/*
* Read (and debounce) the current state of the attached relays.
* Note that when a relay is closed, we treat that as true or 1,
* and when it's open, we treat that as false or 0.
*/
void serviceRelays() {
int i;
uint16_t oldState = state;
uint16_t readState = 0;
// Read the active pins
for (i=0; i<PIN_COUNT; i++) {
uint16_t mask = (1 << i);
if (mask & activePins) {
// lines go to ground when relays close. (closed = 1, open = 0)
if (LOW == digitalRead(i)) {
readState |= mask;
}
}
}
// Add the latest sample to our ring buffer, giving us the last
// n samples so we can debounce
ringIndex = ++ringIndex % RING_SIZE;
stateRing[ringIndex] = readState;
// Debounce - each bit needs to be stable across all n samples
// before we consider it valid.
uint16_t andBits = stateRing[0]; // andBits tells us what bits are stable at a value of 1
// (each 1 bit in andBits indicates a stable value of 1)
uint16_t orBits = stateRing[0]; // orBits will tell us what bits are stable at a value of 0
// (each 0 bit in orBits indicate a stable value of 0)
// combine our samples and see what's stable
for (i=1;i<RING_SIZE;i++) {
andBits &= stateRing[i];
orBits |= stateRing[i];
}
// Set bits that are stable at 1
state |= andBits;
// clear bits that are stable at 0
state &= orBits;
if (state != oldState) {
time_t t = now();
Serial.print(hour(t));
Serial.print(":");
Serial.print(minute(t));
Serial.print(":");
Serial.println(second(t));
Serial.print("Relay state: ");
Serial.println(state);
}
}
void digitalClockDisplayLCD() {
// digital clock display of the time
// Serial /w Debug
sprintf(buffer, "$FT,Y0,X0#%04d-%02d-%02d ", year(), month(), day());
Serial.print(buffer);
sprintf(buffer, "$FT,Y1,X0#%s W%02d D%03d", dow2String(weekday()), WN, DN);
Serial.print(buffer);
sprintf(buffer, "$Y5,X0#%02d:%02d:", hour(), minute());
Serial.print(buffer);
sprintf(buffer, "$FN,Y5,X35#%02d", second());
Serial.print(buffer);
Serial.print(F("$FT#"));
// I2C LCD
LcdSetCursor(0, 0);
sprintf(buffer, "%04d-%02d-%02d %s", year(), month(), day(),
dow2String(weekday()));
LcdPrint(buffer);
sprintf(buffer, "%02d:%02d:%02d W%02d %03d", hour(), minute(), second(), WN,
DN);
LcdSetCursor(0, 1);
LcdPrint(buffer);
}
void loop()
{
// digital clock display of the time
sprintf(msg_buff,"%02d:%02d:%02d %s",hour(),minute(),second(), dayStr(weekday()));
sprintf(msg_buff,"%s %d %s %d\r\n",msg_buff, day(),monthStr(month()), year());
//Send the data
uart_printf(msg_buff);
// 1 sec delay
delay(1000);
}
inline BTime dateTimeToBTime(QDateTime dateTime)
{
auto date = dateTime.date();
auto time = dateTime.time();
BTime btime;
btime.year = date.year();
btime.day = date.dayOfYear();
btime.hour = time.hour();
btime.min = time.minute();
btime.sec = time.second();
btime.fract = time.msec();
return btime;
}
void digitalClockDisplay() {
// digital clock display of the time
print_dbg(hour());
printDigits(minute());
printDigits(second());
print_dbg(" ");
print_dbg(day());
print_dbg(".");
print_dbg(month());
print_dbg(".");
print_dbg(year());
println_dbg();
}
void digitalClockDisplay()
{
time_t t = now();
printDigits(hour(t) ,' ');
printDigits(minute(t),':');
printDigits(second(t),':');
Serial.print(" ");
Serial.print(day(t));
Serial.print(" ");
Serial.print(month(t));
Serial.print(" ");
Serial.print(year(t));
Serial.println();
}
void updateAlarm()
{
time_t almTime = wkAlarm.getAlarmTime();
int h = hour(almTime);
int m = minute(almTime);
digitValues[0] = h / 10;
digitValues[1] = h % 10;
digitValues[2] = m / 10;
digitValues[3] = m % 10;
for (int i = 0; i < N; i++)
display.writeDigit(i, digitValues[i]);
}
// ---------------------- //
// Display Update fnc
// ---------------------- //
void updateTime()
{
time_t t = now();
int h = hour(t);
int m = minute(t);
digitValues[0] = h / 10;
digitValues[1] = h % 10;
digitValues[2] = m / 10;
digitValues[3] = m % 10;
for (int i = 0; i < N; i++)
display.writeDigit(i, digitValues[i]);
}
void Time() {
lastCount = count;
++count;
// digital clock display of the time
Serial.print("Cycle: ");
Serial.print(hour());
Serial.print(minute());
Serial.print(second());
Serial.print(day());
Serial.print(month());
Serial.print(year());
Serial.println();
}
void printAlarmStatus()
{
time_t almSet = wkAlarm.getAlarmTime();
byte h, m, rtcOn;
h = hour(almSet);
m = minute(almSet);
printDigits(h,' ');
printDigits(m,':');
rtcOn = isRtcAlarmOn();
if (rtcOn)
Serial.println(" -- ON");
else
Serial.println(" -- OFF");
}
/**
* \brief Returns the value of the digital input
*
* \returns 1 if input is HIGH or 0 if input is LOW.
*/
double SerialAtlasEC::read()
{
Sensor* sensor;
// Serial.println("EC");
// Serial.println(actualEC);
// init Sensor
if (initCounter < 10000)
initCounter++;
if (initCounter == 10000)
{
__aquaduino->resetSensorIterator();
while (__aquaduino->getNextSensor(&sensor) != -1)
{
if (sensor->getType() == SENSOR_DS18S20)
{
tempSensorID=__aquaduino->getSensorID(sensor);
}
}
Serial1.print("25.00,C\r");
Serial.println("EC set to send continuous data");
initCounter++;
}
//set Temperature every Minute
if (minute() != curMin)
{
curMin = minute();
Serial.print(__aquaduino->getSensorValue(tempSensorID));
Serial.println((" Set new Temperature to EC"));
Serial1.print(__aquaduino->getSensorValue(tempSensorID));
Serial1.print(",C\r");
}
return actualEC;
}
void RRTime::digitalClockDisplay(){
// digital clock display of the time
DEBUGPRINT.print(hour());
DEBUGPRINT.print(":");
DEBUGPRINT.print(getDigits(minute()));
DEBUGPRINT.print(":");
DEBUGPRINT.print(getDigits(second()));
DEBUGPRINT.print(" ");
DEBUGPRINT.print(day());
DEBUGPRINT.print(".");
DEBUGPRINT.print(month());
DEBUGPRINT.print(".");
DEBUGPRINT.print(year());
DEBUGPRINT.println();
}
byte PWMParabola(byte startHour, byte startMinute, byte endHour, byte endMinute, byte startPWM, byte endPWM, byte oldValue)
{
int Now = NumMins(hour(), minute());
int Start = NumMins(startHour, startMinute);
int End = NumMins(endHour, endMinute);
byte PWMDelta = endPWM-startPWM;
byte ParabolaPhase=constrain(map(Now,Start,End,0,180),0,180);
if ( Now <= Start || Now >= End)
return oldValue;
else
{
return startPWM+(PWMDelta*sin(radians(ParabolaPhase)));
}
}
void Clock::display()
{
Serial.print(hour());
Serial.print(':');
Serial.print(minute());
Serial.print(':');
Serial.println(second());
Serial.print(' ');
Serial.print(day());
Serial.print('/');
Serial.print(month());
Serial.print('/');
Serial.println(year());
};
String hourString(){
// String s;
// appendLong(s,hour(),2);
// s+= ':';
// appendLong(s,minute(),2);
// s+= ':';
// appendLong(s,second(),2);
XString s;
s.formatLong(hour(),2);
s+= ':';
s.formatLong(minute(),2);
s+= ':';
s.formatLong(second(),2);
return s;
}
void printTime(time_t t, char *tz) {
sPrintI00(hour(t));
sPrintDigits(minute(t));
sPrintDigits(second(t));
Serial.print(' ');
Serial.print(weekday(t));
Serial.print(' ');
sPrintI00(day(t));
Serial.print(' ');
Serial.print(month(t));
Serial.print(' ');
Serial.print(year(t));
Serial.print(' ');
Serial.print(tz);
Serial.println();
}
// Print time to a given line
void OSLocalUI::lcd_print_time(byte line)
{
time_t t=nntpTimeServer.LocalNow();
lcd.setCursor(0, line);
lcd_print_2digit(hour(t));
lcd_print_pgm( t%2 > 0 ? PSTR(":") : PSTR(" ") ); // flashing ":" in the time display
lcd_print_2digit(minute(t));
lcd_print_pgm(PSTR(" "));
lcd_print_pgm(days_str[weekday_today()]);
lcd_print_pgm(PSTR(" "));
lcd_print_2digit(month(t));
lcd_print_pgm(PSTR("-"));
lcd_print_2digit(day(t));
}
void TimeState::renderClockType1(){
Serial.println(F("render time type 1"));
_screen->clearDisplay();
_screen->setTextSize(5);
_screen->setCursor(0, 0);
_screen->setTextWrap(false);
int8_t hour_time = hour();
if(hour_time==0)
hour_time = (uint8_t) 12;
else if(hour_time>=13)
hour_time -= (uint8_t) 12;
if(hour_time<=9)
{
_screen->setCursor(30, 0);
_screen->print(hour_time);
}
else
_screen->print(hour_time);
_screen->setCursor(50, 0);
_screen->print(":");
_screen->setCursor(70, 0);
int8_t minute_time = minute();
if(minute_time<=9){
_screen->print("0");
_screen->setCursor(99, 0);
_screen->print(minute_time);
}
else
_screen->print(minute_time);
_screen->setTextSize(2);
char *wkdy[7] = {"SUN", "MON", "TUE", "WED", "THR", "FRI", "SAT"};
_screen->setCursor(5, 43);
_screen->print(wkdy[weekday()-1]);
_screen->setCursor(60, 43);
_screen->print(month());
_screen->setCursor(78, 43);
_screen->print("/");
_screen->setCursor(95, 43);
_screen->print(day());
_screen->display();
}
void timeSync() {
uint16_t s = (uint32_t)4 * (PWMRANGE + 1) * (hour() * 3600 + minute() * 60 + second()) / (24 * 60 * 60);
uint16_t setValue;
if (s < (PWMRANGE + 1)) {
setValue = 0;
} else if (s < 2 * (PWMRANGE + 1)) {
setValue = s - (PWMRANGE + 1);
} else if (s < 3 * (PWMRANGE + 1)) {
setValue = 3 * (PWMRANGE + 1) - (s + 1);
} else {
setValue = 0;
}
red.set(setValue);
green.set(setValue);
blue.set(setValue);
white.set(setValue);
}
void main()
{
ANSEL = 0x00;
TRISA = 0xFF;
TRISB = 0b00000100;
// Structure that holds human readable time information;
struct tm tinfo;
// Local time to get
time_t now;
// Store last time we sent the information
uint32_t last = 0;
// Set time manually to 13:55:30 Jan 1st 2014
tinfo.tm_year = 14;
tinfo.tm_mon = 1;
tinfo.tm_mday = 1;
tinfo.tm_hour = 13;
tinfo.tm_min = 55;
tinfo.tm_sec = 30;
// Tick Initialization
tick_init();
// Convert time structure to timestamp
initialt = time_make(&tinfo);
// Set system time counter
time_set(initialt);
// Set the function to get accurate time
time_set_provider(&time_provider, TIME_SECS_PER_DAY);
printf("TimeLib Test Program\r\n");
E_
for (;;) {
// Display the time every second
if (tick_get() - last > TICK_SECOND) {
last = tick_get();
// Send to serial port
printf("Time: %02d:%02d:%02d Date: %02d/%02d/%02d\r\n", hour(), minute(), second(), day(), month(), year());
}
}
}
void loop() {
Serial.print(year(), DEC);
Serial.print('/');
Serial.print(month(), DEC);
Serial.print('/');
Serial.print(day(), DEC);
Serial.print(" (");
Serial.print(monthStr(month()));
Serial.print(") ");
Serial.print(hour(), DEC);
Serial.print(':');
Serial.print(minute(), DEC);
Serial.print(':');
Serial.print(second(), DEC);
Serial.println();
delay(5000);
}
boolean Clock::parseDate(String t)
{
// dd/mm/yyyy
int d;
int m;
int y;
if (t.length() != 10) return false;
if (t.charAt(2) != '/' || t.charAt(5) != '/') return false;
d=t.substring(0,2).toInt();
m=t.substring(3,5).toInt();
y=t.substring(6,10).toInt();
if (d ==0 || m==0 || y==0) return false;
//Todo adjust for local time?
set(y,m,d,hour(),minute(),second());
return true;
}
void DateTime::format(std::string& str, const std::string& fmt, int timeZoneDifferential)
{
std::string::const_iterator it = fmt.begin();
std::string::const_iterator end = fmt.end();
while (it != end)
{
if (*it == '%')
{
if (++it != end)
{
switch (*it)
{
case 'w': str.append(WEEKDAY_NAMES[dayOfWeek()], 0, 3); break;
case 'W': str.append(WEEKDAY_NAMES[dayOfWeek()]); break;
case 'b': str.append(MONTH_NAMES[month() - 1], 0, 3); break;
case 'B': str.append(MONTH_NAMES[month() - 1]); break;
case 'd': NumberFormatter::append0(str, (int32_t)day(), 2); break;
case 'e': NumberFormatter::append(str, (int32_t)day()); break;
case 'f': NumberFormatter::append(str, (int32_t)day(), 2); break;
case 'm': NumberFormatter::append0(str, (int32_t)month(), 2); break;
case 'n': NumberFormatter::append(str, (int32_t)month()); break;
case 'o': NumberFormatter::append(str, (int32_t)month(), 2); break;
case 'y': NumberFormatter::append0(str, (int32_t)year() % 100, 2); break;
case 'Y': NumberFormatter::append0(str, (int32_t)year(), 4); break;
case 'H': NumberFormatter::append0(str, (int32_t)hour(), 2); break;
case 'h': NumberFormatter::append0(str, (int32_t)hourAMPM(), 2); break;
case 'a': str.append(isAM() ? "am" : "pm"); break;
case 'A': str.append(isAM() ? "AM" : "PM"); break;
case 'M': NumberFormatter::append0(str, (int32_t)minute(), 2); break;
case 'S': NumberFormatter::append0(str, (int32_t)second(), 2); break;
case 'i': NumberFormatter::append0(str, (int32_t)millisecond(), 3); break;
case 'c': NumberFormatter::append(str, (int32_t)millisecond()/100); break;
case 'F': NumberFormatter::append0(str, (int32_t)millisecond()*1000 + microsecond(), 6); break;
case 'z': tzdISO(str, timeZoneDifferential); break;
case 'Z': tzdRFC(str, timeZoneDifferential); break;
default: str += *it;
}
++it;
}
}
else str += *it++;
}
}
void setup() {
Serial.begin(115200);
delay(2000);
// We start by connecting to a WiFi network
WiFi.mode (WIFI_STA);
WiFi.begin (SETTINGS_NETWORK_SSID, SETTINGS_NETWORK_PASS);
Serial.println();
Serial.println();
Serial.print("Wait for WiFi... ");
while ( WiFi.status() != WL_CONNECTED ) {
delay ( 500 );
Serial.print ( "." );
}
if (! rtc.begin()) {
Serial.println("Couldn't find RTC");
while (1);
}
timeClient.begin();
Serial.println("");
Serial.println("WiFi connected");
Serial.println("IP address: ");
Serial.println(WiFi.localIP());
Serial.println(__DATE__);
Serial.println(__TIME__);
// load time from network if rtc has lost power...
if (rtc.lostPower()) {
Serial.println("RTC lost power- set time from NTP");
timeClient.update();
setTime(timeClient.getEpochTime());
rtc.adjust(DateTime(year(), month(), day(), hour(), minute(), second()));
}
DateTime now = rtc.now();
setTime(now.unixtime());
delay(500);
}
string VSTime::toStringforWeb() const
{
string result = "";
char buf1[10] = {0,};
char buf2[10] = {0,};
sprintf(buf1, "%d", hour());
sprintf(buf2, "%d", minute());
string hour = string(buf1);
string minute = string(buf2);
if (hour.size() == 1) hour = "0" + hour;
if (minute.size() == 1) minute = "0" + minute;
result += hour; // hour
result += minute; // minute
return result;
}
byte PWMSlope(byte startHour, byte startMinute, byte endHour, byte endMinute, byte startPWM, byte endPWM, byte Duration, byte oldValue)
{
int Now = NumMins(hour(), minute());
int Start = NumMins(startHour, startMinute);
int StartD = Start + Duration;
int End = NumMins(endHour, endMinute);
int StopD = End - Duration;
if ( Now >= Start && Now <= StartD )
return constrain(map(Now, Start, StartD, startPWM, endPWM),startPWM, endPWM);
else if ( Now >= StopD && Now <= End )
{
byte v = constrain(map(Now, StopD, End, startPWM, endPWM),startPWM, endPWM);
return endPWM-v+startPWM;
}
else if ( Now > StartD && Now < StopD )
return endPWM;
// lastly return the existing value
return oldValue;
}
void Clock::printTime() {
static boolean printColon = true;
// 12:25 PM
printLeadingCharacter(hourFormat12(currentTime), ' ');
if (printColon)
lcd.print(':');
else
lcd.print(' ');
printColon = !printColon;
printLeadingCharacter(minute(currentTime), '0');
lcd.print(' ');
if (isPM(currentTime))
{
lcd.print(F("PM"));
}
else
{
lcd.print(F("AM"));
}
}
//display the given time (if different from time given with prior call)
void GoldieClock::displayClock(time_t utc)
{
static time_t utcLast;
if ( utc != utcLast )
{
utcLast = utc;
time_t local = (*tz).toLocal(utc, &tcr);
uint8_t h = hour(local);
uint8_t m = minute(local);
uint8_t s = second(local);
uint8_t hourHand = ( h >= 12 ? h - 12 : h ) * 5;
hourHand = hourHand + m / 12; //adjust hour hand between hours
//one rainbow on the quarter hour, two on the half, four on the hour
if ( s == 0 && _showRainbows )
{
if ( m == 15 || m == 45 ) rainbowCycle(2, 1);
else if ( m == 30 ) rainbowCycle(2, 2);
else if ( m == 0 ) rainbowCycle(2, 4);
}
clear();
//hour hand (3 pixels wide)
setPixelColor( LAST_PIXEL - hourHand, HOUR_HAND );
setPixelColor( LAST_PIXEL - (hourHand + 1U > LAST_PIXEL ? FIRST_PIXEL : hourHand + 1U), HOUR_HAND_DIM );
setPixelColor( LAST_PIXEL - (hourHand - 1U > LAST_PIXEL ? LAST_PIXEL : hourHand - 1U), HOUR_HAND_DIM );
//minute hand & second hand -- additive colors
setPixelColor( LAST_PIXEL - m, getPixelColor(LAST_PIXEL - m) + MINUTE_HAND );
setPixelColor( LAST_PIXEL - s, getPixelColor(LAST_PIXEL - s) + SECOND_HAND );
//hour markers (do not overlay hands)
for (uint16_t i = 0; i <= LAST_PIXEL; i += 5)
if ( getPixelColor(LAST_PIXEL - i) == 0 ) setPixelColor(LAST_PIXEL - i, HOUR_MARKER);
show();
}
}
char* UTC(char* TimeSep){
String utcDate = "";
utcDate+= year();
utcDate+= "-";
utcDate+= month();
utcDate+= "-";
utcDate+= day();
utcDate+= TimeSep;
utcDate+= (hour());
utcDate+= (":");
utcDate+= (minute());
utcDate+= (":");
utcDate+= (second());
for (int i=0; i < utcDate.length(); i++){
buffer[i] = utcDate[i];
}
buffer[utcDate.length()] = 0;
return buffer;
}
int minute() {
return minute(now());
}
