public void Set(GCHourTime d)
{
hour = d.hour;
min = d.min;
sec = d.sec;
mili = d.mili;
}
public string ShortSandhyaString()
{
GCHourTime start, end;
start = new GCHourTime(this, -96);
end = new GCHourTime(this, -48);
return(string.Format("{0}-{1}", start.ToShortTimeString(), end.ToShortTimeString()));
}
public string ShortMuhurtaString(int nMuhurta)
{
GCHourTime start, end;
start = new GCHourTime(this, nMuhurta * 48);
end = new GCHourTime(this, nMuhurta * 48 + 48);
return(string.Format("{0}-{1}", start.ToShortTimeString(), end.ToShortTimeString()));
}
public GCHourTime(GCHourTime rise, int p)
{
// TODO: Complete member initialization
hour = rise.hour;
min = rise.min;
sec = rise.sec;
mili = rise.mili;
longitude = 0.0;
longitudeMoon = 0.0;
Ayanamsa = 0.0;
AddMinutes(p);
}
public static GCHourTime CalcSunrise(GregorianDateTime vct, GCEarthData earth)
{
double tempSunrise = 180.0;
GCSunData sun = new GCSunData();
for (int i = 0; i < 3; i++)
{
sun.SunPosition(vct, earth, tempSunrise - 180.0);
double x;
// definition of event
double eventdef = 0.01454;
/* switch(ed.obs)
* {
* case 1: // civil twilight
* eventdef = 0.10453;
* break;
* case 2: // nautical twilight
* eventdef = 0.20791;
* break;
* case 3: // astronomical twilight
* eventdef = 0.30902;
* break;
* default:// center of the sun on the horizont
* eventdef = 0.01454;
* break;
* }*/
eventdef = (eventdef / GCMath.cosDeg(earth.latitudeDeg)) / GCMath.cosDeg(sun.declinationDeg);
x = GCMath.tanDeg(earth.latitudeDeg) * GCMath.tanDeg(sun.declinationDeg) + eventdef;
if ((x >= -1.0) && (x <= 1.0))
{
// time of sunrise
tempSunrise = 90.0 - earth.longitudeDeg - GCMath.arcSinDeg(x) + sun.equationOfTime;
}
else
{
// initial values for the case
// that no rise no set for that day
tempSunrise = -360.0;
break;
}
}
GCHourTime result = new GCHourTime();
result.longitude = sun.longitudeDeg;
result.SetDegTime(tempSunrise + earth.OffsetUtcHours * 15.0);
return(result);
}
/*********************************************************************/
/* */
/* Calculation of tithi, paksa, naksatra, yoga for given */
/* Gregorian date */
/* */
/* */
/*********************************************************************/
public int DayCalc(GregorianDateTime date, GCEarthData earth)
{
double d;
// sun position on sunrise on that day
sunRise = GCSunData.CalcSunrise(date, earth);
sunSet = GCSunData.CalcSunset(date, earth);
// arunodaya is 96 min before sunrise
// sunrise_deg is from range 0-360 so 96min=24deg
sunArunodaya.TotalDays = sunRise.TotalDays - 96 / 1440.0;
sunArunodaya.longitude = sunRise.longitude - (24.0 / 365.25);
// noon
sunNoon.TotalDays = (sunSet.TotalDays + sunRise.TotalDays) / 2;
sunNoon.longitude = (sunRise.longitude + sunSet.longitude) / 2;
date.shour = sunRise.TotalDays;
// date.shour is [0..1] time of sunrise in local timezone time
this.JulianDay = date.GetJulianDetailed();
// moon position at sunrise on that day
sunRise.longitudeMoon = GCCoreAstronomy.GetMoonLongitude(date, earth);
this.Ayanamsa = GCAyanamsha.GetAyanamsa(this.JulianDay);
sunArunodaya.Ayanamsa = this.Ayanamsa;
sunRise.Ayanamsa = this.Ayanamsa;
sunNoon.Ayanamsa = this.Ayanamsa;
sunSet.Ayanamsa = this.Ayanamsa;
// masa
this.Masa = -1;
date.shour = sunSet.TotalDays;
sunSet.longitudeMoon = GCCoreAstronomy.GetMoonLongitude(date, earth);
date.shour = sunArunodaya.TotalDays;
sunArunodaya.longitudeMoon = GCCoreAstronomy.GetMoonLongitude(date, earth);
return(1);
}
public static GCHourTime CalcSunset(GregorianDateTime vct, GCEarthData earth)
{
double tempSunset = 180.0;
GCSunData sun = new GCSunData();
for (int i = 0; i < 3; i++)
{
sun.SunPosition(vct, earth, tempSunset - 180.0);
double x;
// definition of event
double eventdef = GCSunData.RiseAngleLevel;
eventdef = (eventdef / GCMath.cosDeg(earth.latitudeDeg)) / GCMath.cosDeg(sun.declinationDeg);
x = GCMath.tanDeg(earth.latitudeDeg) * GCMath.tanDeg(sun.declinationDeg) + eventdef;
if ((x >= -1.0) && (x <= 1.0))
{
// time of sunset
tempSunset = 270.0 - earth.longitudeDeg + GCMath.arcSinDeg(x) + sun.equationOfTime;
}
else
{
// initial values for the case
// that no rise no set for that day
tempSunset = -360.0;
break;
}
}
GCHourTime result = new GCHourTime();
result.longitude = sun.longitudeDeg;
result.SetDegTime(tempSunset + earth.OffsetUtcHours * 15.0);
return(result);
}
public bool IsLessOrEqualThan(GCHourTime dt)
{
if (hour <= dt.hour)
{
return(true);
}
else if (hour > dt.hour)
{
return(false);
}
if (min <= dt.min)
{
return(true);
}
else if (min > dt.min)
{
return(false);
}
if (sec <= dt.sec)
{
return(true);
}
else if (sec > dt.sec)
{
return(false);
}
if (mili <= dt.mili)
{
return(true);
}
return(false);
}
public bool IsGreaterOrEqualThan(GCHourTime dt)
{
if (hour >= dt.hour)
{
return(true);
}
else if (hour < dt.hour)
{
return(false);
}
if (min >= dt.min)
{
return(true);
}
else if (min < dt.min)
{
return(false);
}
if (sec >= dt.sec)
{
return(true);
}
else if (sec < dt.sec)
{
return(false);
}
if (mili >= dt.mili)
{
return(true);
}
return(false);
}
public GCHourTimeObject(GCHourTime v)
{
Value = v;
}
public GCHourTimeObject()
{
Value = new GCHourTime();
}
//==================================================================================
//
//==================================================================================
public static void CalcMoonTimes(GCEarthData e, GregorianDateTime vc, double biasHours, out GCHourTime rise, out GCHourTime set)
{
double UT;
int i;
double prev_elev;
int nType, nFound = 0;
double a, ae, b, be, c = 0, ce = 0, elev;
rise = new GCHourTime();
set = new GCHourTime();
rise.SetValue(-1);
set.SetValue(-1);
// inicializacia prvej hodnoty ELEVATION
vc.shour = (-biasHours - 1.0) / 24.0;
prev_elev = GCCoreAstronomy.GetMoonElevation(e, vc);
// prechod cez vsetky hodiny
for (UT = (-0.1 - biasHours); UT <= (24.1 - biasHours); UT += 1.0)
{
vc.shour = UT / 24.0;
elev = GCCoreAstronomy.GetMoonElevation(e, vc);
if (prev_elev * elev <= 0.0)
{
if (prev_elev <= 0.0)
{
nType = 0x1;
}
else
{
nType = 0x2;
}
a = UT - 1.0;
ae = prev_elev;
b = UT;
be = elev;
for (i = 0; i < 20; i++)
{
c = (a + b) / 2.0;
vc.shour = c / 24.0;
ce = GCCoreAstronomy.GetMoonElevation(e, vc);
if (ae * ce <= 0.0)
{
be = ce;
b = c;
}
else
{
ae = ce;
a = c;
}
}
if (nType == 1)
{
rise.SetDayTime((c + biasHours) / 24.0);
}
else
{
set.SetDayTime((c + biasHours) / 24.0);
}
nFound |= nType;
if (nFound == 0x3)
{
break;
}
}
prev_elev = elev;
}
}
public static int writeGaurabdaTithiXml(string fileName, GCLocation loc, GaurabdaDate vaStart, GaurabdaDate vaEnd)
{
int gyearA = vaStart.gyear;
int gyearB = vaEnd.gyear;
int gmasa = vaStart.masa;
int gpaksa = vaStart.tithi / 15;
int gtithi = vaStart.tithi % 15;
if (gyearB < gyearA)
{
gyearB = gyearA;
}
using (StreamWriter xml = new StreamWriter(fileName))
{
xml.Write("<xml>\n");
xml.Write("\t<request name=\"Tithi\" version=\"");
xml.Write(GCStrings.getString(130));
xml.Write("\">\n");
xml.Write("\t\t<arg name=\"longitude\" val=\"");
xml.Write(loc.Longitude);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"latitude\" val=\"");
xml.Write(loc.Latitude);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"timezone\" val=\"");
xml.Write(loc.OffsetUtcHours);
xml.Write("\" />\n");
if (gyearA > 1500)
{
xml.Write("\t\t<arg name=\"year-start\" val=\"");
xml.Write(gyearA);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"year-end\" val=\"");
xml.Write(gyearB);
xml.Write("\" />\n");
}
else
{
xml.Write("\t\t<arg name=\"gaurabdayear-start\" val=\"");
xml.Write(gyearA);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"gaurabdayear-end\" val=\"");
xml.Write(gyearB);
xml.Write("\" />\n");
}
xml.Write("\t\t<arg name=\"masa\" val=\"");
xml.Write(gmasa);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"paksa\" val=\"");
xml.Write(gpaksa);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"tithi\" val=\"");
xml.Write(gtithi);
xml.Write("\" />\n");
xml.Write("\t</request>\n");
xml.Write("\t<result name=\"Tithi\">\n");
GCEarthData earth = loc.GetEarthData();
GregorianDateTime vcs = new GregorianDateTime(), vce = new GregorianDateTime(), today = new GregorianDateTime();
GCHourTime sun = new GCHourTime();
int A, B;
double sunrise;
GCAstroData day = new GCAstroData();
int oTithi, oPaksa, oMasa, oYear;
if (gyearA > 1500)
{
A = gyearA - 1487;
B = gyearB - 1485;
}
else
{
A = gyearA;
B = gyearB;
}
for (; A <= B; A++)
{
vcs.Set(GCTithi.CalcTithiEnd(A, gmasa, gpaksa, gtithi, earth, out vce));
if (gyearA > 1500)
{
if ((vcs.year < gyearA) || (vcs.year > gyearB))
{
continue;
}
}
oTithi = gpaksa * 15 + gtithi;
oMasa = gmasa;
oPaksa = gpaksa;
oYear = 0;
xml.Write("\t<celebration\n");
// xml.Write("\t\t<tithi\n";
xml.Write("\t\trtithi=\"");
xml.Write(GCTithi.GetName(oTithi));
xml.Write("\"\n");
xml.Write("\t\trmasa=\"");
xml.Write(GCMasa.GetName(oMasa));
xml.Write("\"\n");
xml.Write("\t\trpaksa=\"");
xml.Write(oPaksa != 0 ? "Gaura" : "Krsna");
xml.Write("\"\n");
// test ci je ksaya
today.Set(vcs);
today.shour = 0.5;
sun = GCSunData.CalcSunrise(today, earth);
sunrise = sun.TotalDays;
if (sunrise < vcs.shour)
{
today.Set(vce);
sun = GCSunData.CalcSunrise(today, earth);
sunrise = sun.TotalDays;
if (sunrise < vce.shour)
{
// normal type
vcs.NextDay();
xml.Write("\t\ttype=\"normal\"\n");
}
else
{
// ksaya
vcs.NextDay();
day.DayCalc(vcs, earth);
oTithi = day.sunRise.Tithi;
oPaksa = day.sunRise.Paksa;
oMasa = day.MasaCalc(vcs, earth);
oYear = day.GaurabdaYear;
xml.Write("\t\ttype=\"ksaya\"\n");
}
}
else
{
// normal, alebo prvy den vriddhi
today.Set(vce);
sun = GCSunData.CalcSunrise(today, earth);
if (sun.TotalDays < vce.shour)
{
// first day of vriddhi type
xml.Write("\t\ttype=\"vriddhi\"\n");
}
else
{
// normal
xml.Write("\t\ttype=\"normal\"\n");
}
}
xml.Write("\t\tdate=\"");
xml.Write(vcs);
xml.Write("\"\n");
xml.Write("\t\totithi=\"");
xml.Write(GCTithi.GetName(oTithi));
xml.Write("\"\n");
xml.Write("\t\tomasa=\"");
xml.Write(GCMasa.GetName(oMasa));
xml.Write("\"\n");
xml.Write("\t\topaksa=\"");
xml.Write(GCPaksa.GetName(oPaksa));
xml.Write("\"\n");
xml.Write("\t/>\n");
}
xml.Write("\t</result>\n");
xml.Write("</xml>\n");
}
return(1);
}
public static int writeXml(string fileName, GCLocation loc, GregorianDateTime vc)
{
String str;
GregorianDateTime date;
using (StreamWriter xml = new StreamWriter(fileName))
{
xml.Write("<xml>\n");
xml.Write("\t<request name=\"Tithi\" version=\"");
xml.Write(GCStrings.getString(130));
xml.Write("\">\n");
xml.Write("\t\t<arg name=\"longitude\" val=\"");
xml.Write(loc.Longitude);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"latitude\" val=\"");
xml.Write(loc.Latitude);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"timezone\" val=\"");
xml.Write(loc.OffsetUtcHours);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"startdate\" val=\"");
xml.Write(vc);
xml.Write("\" />\n");
xml.Write("\t</request>\n");
xml.Write("\t<result name=\"Tithi\">\n");
GregorianDateTime d = new GregorianDateTime();
d.Set(vc);
GregorianDateTime d1, d2;
d.TimezoneHours = loc.OffsetUtcHours;
GregorianDateTime dn;
GCHourTime dt = new GCHourTime();
GCEarthData earth = loc.GetEarthData();
GCAstroData day = new GCAstroData();
day.DayCalc(vc, earth);
d.shour = day.sunRise.TotalDays;
GCTithi.GetPrevTithiStart(earth, d, out d1);
GCTithi.GetNextTithiStart(earth, d, out d2);
{
dt.SetDegTime(d1.shour * 360);
// start tithi at t[0]
xml.Write("\t\t<tithi\n\t\t\tid=\"");
xml.Write(day.sunRise.Tithi);
xml.Write("\"\n");
xml.Write("\t\t\tname=\"");
xml.Write(GCTithi.GetName(day.sunRise.Tithi));
xml.Write("\"\n");
xml.Write("\t\t\tstartdate=\"");
xml.Write(d1);
xml.Write("\"\n");
xml.Write("\t\t\tstarttime=\"");
xml.Write(dt);
xml.Write("\"\n");
dt.SetDegTime(d2.shour * 360);
xml.Write("\t\t\tenddate=\"");
xml.Write(d2);
xml.Write("\"\n");
xml.Write("\t\t\tendtime=\"");
xml.Write(dt);
xml.Write("\"\n />");
}
xml.Write("\t</result>\n");
xml.Write("</xml>\n");
}
return(1);
}
public static int writeXml(string fileName, GCLocation loc, GregorianDateTime vc, int nDaysCount)
{
using (StreamWriter xml = new StreamWriter(fileName))
{
xml.Write("<xml>\n");
xml.Write("\t<request name=\"Naksatra\" version=\"");
xml.Write(GCStrings.getString(130));
xml.Write("\">\n");
xml.Write("\t\t<arg name=\"longitude\" val=\"");
xml.Write(loc.Longitude);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"latitude\" val=\"");
xml.Write(loc.Latitude);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"timezone\" val=\"");
xml.Write(loc.OffsetUtcHours);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"startdate\" val=\"");
xml.Write(vc);
xml.Write("\" />\n");
xml.Write("\t\t<arg name=\"daycount\" val=\"");
xml.Write(nDaysCount);
xml.Write("\" />\n");
xml.Write("\t</request>\n");
xml.Write("\t<result name=\"Naksatra\">\n");
GregorianDateTime d = new GregorianDateTime();
d.Set(vc);
d.TimezoneHours = loc.OffsetUtcHours;
GregorianDateTime dn;
GCHourTime dt = new GCHourTime();
int nak;
GCEarthData earth = loc.GetEarthData();
for (int i = 0; i < 30; i++)
{
nak = GCNaksatra.GetNextNaksatra(earth, d, out dn);
d.Set(dn);
xml.Write("\t\t<day date=\"");
xml.Write(d);
xml.Write("\">\n");
//str.Format("%d.%d.%d", d.day, d.month, d.year);
//n = m_list.InsertItem(50, GetNaksatraName(nak));
//m_list.SetItemText(n, 1, str);
xml.Write("\t\t\t<naksatra id=\"");
xml.Write(nak);
xml.Write("\" name=\"");
xml.Write(GCNaksatra.GetName(nak));
xml.Write("\"\n");
dt.SetDegTime(d.shour * 360);
//time_print(str, dt);
xml.Write("\t\t\t\tstarttime=\"");
xml.Write(dt);
xml.Write("\" />\n");
//m_list.SetItemText(n, 2, str);
//time_print(str, sun.rise);
//m_list.SetItemText(n, 3, str);
xml.Write("\t\t\t<sunrise time=\"");
xml.Write(GCSunData.CalcSunrise(d, earth));
xml.Write("\" />\n");
xml.Write("\t\t</day>\n");
// increment for non-duplication of naksatra
d.Set(dn);
d.shour += 1.0 / 8.0;
}
xml.Write("\t</result>\n");
xml.Write("</xml>\n");
}
return(1);
}