DBFloat DBDate::DecimalMonth () const
{
DBFloat decDate;
DBInt month, nDays;
decDate = (FlagsVAR & DBTimeStepYear) == DBTimeStepYear ? Year () * 12 : 0.0;
if ((FlagsVAR & DBTimeStepMonth) != DBTimeStepMonth) return (decDate + 6.0);
if ((FlagsVAR & DBTimeStepDay) != DBTimeStepDay) return (decDate + ((DBFloat) Month () + 0.5) / 12.0);
month = Month ();
nDays = _DBNumberOfDays [month] + ((month == 1) && DBDateIsLeapYear (Year ()) ? 1 : 0);
if ((FlagsVAR & DBTimeStepHour) != DBTimeStepHour)
return (decDate + Month () + ((DBFloat) Day () / (DBFloat) nDays));
if ((FlagsVAR & DBTimeStepMinute) != DBTimeStepMinute)
return (decDate + ((DBFloat) Day () + Hour () / 24) / (DBDateIsLeapYear (Year ()) ? 365.0 : 366.0));
return (decDate + ((DBFloat) Day () + (Hour () + Minute () / 60.0) / 24) / (DBDateIsLeapYear (Year ()) ? 365.0 : 366.0));
}
DBFloat DBDate::DecimalYear () const
{
DBFloat decDate;
DBInt month, day;
decDate = (FlagsVAR & DBTimeStepYear) == DBTimeStepYear ? Year () : 0.0;
if ((FlagsVAR & DBTimeStepMonth) != DBTimeStepMonth) return (decDate + 0.5);
if ((FlagsVAR & DBTimeStepDay) != DBTimeStepDay) return (decDate + ((DBFloat) Month () + 0.5) / 12.0);
day = (DBDateIsLeapYear (Year ()) && (Month () > 1)) ? 1 : 0;
for (month = 0;month < Month ();++month) day += _DBNumberOfDays [month];
if ((FlagsVAR & DBTimeStepHour) != DBTimeStepHour)
return (decDate + (DBFloat) day / (DBDateIsLeapYear (Year ()) ? 365.0 : 366.0));
if ((FlagsVAR & DBTimeStepMinute) != DBTimeStepMinute)
return (decDate + ((DBFloat) day + Hour () / 24) / (DBDateIsLeapYear (Year ()) ? 365.0 : 366.0));
return (decDate + ((DBFloat) day + (Hour () + Minute () / 60.0) / 24) / (DBDateIsLeapYear (Year ()) ? 365.0 : 366.0));
}
CL_String CL_TimeOfDay::PrintString (TimePrintForm form) const
{
CL_String time_string;
long hour = Hour();
long min = Minute();
long sec = Second();
switch (form) {
case Time_Military:
{
CL_String smin (min, 2, '0'), ssec (sec, 2, '0');
time_string = CL_String(hour, 2, '0') + ":" + smin + ":" + ssec;
break;
}
case Time_Normal:
default:
{
CL_String tmin (min, 2);
if (hour > 12) {
hour -= 12;
time_string = CL_String(hour) + ":" + tmin + " pm";
}
else if (hour == 12)
time_string = CL_String(hour) + ":" + tmin + " pm";
else
time_string = CL_String(hour) + ":" + tmin + " am";
break;
}
}
return time_string;
}
DBInt DBDate::Minute () const
{
DBInt flags = DBTimeStepDay | DBTimeStepHour | DBTimeStepMinute;
if ((FlagsVAR & flags) != flags) return (DBDefaultMissingIntVal);
return (MinutesVAR - Day () * 24 * 60 - Hour () * 60);
}
TSystemTime
TTime::GetSystemTime() const
{
TDate dt(*this);
return TSystemTime(dt.Year(), dt.Month(), dt.DayOfMonth(),
Hour(),Minute(), Second(), dt.WeekDay());
}
int JamToDetik(Jam J)
/* Konversi Jam menjadi detik */
{
/* Kamus Lokal */
/* Algoritma */
return(3600 *Hour(J) + 60 *Minute(J) + Second(J));
}
std::string Song::ToCueString() const {
auto oss = std::ostringstream();
oss << "TRACK "<< Number() << " AUDIO" << std::endl <<
"TITLE \"" << Title() << "\"" << std::endl <<
"PERFORMER \"" << Artist() << "\"" << std::endl <<
"INDEX 01 " << Hour()*60 + Minute() << ':' << Second() << ":00";
return oss.str();
}
bool MC2Direction::InFrontOfUser(int headingAngle) const
{
MC2Direction::ClockType ct = Hour(headingAngle);
return
(ct >= HOUR_0 && ct <= HOUR_3) ||
(ct >= HOUR_9 && ct <= HOUR_11);
}
void TulisJam(Jam J)
/* I.S. : J sembarang*/
/* F.S. : J ditulis ke layar dengan format HH:MM:SS */
/* Proses : Menulis ke layar */
{
/* Kamus lokal */
/* Algoritma */
printf("%d:%d:%d",Hour(J),Minute(J),Second(J));
}
void Date::setTime(int d, int m, int y)
{
int h = Hour();
int m = Minute();
int s = Second();
SetTime(h, m, s, d, m, y);
log.info("Time set hour: %d minute: %d second: %d day: %d month: %d year: %d", h, m, s, d, m, y);
}
Jam MakeJam(int H, int M, int S)
/* Membentuk Jam dari H, M, S yg valid */
{
/* Kamus Lokal */
Jam J1;
/* Algoritma */
Hour(J1) = H;
Minute(J1) = M;
Second(J1) = S;
return J1;
}
int CTimeDate::MillisecondsSinceMidnight (void) const
// MillisecondsSinceMidnight
//
// Returns the number of milliseconds since midnight
{
return Millisecond()
+ (Second() * 1000)
+ (Minute() * 60 * 1000)
+ (Hour() * 60 * 60 * 1000);
}
Jam DetikToJam(int N)
/* Konversi detik ke Jam */
{
/* Kamus Lokal */
int sisa;
Jam JOut;
/* Algoritma */
Hour(JOut) = N / 3600;
sisa = N % 3600;
Minute(JOut) = sisa / 60;
Second(JOut) = sisa % 60;
return JOut;
}
char *DBDate::Get () const
{
static char dateStr [DBStringLength];
if ((FlagsVAR & DBTimeStepYear) == DBTimeStepYear)
sprintf (dateStr,"%04d",Year ());
else sprintf (dateStr,"XXXX");
if ((FlagsVAR & DBTimeStepMonth) == DBTimeStepMonth)
sprintf (dateStr + strlen (dateStr),"-%02d",Month () + 1);
if ((FlagsVAR & DBTimeStepDay) == DBTimeStepDay)
sprintf (dateStr + strlen (dateStr),"-%02d",Day () + 1);
if ((FlagsVAR & DBTimeStepHour) == DBTimeStepHour)
sprintf (dateStr + strlen (dateStr)," %02d",Hour ());
if ((FlagsVAR & DBTimeStepMinute) == DBTimeStepMinute)
sprintf (dateStr + strlen (dateStr),":%02d",Minute ());
return (dateStr);
}
/**
* Returns the internally stored time, formatted as a UTC time
*
* @return string The internalized time, in UTC format
*/
QString iTime::UTC() const {
QString utc = YearString() + "-" ;
if(Month() < 10) utc += "0" + MonthString() + "-";
else utc += MonthString() + "-";
if(Day() < 10) utc += "0" + DayString() + "T";
else utc += DayString() + "T";
if(Hour() < 10) utc += "0" + HourString() + ":";
else utc += HourString() + ":";
if(Minute() < 10) utc += "0" + MinuteString() + ":";
else utc += MinuteString() + ":";
if(Second() < 10) utc += "0" + SecondString();
else utc += SecondString();
return utc;
}
/**
* Returns the hour portion of the time as a string
*
* @return string
*/
QString iTime::HourString() const {
return toString(Hour());
}
TimeSpan DateTime::TimeOfDay() throw()
{
return TimeSpan(Hour(), Minute(), Second(), Millisecond());
}
//-----------------------------------------------------------------------------------------------
int init()
{
// E Farrell 2013
IndicatorDigits(10);
IndicatorShortName("LEVY PHASE (F. Farrell)");
// Show or Hide a particular line?
//
// Use "DRAW_NONE" to hide a line
// Use "DRAW_LINE" to display a line
// Line 0:
// Stochastic Volatility Line
SetIndexBuffer (0, vols);
SetIndexLabel (0, "Volatility");
SetIndexDrawBegin (0, Lookback);
SetIndexStyle (0, DRAW_NONE);
//SetIndexStyle (0, DRAW_LINE);
// Line 1:
// Levy Index of closing price (signal)
SetIndexBuffer (1, levy_signal);
SetIndexLabel (1, "levy_signal");
SetIndexDrawBegin (1, Lookback*2);
SetIndexStyle (1, DRAW_NONE);
//SetIndexStyle (1, DRAW_LINE);
// Line 2:
// Levy Index of Volatility
SetIndexBuffer (2, levy_vol);
SetIndexLabel (2, "levy_vol");
SetIndexDrawBegin (2, Lookback*2);
SetIndexStyle (2, DRAW_NONE);
//SetIndexStyle (2, DRAW_LINE);
// Line 3:
// Wrapped Phase Line
SetIndexBuffer (3, phase_wrapped);
SetIndexLabel (3, "Phase (wrapped)");
SetIndexDrawBegin (3, Lookback*2);
//SetIndexStyle (3, DRAW_NONE);
SetIndexStyle (3, DRAW_LINE);
// Line 4:
// Unwrapped Phase Line
SetIndexBuffer (4, phase_unwrapped);
SetIndexLabel (4, "Phase (Unwrapped)");
SetIndexDrawBegin (4, Lookback*2);
//SetIndexStyle (4, DRAW_NONE);
SetIndexStyle (4, DRAW_LINE);
// Line 5:
// Linear approximation of unwrapped phase
SetIndexBuffer (5, least_squares_line);
SetIndexLabel (5, "Regression Line");
SetIndexDrawBegin (5, Lookback*2);
//SetIndexStyle (5, DRAW_NONE);
SetIndexStyle (5, DRAW_LINE);
// Line 6:
// Final Adjusted Phase Line
SetIndexBuffer (6, phase_adjusted);
SetIndexLabel (6, "Phase (Adjusted)");
SetIndexDrawBegin (6, Lookback*2);
SetIndexStyle (6, DRAW_LINE);
if (DEBUG == 1)
{
// Create Debug File to show array values.
// It is CSV style, with ";" as field seperators.
//
// Name: 'Debug File HH-MM.txt'
// Location: 'c:\<<alpari directory>>\experts\files\'
//
file_name = "DebugFile ";
file_name = StringConcatenate (file_name, DoubleToStr(Hour()-2,0), "-");
file_name = StringConcatenate (file_name, DoubleToStr(Minute(),0), ".txt");
file_handle = FileOpen (file_name, FILE_CSV|FILE_WRITE, ";");
Print (file_name, " was opened.");
if(file_handle == -1) {
// File Error occurred
Alert ("An error while opening the file. Last Error: ", GetLastError());
}
}
return(0);
}
MC2Direction::ClockType
MC2Direction::Hour(const MC2Direction& headingDirection) const
{
return Hour(headingDirection.m_angle);
}
void RINGTIME::Ring(const NOWTIME &x)
{
pNow_time = x;
if(pNow_time.Minute() == Minute() && pNow_time.Hour() == Hour()) putchar('\a'),OutputTime_Remark();
if(pNow_time.Day() == Day() && pNow_time.Month() == Month() && pNow_time.Year() == Year()) OutputDate_Remark();
}
void Hour::normalize()
{
*this = Hour( hour() );
}
DBInt DBDate::HoursAD () const
{
DBInt hours = DaysAD () * 24;
return ((FlagsVAR & DBTimeStepHour) == DBTimeStepHour ? hours + Hour () : hours + 12);
}
std::string MDB::MDBDate:: ToString(std::string format_)
{
std::stringstream ss;
for(unsigned int i=0; i< format_.length(); i++)
{
switch(format_[i])
{
case 'y':
ss<<std::setfill('0')<<std::setw(2);
ss<<Year()%100;
break;
case 'Y':
ss<<Year();
break;
case 'm':
ss<<std::setfill('0')<<std::setw(2);
ss<<Month();
break;
case 'M':
ss<<Month();
break;
case 'd':
ss<<std::setfill('0')<<std::setw(2);
ss<<Day();
break;
case 'D':
ss<<Day();
break;
case 'g':
ss<<(Hour()%12);
break;
case 'G':
ss<<Hour();
break;
case 'h':
ss<<std::setfill('0')<<std::setw(2);
ss<<(Hour())%12;
break;
case 'H':
ss<<std::setfill('0')<<std::setw(2);
ss<<Hour();
break;
case 'i':
ss<<std::setfill('0')<<std::setw(2);
ss<<Minute();
break;
case 'I':
ss<<Minute();
break;
case 's':
ss<<std::setfill('0')<<std::setw(2);
ss<<Second();
break;
case 'S':
ss<<Second();
break;
default:
ss<<format_[i];
}
}
return ss.str();
}
