private Body ParseStarMapBody(JObject body, string systemName)
{
// General items
long? bodyId = (long?)body["bodyId"];
long? EDSMID = (long?)body["id"];
string bodyname = (string)body["name"];
BodyType bodyType = BodyType.FromName((string)body["type"]) ?? BodyType.None;
decimal? distanceLs = (decimal?)body["distanceToArrival"]; // Light Seconds
decimal? temperatureKelvin = (long?)body["surfaceTemperature"]; // Kelvin
// Orbital characteristics
decimal?orbitalPeriodDays = (decimal?)body["orbitalPeriod"]; // Days
decimal?semimajoraxisLs = ConstantConverters.au2ls((decimal?)body["semiMajorAxis"]); // Light seconds
decimal?eccentricity = (decimal?)body["orbitalEccentricity"];
decimal?orbitalInclinationDegrees = (decimal?)body["orbitalInclination"]; // Degrees
decimal?periapsisDegrees = (decimal?)body["argOfPeriapsis"]; // Degrees
decimal?rotationPeriodDays = (decimal?)body["rotationalPeriod"]; // Days
decimal?axialTiltDegrees = (decimal?)body["axialTilt"]; // Degrees
List <IDictionary <string, object> > parents = new List <IDictionary <string, object> >();
if (body["parents"] != null)
{
// Parent body types and IDs
parents = body["parents"].ToObject <List <IDictionary <string, object> > >() ?? new List <IDictionary <string, object> >();
}
List <Ring> rings = new List <Ring>();
if ((JArray)body["rings"] != null || (JArray)body["belts"] != null)
{
var ringsData = body["rings"] ?? body["belts"];
if (ringsData != null)
{
foreach (JObject ring in ringsData)
{
rings.Add(new Ring(
(string)ring["name"],
RingComposition.FromName((string)ring["type"]),
(decimal)ring["mass"],
(decimal)ring["innerRadius"],
(decimal)ring["outerRadius"]
));
}
}
}
if ((string)body["type"] == "Star")
{
// Star-specific items
string stellarclass = ((string)body["subType"]).Split(' ')[0]; // Splits "B (Blue-White) Star" to "B"
int? stellarsubclass = null;
string endOfStellarClass = stellarclass.ToCharArray().ElementAt(stellarclass.Length - 1).ToString();
if (int.TryParse(endOfStellarClass, out int subclass))
{
// If our stellarclass ends in a number, we need to separate the class from the subclass
stellarsubclass = subclass;
stellarclass = stellarclass.Replace(endOfStellarClass, "");
}
long? ageMegaYears = (long?)body["age"]; // Age in megayears
string luminosityclass = (string)body["luminosity"];
decimal?absolutemagnitude = (decimal?)body["absoluteMagnitude"];
decimal?stellarMass = (decimal?)body["solarMasses"];
decimal?solarradius = (decimal?)body["solarRadius"];
decimal radiusKm = (decimal)(solarradius != null ? solarradius * Constants.solarRadiusMeters / 1000 : null);
Body Body = new Body(bodyname, bodyId, parents, distanceLs, stellarclass, stellarsubclass, stellarMass,
radiusKm, absolutemagnitude, ageMegaYears, temperatureKelvin, luminosityclass, semimajoraxisLs,
eccentricity, orbitalInclinationDegrees, periapsisDegrees, orbitalPeriodDays, rotationPeriodDays,
axialTiltDegrees, rings, true, false, systemName, null)
{
EDSMID = EDSMID
};
DateTime updatedAt = JsonParsing.getDateTime("updateTime", body);
Body.updatedat = updatedAt == null ? null : (long?)Dates.fromDateTimeToSeconds(updatedAt);
return(Body);
}
if ((string)body["type"] == "Planet")
{
// Planet and moon specific items
PlanetClass planetClass = PlanetClass.FromName((string)body["subType"]) ?? PlanetClass.None;
bool? tidallylocked = (bool?)body["rotationalPeriodTidallyLocked"] ?? false;
bool? landable = (bool?)body["isLandable"];
decimal? gravity = (decimal?)body["gravity"]; // G's
decimal? earthmass = (decimal?)body["earthMasses"];
decimal? radiusKm = (decimal?)body["radius"]; // Kilometers
TerraformState terraformState = TerraformState.FromName((string)body["terraformingState"]) ?? TerraformState.NotTerraformable;
Volcanism volcanism = null;
if ((string)body["volcanismType"] != null)
{
volcanism = Volcanism.FromName((string)body["volcanismType"]);
}
List <AtmosphereComposition> atmosphereCompositions = new List <AtmosphereComposition>();
if (body["atmosphereComposition"] is JObject)
{
var compositions = body["atmosphereComposition"].ToObject <Dictionary <string, decimal?> >();
foreach (KeyValuePair <string, decimal?> compositionKV in compositions)
{
string compositionName = compositionKV.Key;
decimal?share = compositionKV.Value;
if (compositionName != null && share != null)
{
atmosphereCompositions.Add(new AtmosphereComposition(compositionName, (decimal)share));
}
}
if (atmosphereCompositions.Count > 0)
{
atmosphereCompositions = atmosphereCompositions.OrderByDescending(x => x.percent).ToList();
}
}
decimal? pressureAtm = (decimal?)body["surfacePressure"];
AtmosphereClass atmosphereClass = null;
if (((string)body["subType"]).Contains("gas giant") &&
(string)body["atmosphereType"] == "No atmosphere")
{
// EDSM classifies any body with an empty string atmosphere property as "No atmosphere".
// However, gas giants also receive an empty string. Fix it, since gas giants have atmospheres.
atmosphereClass = AtmosphereClass.FromEDName("GasGiant");
}
else
{
atmosphereClass = AtmosphereClass.FromName((string)body["atmosphereType"]);
}
List <SolidComposition> solidCompositions = new List <SolidComposition>();
if (body["solidComposition"] is JObject)
{
var compositions = body["solidComposition"].ToObject <Dictionary <string, decimal?> >();
foreach (KeyValuePair <string, decimal?> compositionKV in compositions)
{
string composition = compositionKV.Key;
decimal?share = compositionKV.Value;
if (composition != null && share != null)
{
solidCompositions.Add(new SolidComposition(composition, (decimal)share));
}
}
if (solidCompositions.Count > 0)
{
solidCompositions = solidCompositions.OrderByDescending(x => x.percent).ToList();
}
}
List <MaterialPresence> materials = new List <MaterialPresence>();
if (body["materials"] is JObject)
{
var materialsData = body["materials"].ToObject <Dictionary <string, decimal?> >();
foreach (KeyValuePair <string, decimal?> materialKV in materialsData)
{
Material material = Material.FromName(materialKV.Key);
decimal? amount = materialKV.Value;
if (material != null && amount != null)
{
materials.Add(new MaterialPresence(material, (decimal)amount));
}
}
if (materials.Count > 0)
{
materials = materials.OrderByDescending(o => o.percentage).ToList();
}
}
ReserveLevel reserveLevel = ReserveLevel.FromName((string)body["reserveLevel"]) ?? ReserveLevel.None;
DateTime updatedAt = JsonParsing.getDateTime("updateTime", body);
Body Body = new Body(bodyname, bodyId, parents, distanceLs, tidallylocked, terraformState, planetClass, atmosphereClass, atmosphereCompositions, volcanism, earthmass, radiusKm, (decimal)gravity, temperatureKelvin, pressureAtm, landable, materials, solidCompositions, semimajoraxisLs, eccentricity, orbitalInclinationDegrees, periapsisDegrees, orbitalPeriodDays, rotationPeriodDays, axialTiltDegrees, rings, reserveLevel, true, true, systemName, null)
{
EDSMID = EDSMID,
updatedat = updatedAt == null ? null : (long?)Dates.fromDateTimeToSeconds(updatedAt)
};
return(Body);
}
return(null);
}
public string DisplayString(int indent = 0, bool includefront = true, MaterialCommoditiesList historicmatlist = null, MaterialCommoditiesList currentmatlist = null)
{
string inds = new string(' ', indent);
StringBuilder scanText = new StringBuilder();
scanText.Append(inds);
if (includefront)
{
scanText.AppendFormat("{0} {1}\n\n", BodyName, IsEDSMBody ? " (EDSM)" : "");
if (IsStar)
{
scanText.AppendFormat(GetStarTypeName());
}
else if (PlanetClass != null)
{
scanText.AppendFormat("{0}", PlanetClass);
if (!PlanetClass.ToLower().Contains("gas"))
{
scanText.AppendFormat((Atmosphere == null || Atmosphere == String.Empty) ? ", No Atmosphere" : (", " + Atmosphere));
}
}
if (IsLandable)
{
scanText.AppendFormat(", Landable");
}
scanText.AppendFormat("\n");
if (HasAtmosphericComposition)
{
scanText.Append("\n" + DisplayAtmosphere(2));
}
if (HasPlanetaryComposition)
{
scanText.Append("\n" + DisplayComposition(2));
}
if (HasPlanetaryComposition || HasAtmosphericComposition)
{
scanText.Append("\n\n");
}
if (nAge.HasValue)
{
scanText.AppendFormat("Age: {0} million years\n", nAge.Value.ToString("N0"));
}
if (nStellarMass.HasValue)
{
scanText.AppendFormat("Solar Masses: {0:0.00}\n", nStellarMass.Value);
}
if (nMassEM.HasValue)
{
scanText.AppendFormat("Earth Masses: {0:0.0000}\n", nMassEM.Value);
}
if (nRadius.HasValue)
{
if (IsStar)
{
scanText.AppendFormat("Solar Radius: {0:0.00} Sols\n", (nRadius.Value / solarRadius_m));
}
else
{
scanText.AppendFormat("Body Radius: {0:0.00}km\n", (nRadius.Value / 1000));
}
}
}
if (nSurfaceTemperature.HasValue)
{
scanText.AppendFormat("Surface Temp: {0}K\n", nSurfaceTemperature.Value.ToString("N0"));
}
if (Luminosity != null)
{
scanText.AppendFormat("Luminosity: {0}\n", Luminosity);
}
if (nSurfaceGravity.HasValue)
{
scanText.AppendFormat("Gravity: {0:0.0}g\n", nSurfaceGravity.Value / oneGee_m_s2);
}
if (nSurfacePressure.HasValue && nSurfacePressure.Value > 0.00 && !PlanetClass.ToLower().Contains("gas"))
{
if (nSurfacePressure.Value > 1000)
{
scanText.AppendFormat("Surface Pressure: {0} Atmospheres\n", (nSurfacePressure.Value / oneAtmosphere_Pa).ToString("N2"));
}
else
{
{ scanText.AppendFormat("Surface Pressure: {0} Pa\n", (nSurfacePressure.Value).ToString("N2")); }
}
}
if (Volcanism != null)
{
scanText.AppendFormat("Volcanism: {0}\n", Volcanism == String.Empty ? "No Volcanism" : System.Threading.Thread.CurrentThread.CurrentCulture.TextInfo.
ToTitleCase(Volcanism.ToLower()));
}
if (DistanceFromArrivalLS > 0)
{
scanText.AppendFormat("Distance from Arrival Point {0:N1}ls\n", DistanceFromArrivalLS);
}
if (nOrbitalPeriod.HasValue && nOrbitalPeriod > 0)
{
scanText.AppendFormat("Orbital Period: {0} days\n", (nOrbitalPeriod.Value / oneDay_s).ToString("N1"));
}
if (nSemiMajorAxis.HasValue)
{
if (IsStar || nSemiMajorAxis.Value > oneAU_m / 10)
{
scanText.AppendFormat("Semi Major Axis: {0:0.00}AU\n", (nSemiMajorAxis.Value / oneAU_m));
}
else
{
scanText.AppendFormat("Semi Major Axis: {0}km\n", (nSemiMajorAxis.Value / 1000).ToString("N1"));
}
}
if (nEccentricity.HasValue)
{
scanText.AppendFormat("Orbital Eccentricity: {0:0.000}\n", nEccentricity.Value);
}
if (nOrbitalInclination.HasValue)
{
scanText.AppendFormat("Orbital Inclination: {0:0.000}°\n", nOrbitalInclination.Value);
}
if (nPeriapsis.HasValue)
{
scanText.AppendFormat("Arg Of Periapsis: {0:0.000}°\n", nPeriapsis.Value);
}
if (nAbsoluteMagnitude.HasValue)
{
scanText.AppendFormat("Absolute Magnitude: {0:0.00}\n", nAbsoluteMagnitude.Value);
}
if (nAxialTilt.HasValue)
{
scanText.AppendFormat("Axial tilt: {0:0.00}°\n", nAxialTilt.Value * 180.0 / Math.PI);
}
if (nRotationPeriod.HasValue)
{
scanText.AppendFormat("Rotation Period: {0} days\n", (nRotationPeriod.Value / oneDay_s).ToString("N1"));
}
if (nTidalLock.HasValue && nTidalLock.Value)
{
scanText.Append("Tidally locked\n");
}
if (Terraformable)
{
scanText.Append("Candidate for terraforming\n");
}
if (HasRings)
{
scanText.Append("\n");
if (IsStar)
{
scanText.AppendFormat("Belt{0}", Rings.Count() == 1 ? ":" : "s:");
for (int i = 0; i < Rings.Length; i++)
{
if (Rings[i].MassMT > (oneMoon_MT / 10000))
{
scanText.Append("\n" + RingInformation(i, 1.0 / oneMoon_MT, " Moons"));
}
else
{
scanText.Append("\n" + RingInformation(i));
}
}
}
else
{
scanText.AppendFormat("Ring{0}", Rings.Count() == 1 ? ":" : "s:");
for (int i = 0; i < Rings.Length; i++)
{
scanText.Append("\n" + RingInformation(i));
}
}
}
if (HasMaterials)
{
scanText.Append("\n" + DisplayMaterials(2, historicmatlist, currentmatlist) + "\n");
}
string habzonestring = HabZoneString();
if (habzonestring != null)
{
scanText.Append("\n" + habzonestring);
}
if (scanText.Length > 0 && scanText[scanText.Length - 1] == '\n')
{
scanText.Remove(scanText.Length - 1, 1);
}
if (EstimatedValue > 0)
{
scanText.AppendFormat("\nEstimated value: {0:N0}", EstimatedValue);
}
if (EDSMDiscoveryCommander != null)
{
scanText.AppendFormat("\n\nDiscovered by " + EDSMDiscoveryCommander + " on " + EDSMDiscoveryUTC.ToStringZulu());
}
return(scanText.ToNullSafeString().Replace("\n", "\n" + inds));
}
public static List <Body> BodiesFromEDDP(string systemName, dynamic json)
{
List <Body> Bodies = new List <Body>();
if (json["bodies"] != null)
{
foreach (dynamic body in json["bodies"])
{
if ((string)body["group_name"] == "Belt")
{
// Not interested in asteroid belts
continue;
}
Body Body = new Body();
// General items
Body.EDDBID = (long)body["id"];
Body.name = (string)body["name"];
Body.systemname = systemName;
Body.type = (string)body["group_name"];
Body.distance = (long?)body["distance_to_arrival"];
Body.temperature = (long?)body["surface_temperature"];
Body.tidallylocked = (bool?)body["is_rotational_period_tidally_locked"];
if (Body.type == "Star")
{
// Star-specific items
Body.stellarclass = (string)body["spectral_class"];
Body.solarmass = (decimal?)(double?)body["solar_masses"];
Body.solarradius = (decimal?)(double?)body["solar_radius"];
Body.age = (long?)body["age"];
Body.mainstar = (bool?)body["is_main_star"];
Body.landable = false;
}
if (Body.type == "Planet")
{
// Planet-specific items
Body.landable = (bool?)body["is_landable"];
Body.periapsis = (decimal?)(double?)body["arg_of_periapsis"];
Body.atmosphere = (string)body["atmosphere_type_name"];
Body.tilt = (decimal?)(double?)body["axis_tilt"];
Body.earthmass = (decimal?)(double?)body["earth_masses"];
Body.gravity = (decimal?)(double?)body["gravity"];
Body.eccentricity = (decimal?)(double?)body["orbital_eccentricity"];
Body.inclination = (decimal?)(double?)body["orbital_inclination"];
decimal?orbitalPeriodSeconds = (decimal?)(double?)body["orbital_period"];
Body.orbitalperiod = orbitalPeriodSeconds / (24.0M * 60.0M * 60.0M);
Body.radius = (long?)body["radius"];
Body.rotationalperiod = (decimal?)(double?)body["rotational_period"];
Body.semimajoraxis = (decimal?)(double?)body["semi_major_axis"];
Body.pressure = (decimal?)(double?)body["surface_pressure"];
Body.terraformstate = (string)body["terraforming_state_name"];
Body.planettype = (string)body["type_name"];
// Volcanism might be a simple name or an object
if (body["volcanism_type_name"] != null)
{
Body.volcanism = Volcanism.FromName((string)body["volcanism_type_name"]);
}
if (body["volcanism"] != null)
{
Body.volcanism = new Volcanism((string)body["volcanism"]["type"], (string)body["volcanism"]["composition"], (string)body["volcanism"]["amount"]);
}
if (body["materials"] != null)
{
List <MaterialPresence> Materials = new List <MaterialPresence>();
foreach (dynamic materialJson in body["materials"])
{
Material material = Material.FromName((string)materialJson["material_name"]);
decimal? amount = (decimal?)(double?)materialJson["share"];
if (material != null && amount != null)
{
Materials.Add(new MaterialPresence(material, (decimal)amount));
}
}
if (Materials.Count > 0)
{
Body.materials = Materials.OrderByDescending(o => o.percentage).ToList();
}
}
}
Bodies.Add(Body);
}
}
// Sort bodies by distance
return(Bodies.OrderBy(o => o.distance).ToList());
}
public BodyScannedEvent(DateTime timestamp, string name, string bodyclass, decimal?earthmass, decimal?radius, decimal gravity, decimal?temperature, decimal?pressure, bool?tidallylocked, bool?landable, string atmosphere, Volcanism volcanism, decimal distancefromarrival, decimal orbitalperiod, decimal rotationperiod, decimal?semimajoraxis, decimal?eccentricity, decimal?orbitalinclination, decimal?periapsis, List <Ring> rings, string reserves, List <MaterialPresence> materials, string terraformstate, decimal?axialtilt) : base(timestamp, NAME)
{
this.name = name;
this.distancefromarrival = distancefromarrival;
this.bodyclass = bodyclass;
this.earthmass = earthmass;
this.radius = radius;
this.gravity = gravity;
this.temperature = temperature;
this.pressure = pressure;
this.tidallylocked = tidallylocked;
this.landable = landable;
this.atmosphere = atmosphere;
this.volcanism = volcanism;
this.orbitalperiod = orbitalperiod;
this.rotationperiod = rotationperiod;
this.semimajoraxis = semimajoraxis;
this.eccentricity = eccentricity;
this.orbitalinclination = orbitalinclination;
this.periapsis = periapsis;
this.rings = rings;
this.reserves = reserves;
this.materials = materials;
this.terraformstate = terraformstate;
this.axialtilt = axialtilt;
}
private static Body ParseEddbBody(object response)
{
JObject bodyJson = ((JObject)response);
Body Body = new Body
{
// General items
EDDBID = (long)bodyJson["id"],
updatedat = (long)(Dates.fromDateTimeStringToSeconds((string)bodyJson["updated_at"])),
name = (string)bodyJson["name"],
Type = BodyType.FromEDName((string)bodyJson["group_name"]),
systemEDDBID = (long)bodyJson["system_id"],
// Orbital data
distance = (decimal?)bodyJson["distance_to_arrival"], // Light seconds
temperature = (decimal?)bodyJson["surface_temperature"], //Kelvin
tidallylocked = (bool?)bodyJson["is_rotational_period_tidally_locked"] ?? false, // Days
rotationalperiod = (decimal?)(double?)bodyJson["rotational_period"], // Days
tilt = (decimal?)(double?)bodyJson["axis_tilt"], // Degrees
semimajoraxis = ConstantConverters.au2ls((decimal?)(double?)bodyJson["semi_major_axis"]), // Light Seconds
orbitalperiod = (decimal?)(double?)bodyJson["orbital_period"], // Days
periapsis = (decimal?)(double?)bodyJson["arg_of_periapsis"], // Degrees
eccentricity = (decimal?)(double?)bodyJson["orbital_eccentricity"],
inclination = (decimal?)(double?)bodyJson["orbital_inclination"] // Degrees
};
if ((string)bodyJson["group_name"] == "belt")
{
// Not interested in asteroid belts,
// no need to add additional information at this time.
}
else if ((string)bodyJson["group_name"] == "star")
{
// Star-specific items
Body.stellarclass = ((string)bodyJson["spectral_class"])?.ToUpperInvariant();
Body.luminosityclass = ((string)bodyJson["luminosity_class"])?.ToUpperInvariant();
Body.solarmass = (decimal?)(double?)bodyJson["solar_masses"];
Body.solarradius = (decimal?)(double?)bodyJson["solar_radius"];
Body.age = (long?)bodyJson["age"]; // MegaYears
Body.mainstar = (bool?)bodyJson["is_main_star"];
Body.landable = false;
Body.setStellarExtras();
}
else if ((string)bodyJson["group_name"] == "planet")
{
// Planet-specific items
Body.planetClass = PlanetClass.FromEDName((string)bodyJson["type_name"]);
Body.landable = (bool?)bodyJson["is_landable"] ?? false;
Body.earthmass = (decimal?)(double?)bodyJson["earth_masses"];
Body.gravity = (decimal?)(double?)bodyJson["gravity"]; // G's
Body.radius = (decimal?)bodyJson["radius"]; // Kilometers
Body.pressure = (decimal?)(double?)bodyJson["surface_pressure"] ?? 0;
Body.terraformState = TerraformState.FromName((string)bodyJson["terraforming_state_name"]);
// Per Themroc @ EDDB, "Major" and "Minor" volcanism descriptors are stripped from EDDB data.
Body.volcanism = Volcanism.FromName((string)bodyJson["volcanism_type_name"]);
Body.atmosphereclass = AtmosphereClass.FromName((string)bodyJson["atmosphere_type_name"]);
if (bodyJson["atmosphere_composition"] != null)
{
List <AtmosphereComposition> atmosphereCompositions = new List <AtmosphereComposition>();
foreach (JObject atmoJson in bodyJson["atmosphere_composition"])
{
string composition = (string)atmoJson["atmosphere_component_name"];
decimal?share = (decimal?)atmoJson["share"];
if (composition != null && share != null)
{
atmosphereCompositions.Add(new AtmosphereComposition(composition, (decimal)share));
}
}
if (atmosphereCompositions.Count > 0)
{
atmosphereCompositions = atmosphereCompositions.OrderByDescending(x => x.percent).ToList();
Body.atmospherecompositions = atmosphereCompositions;
}
}
if (bodyJson["solid_composition"] != null)
{
List <SolidComposition> bodyCompositions = new List <SolidComposition>();
foreach (JObject bodyCompJson in bodyJson["solid_composition"])
{
string composition = (string)bodyCompJson["solid_component_name"];
decimal?share = (decimal?)bodyCompJson["share"];
if (composition != null && share != null)
{
bodyCompositions.Add(new SolidComposition(composition, (decimal)share));
}
}
if (bodyCompositions.Count > 0)
{
bodyCompositions = bodyCompositions.OrderByDescending(x => x.percent).ToList();
Body.solidcompositions = bodyCompositions;
}
}
if (bodyJson["materials"] != null)
{
List <MaterialPresence> Materials = new List <MaterialPresence>();
foreach (JObject materialJson in bodyJson["materials"])
{
Material material = Material.FromEDName((string)materialJson["material_name"]);
decimal? amount = (decimal?)(double?)materialJson["share"];
if (material != null && amount != null)
{
Materials.Add(new MaterialPresence(material, (decimal)amount));
}
}
if (Materials.Count > 0)
{
Body.materials = Materials.OrderByDescending(o => o.percentage).ToList();
}
}
}
// Rings may be an object or may be a singular
List <Ring> rings = new List <Ring>();
if (bodyJson["rings"] != null)
{
foreach (JObject ringJson in bodyJson["rings"])
{
string name = (string)ringJson["name"];
RingComposition composition = RingComposition.FromName((string)ringJson["ring_type_name"]);
decimal ringMassMegaTons = (decimal)ringJson["ring_mass"];
decimal innerRadiusKm = (decimal)ringJson["ring_inner_radius"];
decimal outerRadiusKm = (decimal)ringJson["ring_outer_radius"];
Ring ring = new Ring(name, composition, ringMassMegaTons, innerRadiusKm, outerRadiusKm);
rings.Add(ring);
}
}
if (bodyJson["ring_type_name"].HasValues)
{
string name = (string)bodyJson["name"];
RingComposition composition = RingComposition.FromName((string)bodyJson["ring_type_name"]);
decimal ringMassMegaTons = (decimal)bodyJson["ring_mass"];
decimal innerRadiusKm = (decimal)bodyJson["ring_inner_radius"];
decimal outerRadiusKm = (decimal)bodyJson["ring_outer_radius"];
Ring ring = new Ring(name, composition, ringMassMegaTons, innerRadiusKm, outerRadiusKm);
rings.Add(ring);
}
if (rings.Count > 0)
{
Body.rings = rings.OrderBy(o => o.innerradius).ToList();
}
return(Body);
}
} // One of AutoScan, Basic, Detailed, NavBeacon, NavBeaconDetail
// AutoScan events are detailed scans triggered via proximity.
public BodyScannedEvent(DateTime timestamp, string scantype, string name, string systemName, PlanetClass planetClass, decimal?earthmass, decimal?radiusKm, decimal gravity, decimal?temperatureKelvin, decimal?pressureAtm, bool?tidallylocked, bool?landable, AtmosphereClass atmosphereClass, List <AtmosphereComposition> atmosphereComposition, List <SolidComposition> solidCompositions, Volcanism volcanism, decimal distancefromarrival_Ls, decimal orbitalperiodDays, decimal rotationperiodDays, decimal?semimajoraxisAU, decimal?eccentricity, decimal?orbitalinclinationDegrees, decimal?periapsisDegrees, List <Ring> rings, string reserves, List <MaterialPresence> materials, TerraformState terraformstate, decimal?axialtiltDegrees) : base(timestamp, NAME)
{
this.scantype = scantype;
this.name = name;
this.systemname = systemName;
this.distancefromarrival = distancefromarrival_Ls;
this.planetClass = planetClass;
this.earthmass = earthmass;
this.radius = radiusKm;
this.gravity = gravity;
this.temperature = temperatureKelvin;
this.pressure = pressureAtm;
this.tidallylocked = tidallylocked;
this.landable = landable;
this.atmosphereclass = atmosphereClass;
this.atmospherecomposition = atmosphereComposition;
this.solidcomposition = solidCompositions;
this.volcanism = volcanism;
this.orbitalperiod = orbitalperiodDays;
this.rotationperiod = rotationperiodDays;
this.semimajoraxis = semimajoraxisAU;
this.eccentricity = eccentricity;
this.orbitalinclination = orbitalinclinationDegrees;
this.periapsis = periapsisDegrees;
this.rings = rings;
this.reserves = reserves;
this.materials = materials;
this.terraformState = terraformstate;
this.axialtilt = axialtiltDegrees;
this.estimatedvalue = estimateValue(scantype == null ? false : scantype.Contains("Detail"));
}
private static Body ParseStarMapBody(JObject body, string system)
{
Body Body = new Body
{
// General items
EDSMID = (long?)body["id"],
name = (string)body["name"],
systemname = system,
Type = BodyType.FromName((string)body["type"]) ?? BodyType.None,
distance = (decimal?)body["distanceToArrival"], // Light Seconds
temperature = (long?)body["surfaceTemperature"], // Kelvin
// Orbital characteristics
orbitalperiod = (decimal?)body["orbitalPeriod"], // Days
semimajoraxis = ConstantConverters.au2ls((decimal?)body["semiMajorAxis"]), // Light seconds
eccentricity = (decimal?)body["orbitalEccentricity"],
inclination = (decimal?)body["orbitalInclination"], // Degrees
periapsis = (decimal?)body["argOfPeriapsis"], // Degrees
rotationalperiod = (decimal?)body["rotationalPeriod"], // Days
tidallylocked = (bool?)body["rotationalPeriodTidallyLocked"] ?? false,
tilt = (decimal?)body["axialTilt"] // Degrees
};
if ((string)body["type"] == "Belt")
{
// Not interested in asteroid belts,
// no need to add additional information at this time.
}
if ((string)body["type"] == "Star")
{
// Star-specific items
Body.stellarclass = ((string)body["subType"]).Split(' ')[0]; // Splits "B (Blue-White) Star" to "B"
Body.mainstar = (bool?)body["isMainStar"];
Body.age = (long?)body["age"]; // Age in megayears
Body.luminosityclass = (string)body["luminosity"];
Body.absoluteMagnitude = (decimal?)body["absoluteMagnitude"];
Body.solarmass = (decimal?)body["solarMasses"];
Body.solarradius = (decimal?)body["solarRadius"];
Body.landable = false;
Body.setStellarExtras();
}
if ((string)body["type"] == "Planet")
{
// Planet-specific items
Body.planetClass = PlanetClass.FromName((string)body["subType"]) ?? PlanetClass.None;
Body.landable = (bool?)body["isLandable"];
Body.gravity = (decimal?)body["gravity"]; // G's
Body.earthmass = (decimal?)body["earthMasses"];
Body.radius = (decimal?)body["radius"]; // Kilometers
Body.terraformState = TerraformState.FromName((string)body["terraformingState"]) ?? TerraformState.NotTerraformable;
if ((string)body["volcanismType"] != null)
{
Body.volcanism = Volcanism.FromName((string)body["volcanismType"]);
}
if (body["atmosphereComposition"] is JObject)
{
List <AtmosphereComposition> atmosphereCompositions = new List <AtmosphereComposition>();
var compositions = body["atmosphereComposition"].ToObject <Dictionary <string, decimal?> >();
foreach (KeyValuePair <string, decimal?> compositionKV in compositions)
{
string compositionName = compositionKV.Key;
decimal?share = compositionKV.Value;
if (compositionName != null && share != null)
{
atmosphereCompositions.Add(new AtmosphereComposition(compositionName, (decimal)share));
}
}
if (atmosphereCompositions.Count > 0)
{
atmosphereCompositions = atmosphereCompositions.OrderByDescending(x => x.percent).ToList();
Body.atmospherecompositions = atmosphereCompositions;
}
}
Body.pressure = (decimal?)body["surfacePressure"];
if (((string)body["subType"]).Contains("gas giant") &&
(string)body["atmosphereType"] == "No atmosphere")
{
// EDSM classifies any body with an empty string atmosphere property as "No atmosphere".
// However, gas giants also receive an empty string. Fix it, since gas giants have atmospheres.
Body.atmosphereclass = AtmosphereClass.FromEDName("GasGiant");
}
else
{
Body.atmosphereclass = AtmosphereClass.FromName((string)body["atmosphereType"]);
}
if (body["solidComposition"] is JObject)
{
List <SolidComposition> bodyCompositions = new List <SolidComposition>();
var compositions = body["solidComposition"].ToObject <Dictionary <string, decimal?> >();
foreach (KeyValuePair <string, decimal?> compositionKV in compositions)
{
string composition = compositionKV.Key;
decimal?share = compositionKV.Value;
if (composition != null && share != null)
{
bodyCompositions.Add(new SolidComposition(composition, (decimal)share));
}
}
if (bodyCompositions.Count > 0)
{
bodyCompositions = bodyCompositions.OrderByDescending(x => x.percent).ToList();
Body.solidcompositions = bodyCompositions;
}
}
if (body["materials"] is JObject)
{
List <MaterialPresence> Materials = new List <MaterialPresence>();
var materials = body["materials"].ToObject <Dictionary <string, decimal?> >();
foreach (KeyValuePair <string, decimal?> materialKV in materials)
{
Material material = Material.FromName(materialKV.Key);
decimal? amount = materialKV.Value;
if (material != null && amount != null)
{
Materials.Add(new MaterialPresence(material, (decimal)amount));
}
}
if (Materials.Count > 0)
{
Body.materials = Materials.OrderByDescending(o => o.percentage).ToList();
}
}
}
if ((JArray)body["rings"] != null || (JArray)body["belts"] != null)
{
var rings = body["rings"] ?? body["belts"];
if (rings != null)
{
List <Ring> Rings = new List <Ring>();
foreach (JObject ring in rings)
{
Rings.Add(new Ring(
(string)ring["name"],
RingComposition.FromName((string)ring["type"]),
(decimal)ring["mass"],
(decimal)ring["innerRadius"],
(decimal)ring["outerRadius"]
));
}
Body.rings = Rings;
}
}
Body.reserveLevel = ReserveLevel.FromName((string)body["reserveLevel"]) ?? ReserveLevel.None;
DateTime updatedAt = DateTime.SpecifyKind(DateTime.Parse((string)body["updateTime"]), DateTimeKind.Utc);
Body.updatedat = updatedAt == null ? null : (long?)(updatedAt.Subtract(new DateTime(1970, 1, 1, 0, 0, 0))).TotalSeconds;
return(Body);
}
public string DisplayString(int indent = 0, bool includefront = true)
{
string inds = new string(' ', indent);
StringBuilder scanText = new StringBuilder();
scanText.Append(inds);
if (includefront)
{
scanText.AppendFormat("{0}\n\n", BodyName);
if (IsStar)
{
scanText.AppendFormat(GetStarTypeImage().Item2);
}
else if (PlanetClass != null)
{
scanText.AppendFormat("{0}", PlanetClass);
if (!PlanetClass.ToLower().Contains("gas"))
{
scanText.AppendFormat((Atmosphere == null || Atmosphere == String.Empty) ? ", No Atmosphere" : (", " + Atmosphere));
}
}
if (IsLandable)
{
scanText.AppendFormat(", Landable");
}
scanText.AppendFormat("\n");
if (nAge.HasValue)
{
scanText.AppendFormat("Age: {0} million years\n", nAge.Value.ToString("N0"));
}
if (nStellarMass.HasValue)
{
scanText.AppendFormat("Solar Masses: {0:0.00}\n", nStellarMass.Value);
}
if (nMassEM.HasValue)
{
scanText.AppendFormat("Earth Masses: {0:0.0000}\n", nMassEM.Value);
}
if (nRadius.HasValue)
{
if (IsStar)
{
scanText.AppendFormat("Solar Radius: {0:0.00} Sols\n", (nRadius.Value / solarRadius_m));
}
else
{
scanText.AppendFormat("Body Radius: {0:0.00}km\n", (nRadius.Value / 1000));
}
}
}
if (nSurfaceTemperature.HasValue)
{
scanText.AppendFormat("Surface Temp: {0}K\n", nSurfaceTemperature.Value.ToString("N0"));
}
if (nSurfaceGravity.HasValue)
{
scanText.AppendFormat("Gravity: {0:0.0}g\n", nSurfaceGravity.Value / 9.8);
}
if (nSurfacePressure.HasValue && nSurfacePressure.Value > 0.00 && !PlanetClass.ToLower().Contains("gas"))
{
if (nSurfacePressure.Value > 1000)
{
scanText.AppendFormat("Surface Pressure: {0} Atmospheres\n", (nSurfacePressure.Value / 100000).ToString("N2"));
}
else
{
{ scanText.AppendFormat("Surface Pressure: {0} Pa\n", (nSurfacePressure.Value).ToString("N2")); }
}
}
if (Volcanism != null)
{
scanText.AppendFormat("Volcanism: {0}\n", Volcanism == String.Empty ? "No Volcanism" : System.Threading.Thread.CurrentThread.CurrentCulture.TextInfo.
ToTitleCase(Volcanism.ToLower()));
}
if (DistanceFromArrivalLS > 0)
{
scanText.AppendFormat("Distance from Arrival Point {0:N1}ls\n", DistanceFromArrivalLS);
}
if (nOrbitalPeriod.HasValue && nOrbitalPeriod > 0)
{
scanText.AppendFormat("Orbital Period: {0} days\n", (nOrbitalPeriod.Value / oneDay_s).ToString("N1"));
}
if (nSemiMajorAxis.HasValue)
{
if (IsStar || nSemiMajorAxis.Value > oneAU_m / 10)
{
scanText.AppendFormat("Semi Major Axis: {0:0.00}AU\n", (nSemiMajorAxis.Value / oneAU_m));
}
else
{
scanText.AppendFormat("Semi Major Axis: {0}km\n", (nSemiMajorAxis.Value / 1000).ToString("N1"));
}
}
if (nEccentricity.HasValue)
{
scanText.AppendFormat("Orbital Eccentricity: {0:0.000}°\n", nEccentricity.Value);
}
if (nOrbitalInclination.HasValue)
{
scanText.AppendFormat("Orbital Inclination: {0:0.000}°\n", nOrbitalInclination.Value);
}
if (nPeriapsis.HasValue)
{
scanText.AppendFormat("Arg Of Periapsis: {0:0.000}°\n", nPeriapsis.Value);
}
if (nAbsoluteMagnitude.HasValue)
{
scanText.AppendFormat("Absolute Magnitude: {0:0.00}\n", nAbsoluteMagnitude.Value);
}
if (nRotationPeriod.HasValue)
{
scanText.AppendFormat("Rotation Period: {0} days\n", (nRotationPeriod.Value / oneDay_s).ToString("N1"));
}
if (nTidalLock.HasValue && nTidalLock.Value)
{
scanText.Append("Tidally locked\n");
}
if (TerraformState != null && TerraformState == "Terraformable")
{
scanText.Append("Candidate for terraforming\n");
}
if (HasRings)
{
scanText.Append("\n");
if (IsStar)
{
scanText.AppendFormat("Belt{0}", Rings.Count() == 1 ? ":" : "s:");
for (int i = 0; i < Rings.Length; i++)
{
if (Rings[i].MassMT > 7342000000)
{
scanText.Append("\n" + RingInformation(i, 1.0 / oneMoon_MT, " Moons"));
}
else
{
scanText.Append("\n" + RingInformation(i));
}
}
}
else
{
scanText.AppendFormat("Ring{0}", Rings.Count() == 1 ? ":" : "s:");
for (int i = 0; i < Rings.Length; i++)
{
scanText.Append("\n" + RingInformation(i));
}
}
}
if (HasMaterials)
{
scanText.Append("\n" + DisplayMaterials(2) + "\n");
}
if (IsStar && HabitableZoneInner.HasValue && HabitableZoneOuter.HasValue)
{
StringBuilder habZone = new StringBuilder();
habZone.AppendFormat("Habitable Zone Approx. {0}ls to {1}ls\n", HabitableZoneInner.Value.ToString("N0"), HabitableZoneOuter.Value.ToString("N0"));
if (nSemiMajorAxis.HasValue && nSemiMajorAxis.Value > 0)
{
habZone.AppendFormat(" (This star only, others not considered)\n");
}
scanText.Append("\n" + habZone);
}
if (scanText.Length > 0 && scanText[scanText.Length - 1] == '\n')
{
scanText.Remove(scanText.Length - 1, 1);
}
int estvalue = EstimatedValue();
if (estvalue > 0)
{
scanText.AppendFormat("\nEstimated value: {0}", estvalue);
}
return(scanText.ToNullSafeString().Replace("\n", "\n" + inds));
}
