date.Second = 0;
// Convert to timestamp and apply UTC offset.
time_t utc_time = makeTime(utc_date);
time_t other_time = utc_time + utc_offset;
// Convert back into time structure.
TimeElements other_date;
breakTime(other_time, other_date);
// Length of minimal format string:
// "- d/m hh:mm"
// 12345678901
uint8_t result_length = 11;
// Consider days and months with two digits.
if (other_date.Day >= 10) { ++result_length; }
if (other_date.Month >= 10) { ++result_length; }
// Create the final string.
char *result = (char *) calloc(result_length + 1, sizeof(char));
sprintf(result, DATE_FORMAT, other_date.Day, other_date.Month, other_date.Hour, other_date.Minute);
return result;
}
void godob::printtime(void)
{
tmElements_t tm;
breakTime(now(), tm);
LCD->setCursor(1, 0);
print2digits(tm.Hour);
LCD->print(":");
print2digits(tm.Minute);
LCD->print(":");
print2digits(tm.Second);
LCD->print(" GMT+2");
}
bool DS1307RTC::set(time_t t)
{
#ifdef __STM32F1__
DS1307RTC_INIT_WIRE();
#endif
tmElements_t tm;
breakTime(t, tm);
tm.Second |= 0x80; // stop the clock
write(tm);
tm.Second &= 0x7f; // start the clock
write(tm);
}
bool DS1374RTC::setTime(time_t t)
{
tmElements_t tm;
// TODO - don't need a break time here could setup another write routine
// that uses the time_t value
breakTime(t, tm);
// tm.Second |= 0x80; // stop the clock
setTime(tm);
// tm.Second &= 0x7f; // start the clock
// write(tm);
}
void setRtcAlarm(byte hour, byte minute)
{
// copy time_t object, modify some fields,
// inherit month, day, dayOfWeek and Year.
time_t justNow = now();
tmElements_t alarmSetting;
breakTime(justNow, alarmSetting);
alarmSetting.Hour = hour;
alarmSetting.Minute = minute;
alarmSetting.Second = 0;
wkAlarm.setAlarmTime(makeTime(alarmSetting));
printAlarmStatus();
}
Alarm::Alarm()
{
// fill in structure with current time
time_t n = now();
tmElements_t alarmSetting;
breakTime(n, alarmSetting);
// set alarm value to 00:00:00 (HH:MM:SS).
alarmSetting.Hour = 0;
alarmSetting.Minute = 0;
alarmSetting.Second = 0;
setAlarmTime(makeTime(alarmSetting));
disableAlarm();
}
/**
* Update RTC with new DCFTime
*/
void RTCDCF77::startStopDCF()
{
// Determine if to turn on the DCF77 receiver
time_t currentTime = get();
TimeElements _timeElements;
breakTime(currentTime, _timeElements);
if (
((long)(currentTime - status.previousRefTime) > minInterval) && // if last update longer ago than minInterval ..
(_timeElements.Hour > 22) && (_timeElements.Hour < 4) // and during evening/night ( better reception) ..
)
{
if (!DCFC->isRunning()) { DCFC->Start(); } // Start DCF77 clock (if not running)
} else {
if (DCFC->isRunning()) { DCFC->Stop(); } // Else, stop DCF77 clock (if running)
}
}
// Aquire data from the RTC chip in BCD format
// Returns true if successful
bool DS1374RTC::readTime(tmElements_t &tm)
{
uint8_t value;
timeDate_t timeDate;
Wire.beginTransmission(DS1374_CTRL_ID);
#if ARDUINO >= 100
Wire.write((uint8_t)0x00);
#else
Wire.send(0x00);
#endif
if (Wire.endTransmission() != 0) {
exists = false;
return false;
}
exists = true;
// request the 4 TOD Counts
Wire.requestFrom(DS1374_CTRL_ID, 9);// TODO replace magic number here
if (Wire.available() < 9) return false;
#if ARDUINO >= 100
timeDate.bytes[0] = Wire.read();
timeDate.bytes[1] = Wire.read();
timeDate.bytes[2] = Wire.read();
timeDate.bytes[3] = Wire.read();
value = Wire.read(); // Alarm registers
value = Wire.read();
value = Wire.read();
value = Wire.read(); // Control
value = Wire.read(); // Status
#else
timeDate.bytes[0] = Wire.receive();
timeDate.bytes[1] = Wire.receive();
timeDate.bytes[2] = Wire.receive();
timeDate.bytes[3] = Wire.receive();
value = Wire.receive(); // Alarm registers
value = Wire.receive();
value = Wire.receive();
value = Wire.receive(); // Control
value = Wire.receive(); // Status
#endif
breakTime(timeDate.time, tm);
if (value & 0x80) return false; // clock is halted TODO
return true;
}
void MCP7940RTC::set(time_t t)
{
tmElements_t tm;
breakTime(t, tm);
tm.Second &= 0x7f; // stop the oscillator and write the data
write(tm);
uint8_t s = (tm.Second | 0x80); // assert oscillator start bit
// Start the oscillator
Wire.beginTransmission(MCP7940_CTRL_ID);
#if ARDUINO >= 100
Wire.write((uint8_t)0x00);
Wire.write((dec2bcd(tm.Second) | 0x80)); // Seconds
#else
Wire.send(0x00);
Wire.send(s);
#endif
Wire.endTransmission();
}
int Controller::calculateProgress()
{
int progress = 0; // return variable
time_t current = now(); // save current time
tmElements_t elements; // create start time for comparsion
breakTime(current, elements); // break time into elements
elements.Second = 0; // set set start time
elements.Hour = (int)*_times;
elements.Minute = (int)*(_times+1);
time_t start = makeTime(elements); // convert back to timestamp
if (current > start) // if the cycle has started today
{
elements.Hour = (unsigned int)*(_times+2); // reuse elements to create stop time timestamp
elements.Minute = (unsigned int)*(_times+3);
time_t stop = makeTime(elements); // make the timestamp
if (current < stop) {
progress = (current-start)*100/(stop-start); // calculate progress
}
else
{
progress = 100;
}
}
else
{
//breakTime(nextMidnight(current), elements); // lets make an elements object holding next day's date
elements.Hour = (unsigned int)*(_times+4); // set the rewind time
elements.Minute = (unsigned int)*(_times+5);
time_t rewind = makeTime(elements); // make the timestamp
if (current < rewind)
{
progress = 100;
}
}
return progress;
}
SetTimeHelper::SetTimeHelper() {
for (int i = 0; i < 12; i ++) { monthNames[i] = (char *)monthNamesList[i]; }
breakTime(now(), currentTime);
retrieveCompileTime();
}
void setRTCTime(time_t t)
{
tmElements_t tm;
breakTime(t, &tm);
rtc.setTime_s(tm.Hour, tm.Minute, tm.Second);
}
/**
* Read the current time
*/
void App::getTime() {
time_t local = timezone.toLocal( now() );
isDst = timezone.locIsDST(local);
breakTime(local, time);
}
void Devices::displayDate(time_t time, Stream* displayOn)
{
tmElements_t _t;
breakTime(time, _t);
displayDate(&_t, displayOn);
}
void SetTimeMenu::configureTime() {
Serial.println(F("Entering configureTime()..."));
nextMode();
tmElements_t tm;
#if TEENSYDUINO
breakTime(now(), tm);
#else
if (!RTC.read(tm)) {
app->debug(0, "Can't ¨read current time", true);
delay(3000);
return;
}
#endif
switch (app->mode) {
case SetTime::Hour:
blinkColor(ColorNames::red);
app->debug(0, "====== Setup =======", true);
instructions();
what = (char *) "Hours";
h = tm.Hour;
if (h == 0) {
h = 24;
}
selectNumber(&h, 1, 24);
if (app->mode == SetTime::Default) break;
/* no break */
case SetTime::Minute:
blinkColor(ColorNames::yellow);
what = (char *) "Minutes";
m = tm.Minute;
selectNumber(&m, 0, 59);
if (app->mode == SetTime::Default) break;
/* no break */
case SetTime::Save:
blinkColor(ColorNames::red);
if (h == 24) {
h = 0;
}
tm.Hour = h;
tm.Minute = m;
tm.Second = 0;
sprintf(buffer, "New Time: %2d:%02d", h, m);
Serial.print("Setting Time to: ");
Serial.println(buffer);
#if DEBUG
app->debug(0, "Saving New Time...", true);
app->debug(1, buffer, false);
app->debug(3, "Success! :)", false);
#endif
app->helper.setTimeTo(tm, 0);
nextMode();
/* no break */
case SetTime::Last:
app->mode = SetTime::Default;
/* no break */
case SetTime::Default:
return;
};
}
void PCF85xx::set(time_t t) {
tmElements_t tm;
breakTime(t, tm);
this->write(tm);
}
void setup() {
Serial.begin(SERIAL_SPEED);
randomSeed(analogRead(1));
#ifdef DEBUG
Serial.println("start test...");
Serial.print(F(" CE="));
Serial.print(PIN_CE);
Serial.print(F(" CSN="));
Serial.print(PIN_CSN);
Serial.print(F(" MISO="));
Serial.print(MISO);
Serial.print(F(" MOSI="));
Serial.print(MOSI);
Serial.print(F(" SCK="));
Serial.println(SCK);
#endif
#ifdef RTC_ENABLE
rtc.init(90);
uint32_t tmp = rtc.read();
setTime(tmp);
Serial.print(millis());
Serial.print(F(": time is: "));
Serial.print(tmp);
Serial.print(F(" = "));
tmElements_t tmElems;
breakTime(tmp, tmElems);
Serial.print((uint16_t) 1970 + tmElems.Year);
Serial.print(F("/"));
Serial.print(tmElems.Month);
Serial.print(F("/"));
Serial.print(tmElems.Day);
Serial.print(F(" "));
Serial.print(tmElems.Hour);
Serial.print(F(":"));
Serial.print(tmElems.Minute);
Serial.print(F(":"));
Serial.println(tmElems.Second);
#endif
//enable watchdog
wdt_enable(WDTO_8S);
//get address config
getAddress();
ram.init(RAM_MGR_SS_PIN, RAM_MGR_ADDRESS_WIDTH, RAM_MGR_RAM_LEN);
#ifdef WEBSERVER_ENABLE
webServerWrapper.init();
#endif
#ifdef SDCARD_ENABLE
sdcard.initSD();
discoveryManager.init();
nodeInfo.init();
#endif
dispatcher.init();
hwInterface.init();
//init network
l3.init(address_local);
l2.init(&l3, PIN_CE, PIN_CSN, address_local);
l3.setLayer2(&l2);
dht11.init(A2, 20);
#ifdef __AVR_ATmega2560__
rcsw.init(14, 21);
#else
rcsw.init(A6, 21);
#endif
bmp180.init(80);
motion.init(A3, 50);
light.init(A7, 60);
//mytone.init(A8, 70);
#ifdef RTC_ENABLE
hwInterface.registerDriver((HardwareDriver*) &rtc);
#endif
hwInterface.registerDriver((HardwareDriver*) &dht11);
hwInterface.registerDriver((HardwareDriver*) &rcsw);
hwInterface.registerDriver((HardwareDriver*) &motion);
hwInterface.registerDriver((HardwareDriver*) &light);
hwInterface.registerDriver((HardwareDriver*) &bmp180);
//hwInterface.registerDriver((HardwareDriver*) &mytone);
dispatcher.init(&l3, &hwInterface);
#ifdef SDCARD_LOGGER_ENABLE
dispatcher.getResponseHandler()->registerListenerByPacketType(0, HARDWARE_COMMAND_RES, 0, &sdlistener);
#endif
#ifdef TIMER_ENABLE
timer.init();
#endif
/*/test rcsw
//HardwareCommandResult cmd;
//memset(&cmd, 0, sizeof(cmd));
//cmd.setHardwareType(HWType_rcswitch);
//cmd.setAddress(rcsw.getAddress());
//cmd.setUint8ListNum(2);
//cmd.getUint8List()[0] = 3;
//cmd.getUint8List()[1] = 0;
//hwInterface.executeCommand(&cmd);
///*/
/*
SDcard::SD_nodeDiscoveryInfoTableEntry_t infos[2];
infos[0].hardwareAddress = 0xAA;
infos[0].hardwareType = 0xBB;
infos[0].rtcTimestamp = 0xCC;
infos[1].hardwareAddress = 0xDD;
infos[1].hardwareType = 0xEE;
infos[1].rtcTimestamp = 0xFF;
sdcard.saveDiscoveryInfos(1, infos, 2);
SDcard::SD_nodeDiscoveryInfoTableEntry_t discovery[SD_DISCOVERY_NUM_INFOS_PER_NODE];
sdcard.getDiscoveryInfosForNode(1, discovery, SD_DISCOVERY_NUM_INFOS_PER_NODE);
Serial.print(discovery[0].hardwareAddress);
Serial.print(F(" "));
Serial.print(discovery[0].hardwareType);
Serial.print(F(" "));
Serial.println(discovery[0].rtcTimestamp);
Serial.print(discovery[1].hardwareAddress);
Serial.print(F(" "));
Serial.print(discovery[1].hardwareType);
Serial.print(F(" "));
Serial.println(discovery[1].rtcTimestamp);
Serial.flush();
*/
/*
#ifdef SDCARD_ENABLE
char buf[17];
memset(buf, 0, sizeof(buf));
Serial.print(millis());
Serial.print(F(": nodeinfo"));
if(sdcard.getNodeInfo(l3.localAddress, (uint8_t*) buf, sizeof(buf))) {
buf[16] = '\0';
Serial.print(F("=\""));
Serial.print(buf);
Serial.println(F("\""));
} else {
Serial.println(F(" not available"));
}
dispatcher.getResponseHandler()->registerListenerByPacketType(0, HARDWARE_COMMAND_RES, 0, &sdlistener);
packet_application_numbered_cmd_t appPacket;
memset(&appPacket, 0, sizeof(appPacket));
appPacket.packetType = HARDWARE_COMMAND_RES;
command_t* hwcmd = (command_t*) appPacket.payload;
hwcmd->address = 10;
hwcmd->type = HWType_rtc;
hwcmd->numUint8 = 4;
uint32_t now = rtc.read();
hwcmd->uint8list[0] = now >> 24;
hwcmd->uint8list[1] = (now >> 16) & 0xff;
hwcmd->uint8list[2] = (now >> 8) & 0xff;
hwcmd->uint8list[3] = now & 0xff;
dispatcher.handleNumbered(13, HARDWARE_COMMAND_RES, 123, &appPacket);
//sdlistener.doCallback(&appPacket, 17, 1234);
#endif
*/
/*
//mySimpleTimer = SimpleTimer::instance();
//Serial.println("### testHardwareCommand: Tone ###");
//Serial.flush();
//testHardwareCommandTone();
//
//
//Serial.println("### testHardwareCommand: Light ###");
//Serial.flush();
//testHardwareCommand(0, HWType_light, true);
//testHardwareCommand(0, HWType_light, true);
//testHardwareCommand(0, HWType_light, true);
//
//Serial.println("### testHardwareCommand: Temperature ###");
//Serial.flush();
//testHardwareCommand(0, HWType_temprature, true);
//
//Serial.println("### testHardwareCommand: Motion ###");
//Serial.flush();
//testHardwareCommand(0, HWType_motion, true);
//
//Serial.println("### testHardwareCommandRead ###");
//Serial.flush();
//testHardwareCommandRead();
//
//Serial.println("### testDiscovery ###");
//Serial.flush();
//testDiscovery();
//
//Serial.println("### testSubscriptionSet ###");
//Serial.flush();
//testSubscriptionSet();
//
//Serial.println("### testSubscriptionInfo ###");
//Serial.flush();
//testSubscriptionInfo();
//
//Serial.println("### testSubscriptionExecution ###");
//Serial.flush();
//testSubscriptionExecution();
//
//Serial.println("### testSubscriptionPolling ###");
//Serial.flush();
//testSubscriptionPolling();
//
//Serial.println("### testSubscriptionPolling Light ###");
//Serial.flush();
//testSubscriptionPollingLight();
//
////turn off LED
//pinMode(LED_BUILTIN, LOW);*/
}
void Settings::setBreakTimeMin(int min)
{
m_settings->setValue(BREAKTIMEMIN_NAME, QVariant(min));
emit breakTimeChanged(breakTime());
}
