void RectifierParser::buildControlOnOffMessage(uint8_t address, bool isOn) {
char infoPart[2];
uint8_t pos = 0;
infoPart[pos++] = decToBcd(isOn ? 0x0U : 0x01U);
infoPart[pos++] = decToBcd(0x00U);
buildSimpleIssuedMessage(RectifierOrder::ISSUED_CONTROL_ON_OFF, address, infoPart, pos);
}
bool Nanoshield_RTC::writeYear(int year)
{
int mon;
// Address register containing the months and century
Wire.beginTransmission(i2cAddr);
Wire.write(monthAddr);
if (Wire.endTransmission()) return false;
// Read month register
if (Wire.requestFrom((int)i2cAddr, 1) != 1) return false;
mon = bcdToDec(Wire.read() & 0x1F);
// Rewrite month along with century bit
Wire.beginTransmission(i2cAddr);
Wire.write(monthAddr); // Start address
if (year / 100 == 19) { // Set century bit to zero if 20th century
Wire.write(decToBcd(mon) & 0x7F); // Month (1-12, century bit (bit 7) = 0)
} else {
Wire.write(decToBcd(mon) | 0x80); // Month (1-12, century bit (bit 7) = 1)
}
if (Wire.endTransmission() != 0) return false;
// Write year
Wire.beginTransmission(i2cAddr);
Wire.write(yearAddr); // Start address
Wire.write(decToBcd(year % 100)); // Year (00-99)
return Wire.endTransmission() == 0;
}
void getTwoByteBcdFromDouble(char* data, uint8_t& pos, double value, int multiply) {
value *= multiply;
int seconsPart = (int)value % 100;
int firstPart = ((int)value - seconsPart) / 100;
*(data + pos) = decToBcd(firstPart);
pos++;
*(data + pos) = decToBcd(seconsPart);
pos++;
}
void Rtc_Pcf8563::setTime(byte hour, byte minute, byte sec)
{
Wire.beginTransmission(Rtcc_Addr); // Issue I2C start signal
Wire.send(RTCC_SEC_ADDR); // send addr low byte, req'd
Wire.send(decToBcd(sec)); //set seconds
Wire.send(decToBcd(minute)); //set minutes
Wire.send(decToBcd(hour)); //set hour
Wire.endTransmission();
}
void RectifierParser::buildSimpleIssuedMessage(char cid, uint8_t address, char* info, uint8_t infoLength) {
sendMessageLength_ = 0;
sendMessage_[sendMessageLength_++] = (char)START_FRAME_BYTE;
sendMessage_[sendMessageLength_++] = decToBcd(address);
sendMessage_[sendMessageLength_++] = decToBcd(infoLength + 1);
sendMessage_[sendMessageLength_++] = cid;
memcpy(sendMessage_ + sendMessageLength_, info, infoLength);
sendMessageLength_ += infoLength;
uint8_t chksum = getCheckSum(sendMessage_ + 1, sendMessageLength_ - 1);
sendMessage_[sendMessageLength_++] = decToBcd(chksum);
sendMessage_[sendMessageLength_++] = (char)END_FRAME_BYTE;
}
// Set the date/time, set to 24hr and enable the clock:
// (assumes you're passing in valid numbers)
void MCP7941x::setDateTime(
byte second, // 0-59
byte minute, // 0-59
byte hour, // 1-23
byte dayOfWeek, // 1-7
byte dayOfMonth, // 1-28/29/30/31
byte month, // 1-12
byte year) // 0-99
{
Wire.beginTransmission(MCP7941x_RTC_I2C_ADDR);
WireSend(RTC_LOCATION);
WireSend(decToBcd(second) & 0x7f); // set seconds and disable clock (01111111)
WireSend(decToBcd(minute) & 0x7f); // set minutes (01111111)
WireSend(decToBcd(hour) & 0x3f); // set hours and to 24hr clock (00111111)
WireSend(0x08 | (decToBcd(dayOfWeek) & 0x07)); // set the day and enable battery backup (00000111)|(00001000)
WireSend(decToBcd(dayOfMonth) & 0x3f); // set the date in month (00111111)
WireSend(decToBcd(month) & 0x1f); // set the month (00011111)
WireSend(decToBcd(year)); // set the year (11111111)
Wire.endTransmission();
// Start Clock:
Wire.beginTransmission(MCP7941x_RTC_I2C_ADDR);
WireSend(RTC_LOCATION);
WireSend(decToBcd(second) | 0x80); // set seconds and enable clock (10000000)
Wire.endTransmission();
}
void DS1307::set_time(time_t seconds) {
LOG << "set_time - 2 - Entered";
tm *ltm = localtime(&seconds);
// convert now to tm struct for UTC
tm *gmtm = gmtime(&seconds);
LOG << "GMTIME set device to this. " << asctime(gmtm);
LOG << "seconds " << gmtm->tm_sec; // seconds of minutes from 0 to 61
LOG << "Minutes " << gmtm->tm_min; // minutes of hour from 0 to 59
LOG << "Hours " << gmtm->tm_hour; // hours of day from 0 to 24
LOG << "DayOfWeek " << gmtm->tm_wday; // days since sunday
LOG << "DayOfMonth " << gmtm->tm_mday; // day of month from 1 to 31
LOG << "Month " << gmtm->tm_mon; // month of year from 0 to 11
LOG << "Year " << gmtm->tm_year; // year since 1900
char buffer[10];
buffer[0] = 0x00; // Command
buffer[1] = decToBcd(gmtm->tm_sec & 0x7f); // Seconds
buffer[2] = decToBcd(gmtm->tm_min); // Minutes
buffer[3] = decToBcd(gmtm->tm_hour); // Hours
buffer[4] = decToBcd(gmtm->tm_wday); // DayOfWeek
buffer[5] = decToBcd(gmtm->tm_mday); // DayOfMonth
buffer[6] = decToBcd(gmtm->tm_mon); // Month
LOG << "Y1 = " << gmtm->tm_year - 100;
LOG << "Y2 = " << decToBcd(gmtm->tm_year - 100);
buffer[7] = decToBcd(gmtm->tm_year - 100); // Year
i2c_bus->write_bytes(buffer, 8);
}
void Time_Adj_1224hrs(BOOL h12)
{
BYTE hours, bcd10, bcd;
Time_Pause(TRUE);
Rtc_ReadFromRtc();
if(datetime._02h.bits_24hrs._1224hr != h12)
{
if(h12)
{
// Convert from 24h to 12h
bcdToDec(datetime._02h.bits_24hrs.hours10, datetime._02h.bits_24hrs.hours, &hours);
if(hours >= 12)
{
datetime._02h.bits_ampm.ampm = 1;
if(hours > 12) hours -= 12;
}
else
{
datetime._02h.bits_ampm.ampm = 0;
if(hours == 0) hours = 12;
}
decToBcd(&bcd10 , &bcd, hours);
datetime._02h.bits_ampm.hours10 = bcd10;
datetime._02h.bits_ampm.hours = bcd;
}
else
{
// Convert from 12h to 24h
bcdToDec(datetime._02h.bits_ampm.hours10, datetime._02h.bits_ampm.hours, &hours);
if(datetime._02h.bits_ampm.ampm == 1 && hours != 12)
{
hours += 12;
}
else if(datetime._02h.bits_ampm.ampm == 0 && hours == 12)
{
hours = 0;
}
decToBcd(&bcd10 , &bcd, hours);
datetime._02h.bits_24hrs.hours10 = bcd10;
datetime._02h.bits_24hrs.hours = bcd;
}
}
datetime._02h.bits_24hrs._1224hr = h12;
Rtc_WriteToRtc();
Time_Pause(FALSE);
}
bool RTCx::setClock(const struct tm *tm, timeFunc_t func) const
{
// Find which register to read from
uint8_t sz = 0;
uint8_t reg = getRegister(func, sz);
if (sz == 0)
return false; // not supported
if (func == TIME)
stopClock();
uint8_t osconEtc = 0;
if (device == MCP7941x)
// Preserve OSCON, VBAT, VBATEN on MCP7941x
osconEtc = readData((uint8_t)0x03) & 0x38;
// Write everything *except* the second
Wire.beginTransmission(address);
Wire.write(reg + 1);
Wire.write(decToBcd(tm->tm_min));
Wire.write(decToBcd(tm->tm_hour)); // Forces 24h mode
Wire.write(decToBcd(tm->tm_wday + 1) | osconEtc);
Wire.write(decToBcd(tm->tm_mday));
Wire.write(decToBcd(tm->tm_mon + 1)); // leap year read-only on MCP7941x
Wire.write(decToBcd(tm->tm_year % 100));
Wire.endTransmission();
if (func == TIME)
startClock(decToBcd(tm->tm_sec));
else
writeData(reg, decToBcd(tm->tm_sec));
return true;
}
void Time_Adj_S(BOOL direction)
{
BYTE seconds, bcd10, bcd;
Time_Pause(TRUE);
Rtc_ReadFromRtc();
bcdToDec(datetime._00h.bits.seconds10, datetime._00h.bits.seconds, &seconds);
if(direction == TIME_UP)
{
if(seconds < 59) seconds++;
else seconds = 0;
}
else
{
if(seconds > 0) seconds--;
else seconds = 59;
}
decToBcd(&bcd10, &bcd, seconds);
datetime._00h.bits.seconds = bcd;
datetime._00h.bits.seconds10 = bcd10;
Rtc_WriteToRtc();
Time_Pause(FALSE);
}
void RealTimeClockDS1307::setYear(int y)
{
if (y >= 0 && y <100)
{
_reg6_year = decToBcd(y);
}
}
void Time_Adj_Mi(BOOL direction)
{
BYTE minutes, bcd10, bcd;
Time_Pause(TRUE);
Rtc_ReadFromRtc();
bcdToDec(datetime._01h.bits.minutes10, datetime._01h.bits.minutes, &minutes);
if(direction == TIME_UP)
{
if(minutes < 59) minutes++;
else minutes = 0;
}
else
{
if(minutes > 0) minutes--;
else minutes = 59;
}
decToBcd(&bcd10, &bcd, minutes);
datetime._01h.bits.minutes = bcd;
datetime._01h.bits.minutes10 = bcd10;
Rtc_WriteToRtc();
Time_Pause(FALSE);
}
bool Nanoshield_RTC::writeDay(int day)
{
Wire.beginTransmission(i2cAddr);
Wire.write(dayAddr); // Start address
Wire.write(decToBcd(day)); // Day (1-31)
return Wire.endTransmission() == 0;
}
void RealTimeClockDS1307::setDayOfWeek(int d)
{
if (d > 0 && d < 8)
{
_reg3_day = decToBcd(d);
}
}
void RealTimeClockDS1307::setMinutes(int m)
{
if (m < 60 && m >=0)
{
_reg1_min = decToBcd(m);
}
}
bool Nanoshield_RTC::writeHours(int hour)
{
Wire.beginTransmission(i2cAddr);
Wire.write(hoursAddr); // Start address
Wire.write(decToBcd(hour)); // Hour (0-23)
return Wire.endTransmission() == 0;
}
bool Nanoshield_RTC::writeSeconds(int sec)
{
Wire.beginTransmission(i2cAddr);
Wire.write(secondsAddr); // Start address
Wire.write(decToBcd(sec)); // Second (0-59)
return Wire.endTransmission() == 0;
}
bool Nanoshield_RTC::writeMinutes(int min)
{
Wire.beginTransmission(i2cAddr);
Wire.write(minutesAddr); // Start address
Wire.write(decToBcd(min)); // Minute (0-59)
return Wire.endTransmission() == 0;
}
void RealTimeClockDS1307::setMonth(int m)
{
if (m > 0 && m < 13)
{
_reg5_month = decToBcd(m);
}
}
bool Nanoshield_RTC::writeWeekday(int wday)
{
Wire.beginTransmission(i2cAddr);
Wire.write(weekdayAddr); // Start address
Wire.write(decToBcd(wday)); // Weekday (0-6 = Sunday-Saturday)
return Wire.endTransmission() == 0;
}
void RealTimeClockDS1307::setDate(int d)
{
if (d > 0 && d < 32)
{
_reg4_date = decToBcd(d);
}
}
void RealTimeClockDS1307::setHours(int h)
{
if (is12hour())
{
if (h >= 1 && h <=12)
{
//preserve 12/24 and AM/PM bits
_reg2_hour = decToBcd(h) | (_reg2_hour & 0x60);
}
} else {
if (h >= 0 && h <=24)
{
//preserve 12/24 bit
_reg2_hour = decToBcd(h) | (_reg2_hour & 0x40);
}
}//else
}//setHours
void RealTimeClockDS1307::setSeconds(int s)
{
if (s < 60 && s >=0)
{
//need to preserve oscillator bit
_reg0_sec = decToBcd(s) | (_reg0_sec & 0x80);
}
}
/* set the alarm values
* whenever the clock matches these values an int will
* be sent out pin 3 of the Pcf8563 chip
*/
void Rtc_Pcf8563::setAlarm(byte min, byte hour, byte day, byte weekday)
{
if (min <99) {
min = constrain(min, 0, 59);
min = decToBcd(min);
min &= ~RTCC_ALARM;
} else {
min = 0x0; min |= RTCC_ALARM;
}
if (hour <99) {
hour = constrain(hour, 0, 23);
hour = decToBcd(hour);
hour &= ~RTCC_ALARM;
} else {
hour = 0x0; hour |= RTCC_ALARM;
}
if (day <99) {
day = constrain(day, 1, 31);
day = decToBcd(day); day &= ~RTCC_ALARM;
} else {
day = 0x0; day |= RTCC_ALARM;
}
if (weekday <99) {
weekday = constrain(weekday, 0, 6);
weekday = decToBcd(weekday);
weekday &= ~RTCC_ALARM;
} else {
weekday = 0x0; weekday |= RTCC_ALARM;
}
Rtc_Pcf8563::enableAlarm();
//TODO bounds check the inputs first
Wire.beginTransmission(Rtcc_Addr); // Issue I2C start signal
Wire.send(RTCC_ALRM_MIN_ADDR);
Wire.send(min); //minute alarm value reset to 00
Wire.send(hour); //hour alarm value reset to 00
Wire.send(day); //day alarm value reset to 00
Wire.send(weekday); //weekday alarm value reset to 00
Wire.endTransmission();
}
void rtc_ds1307_set_time(struct __time t)
{
uint8 dta[8] = {0x00, t.second, t.minute, t.hour, t.week, t.day, t.month, t.year};
for(int i=1; i<8; i++)
{
dta[i] = decToBcd(dta[i]);
}
suli_i2c_write(__I2C_Device_RTC, DS1307_I2C_ADDRESS, dta, 8);
}
void I2CFlexel::setTimeAndDate(const DateTime &timeAndDate)
{
setTimeAndDate(
decToBcd(timeAndDate.seconds), decToBcd(timeAndDate.minutes), decToBcd(timeAndDate.hours), decToBcd(timeAndDate.weekDay),
decToBcd(timeAndDate.day), decToBcd(timeAndDate.month), decToBcd(timeAndDate.year)
);
}
void Rtc_Pcf8563::setDate(byte day, byte weekday, byte mon, byte century, byte year)
{
/* year val is 00 to 99, xx
with the highest bit of month = century
0=20xx
1=19xx
*/
month = decToBcd(mon);
if (century == 1){
month |= RTCC_CENTURY_MASK;
}
else {
month &= ~RTCC_CENTURY_MASK;
}
Wire.beginTransmission(Rtcc_Addr); // Issue I2C start signal
Wire.send(RTCC_DAY_ADDR);
Wire.send(decToBcd(day)); //set day
Wire.send(decToBcd(weekday)); //set weekday
Wire.send(month); //set month, century to 1
Wire.send(decToBcd(year)); //set year to 99
Wire.endTransmission();
}
bool Nanoshield_RTC::writeMonth(int mon)
{
int century;
// Address register containing the months and century
Wire.beginTransmission(i2cAddr);
Wire.write(monthAddr);
if (Wire.endTransmission()) return false;
// Read month register
if (Wire.requestFrom((int)i2cAddr, 1) != 1) return false;
century = Wire.read() & 0x80;
Wire.beginTransmission(i2cAddr);
Wire.write(monthAddr); // Start address
if (century) {
Wire.write(decToBcd(mon) | 0x80); // Month (1-12, century bit (bit 7) = 1)
} else {
Wire.write(decToBcd(mon) & 0x7F); // Month (1-12, century bit (bit 7) = 0)
}
return Wire.endTransmission() == 0;
}
void Time_Adj_Y(BOOL direction)
{
BYTE date, month, year, bcd10, bcd;
Time_Pause(TRUE);
Rtc_ReadFromRtc();
bcdToDec(datetime._04h.bits.date10, datetime._04h.bits.date, &date);
bcdToDec(datetime._05h.bits.month10, datetime._05h.bits.month, &month);
bcdToDec(datetime._06h.bits.year10, datetime._06h.bits.year, &year);
bcd10 = datetime._06h.bits.year10;
bcd = datetime._06h.bits.year;
if(direction == TIME_UP)
{
year++;
if(isValidDate(date, month, year))
{
decToBcd(&bcd10, &bcd, year);
}
}
else
{
year--;
if(isValidDate(date, month, year))
{
decToBcd(&bcd10, &bcd, year);
}
}
datetime._06h.bits.year10 = bcd10;
datetime._06h.bits.year = bcd;
Rtc_WriteToRtc();
Time_Pause(FALSE);
}
/*Frunction: Write the time that includes the date to the RTC chip */
void DS1307::setTime()
{
Wire1.beginTransmission(DS1307_I2C_ADDRESS);
Wire1.write((uint8_t)0x00);
Wire1.write(decToBcd(second));// 0 to bit 7 starts the clock
Wire1.write(decToBcd(minute));
Wire1.write(decToBcd(hour)); // If you want 12 hour am/pm you need to set bit 6
Wire1.write(decToBcd(dayOfWeek));
Wire1.write(decToBcd(dayOfMonth));
Wire1.write(decToBcd(month));
Wire1.write(decToBcd(year));
Wire1.endTransmission();
}