public override double getDoubleValue(double arg)
{
coord = GPAstroEngine.sun_coordinate(arg);
switch (valueType)
{
case ValueType.Longitude:
return(coord.eclipticalLongitude);
case ValueType.Latitude:
return(coord.eclipticalLatitude);
case ValueType.Azimuth:
if (obs != null)
{
GPAstroEngine.calcHorizontal(coord, obs);
return(coord.azimuth);
}
break;
case ValueType.Elevation:
if (obs != null)
{
GPAstroEngine.calcHorizontal(coord, obs);
return(coord.elevation);
}
break;
case ValueType.DeclinationTopo:
return(coord.declination);
case ValueType.RightAscessionTopo:
return(coord.right_ascession);
case ValueType.Declination:
return(coord.declination);
case ValueType.RightAscession:
return(coord.right_ascession);
case ValueType.Distance:
return(coord.distanceFromEarth);
case ValueType.ApparentSiderealTime:
return(coord.apparent_sidereal_time);
case ValueType.MeanSiderealTime:
return(coord.mean_sidereal_time);
case ValueType.DynamicTime:
return(coord.getDynamicTime());
case ValueType.Nutation:
return(coord.getNutation());
case ValueType.Obliquity:
return(coord.getObliquity());
case ValueType.Sankranti:
return(getSankrantiDouble(arg));
case ValueType.SankrantiDistance:
{
double sankranti = getSankrantiDouble(arg);
sankranti = 0.51 - Math.Abs(sankranti - Math.Floor(sankranti) - 0.5);
return(sankranti);
}
default:
break;
}
return(0);
}
public override double getDoubleValue(double arg)
{
coord = GPAstroEngine.moon_coordinate(arg);
switch (valueType)
{
case ValueType.Longitude:
return(coord.eclipticalLongitude);
case ValueType.Latitude:
return(coord.eclipticalLatitude);
case ValueType.Azimuth:
if (obs != null)
{
coord.makeTopocentric(obs);
GPAstroEngine.calcHorizontal(coord, obs);
return(coord.azimuth);
}
break;
case ValueType.Elevation:
if (obs != null)
{
coord.makeTopocentric(obs);
GPAstroEngine.calcHorizontal(coord, obs);
return(coord.elevation);
}
break;
case ValueType.DeclinationTopo:
if (obs != null)
{
coord.makeTopocentric(obs);
return(coord.declination);
}
break;
case ValueType.RightAscessionTopo:
if (obs != null)
{
coord.makeTopocentric(obs);
return(coord.right_ascession);
}
break;
case ValueType.Declination:
return(coord.declination);
case ValueType.RightAscession:
return(coord.right_ascession);
case ValueType.Distance:
return(coord.distanceFromEarth);
case ValueType.ApparentSiderealTime:
return(coord.apparent_sidereal_time);
case ValueType.MeanSiderealTime:
return(coord.mean_sidereal_time);
case ValueType.DynamicTime:
return(coord.getDynamicTime());
case ValueType.Nutation:
return(coord.getNutation());
case ValueType.Obliquity:
return(coord.getObliquity());
case ValueType.NaksatraDistance:
{
double naksatraReal = getNaksatraDouble(arg);
naksatraReal = 0.51 - Math.Abs(naksatraReal - Math.Floor(naksatraReal) - 0.5);
return(naksatraReal);
}
case ValueType.Naksatra:
return(getNaksatraDouble(arg));
default:
break;
}
return(0);
}
/// <summary>
///
/// </summary>
/// <param name="arg">Julian Ephemeris (Dynamical) Time</param>
/// <returns></returns>
public override double getDoubleValue(double arg)
{
coordMoon = GPAstroEngine.moon_coordinate(arg);
coordSun = GPAstroEngine.sun_coordinate(arg);
switch (valueType)
{
case ValueType.Longitude:
return(GPMath.putIn180(coordMoon.eclipticalLongitude - coordSun.eclipticalLongitude));
case ValueType.Latitude:
return(GPMath.putIn180(coordMoon.eclipticalLatitude - coordSun.eclipticalLatitude));
case ValueType.Azimuth:
if (obs != null)
{
coordMoon.makeTopocentric(obs);
GPAstroEngine.calcHorizontal(coordMoon, obs);
GPAstroEngine.calcHorizontal(coordSun, obs);
return(GPMath.putIn180(coordMoon.azimuth - coordSun.azimuth));
}
break;
case ValueType.Elevation:
if (obs != null)
{
coordMoon.makeTopocentric(obs);
GPAstroEngine.calcHorizontal(coordMoon, obs);
GPAstroEngine.calcHorizontal(coordSun, obs);
return(GPMath.putIn180(coordMoon.elevation - coordSun.elevation));
}
break;
case ValueType.DeclinationTopo:
if (obs != null)
{
coordMoon.makeTopocentric(obs);
return(GPMath.putIn180(coordMoon.declination - coordSun.declination));
}
break;
case ValueType.RightAscessionTopo:
if (obs != null)
{
coordMoon.makeTopocentric(obs);
return(GPMath.putIn180(coordMoon.right_ascession - coordSun.right_ascession));
}
break;
case ValueType.Declination:
return(GPMath.putIn180(coordMoon.declination - coordSun.declination));
case ValueType.TithiDistance:
{
double tithi = getTithiDouble();
tithi = 0.51 - Math.Abs(tithi - Math.Floor(tithi) - 0.5);
return(tithi);
}
case ValueType.YogaDistance:
{
double yoga = getYogaDouble(arg);
yoga = 0.51 - Math.Abs(yoga - Math.Floor(yoga) - 0.5);
return(yoga);
}
case ValueType.RightAscession:
return(GPMath.putIn180(coordMoon.right_ascession - coordSun.right_ascession));
case ValueType.RightAscessionAbs:
return(Math.Abs(GPMath.putIn180(coordMoon.right_ascession - coordSun.right_ascession)));
case ValueType.ApparentSiderealTime:
return(coordMoon.apparent_sidereal_time);
case ValueType.MeanSiderealTime:
return(coordMoon.mean_sidereal_time);
case ValueType.DynamicTime:
return(coordMoon.getDynamicTime());
case ValueType.Nutation:
return(coordMoon.getNutation());
case ValueType.Obliquity:
return(coordMoon.getObliquity());
case ValueType.AzimuthElevationDistance:
if (obs != null)
{
coordMoon.makeTopocentric(obs);
GPAstroEngine.calcHorizontal(coordMoon, obs);
GPAstroEngine.calcHorizontal(coordSun, obs);
return(GPMath.arcDistanceDeg(coordMoon.azimuth, coordMoon.elevation, coordSun.azimuth, coordSun.elevation));
}
break;
case ValueType.RigthAscessionDeclinationDistance:
return(GPMath.arcDistanceDeg(coordMoon.right_ascession, coordMoon.declination, coordSun.right_ascession, coordSun.declination));
case ValueType.RigthAscessionDeclinationOpositeDistance:
return(GPMath.arcDistanceDeg(180 + coordMoon.right_ascession, -coordMoon.declination, coordSun.right_ascession, coordSun.declination));
case ValueType.Tithi:
return(getTithiDouble());
case ValueType.Yoga:
return(getYogaDouble(arg));
default:
break;
}
return(0);
}