public StarScannedEvent(DateTime timestamp, string name, string stellarclass, decimal solarmass, decimal radius, decimal absolutemagnitude, long age, decimal temperature, decimal distancefromarrival, decimal?orbitalperiod, decimal rotationperiod, decimal?semimajoraxis, decimal?eccentricity, decimal?orbitalinclination, decimal?periapsis, List <Ring> rings) : base(timestamp, NAME)
{
this.name = name;
this.stellarclass = stellarclass;
this.solarmass = solarmass;
this.radius = radius;
this.absolutemagnitude = absolutemagnitude;
this.age = age;
this.temperature = temperature;
this.distancefromarrival = distancefromarrival;
this.orbitalperiod = orbitalperiod;
this.rotationperiod = rotationperiod;
this.semimajoraxis = semimajoraxis;
this.eccentricity = eccentricity;
this.orbitalinclination = orbitalinclination;
this.periapsis = periapsis;
this.rings = rings;
StarClass starClass = StarClass.FromName(this.stellarclass);
if (starClass != null)
{
this.massprobability = sanitiseCP(starClass.stellarMassCP(solarmass));
this.solarradius = StarClass.solarradius(radius);
this.radiusprobability = sanitiseCP(starClass.stellarRadiusCP(this.solarradius));
this.luminosity = StarClass.luminosity(absolutemagnitude);
this.luminosityprobability = sanitiseCP(starClass.luminosityCP(this.luminosity));
// TODO remove when temperature is in journal
this.temperature = StarClass.temperature(luminosity, this.radius);
this.chromaticity = starClass.chromaticity;
}
}
public void TestStarEravarenth()
{
decimal temp = StarClass.temperature(StarClass.luminosity(6.885925M), 526252032M);
Assert.AreEqual(4138, (int)temp);
}