static Offset <FDouble> Serialise(FlatBufferBuilder b, IHasDouble numeral)
{
FDouble.StartFDouble(b);
var vec2 = numeral.ObservationValue;
var granularity = numeral.DoubleSpace.DecimalGranularity;
var xs = numeral.DoubleSpace.Xspace;
var ys = numeral.DoubleSpace.Yspace;
FDouble.AddXRange(b,
FRange.CreateFRange(b,
granularity,
xs.Max,
xs.Min,
xs.NormalisedBool));
FDouble.AddYRange(b,
FRange.CreateFRange(b,
granularity,
ys.Max,
ys.Min,
ys.NormalisedBool));
FDouble.AddVec2(b, FVector2.CreateFVector2(b, vec2.x, vec2.y));
return(FDouble.EndFDouble(b));
}
static Offset <FObjective> Serialise(FlatBufferBuilder b, EnvironmentDescription description)
{
var ob_name = "None";
var ep_len = -1;
var a = 0;
var f = 0f;
var c = 0f;
var d = false;
if (description.ObjectiveFunction != null)
{
ob_name = description.ObjectiveFunction.Identifier;
ep_len = description.ObjectiveFunction.EpisodeLength;
f = description.ObjectiveFunction.SignalSpace.Min;
c = description.ObjectiveFunction.SignalSpace.Max;
a = description.ObjectiveFunction.SignalSpace.DecimalGranularity;
d = description.ObjectiveFunction.SignalSpace.NormalisedBool;
}
var objective_name_offset = b.CreateString(ob_name);
FObjective.StartFObjective(b);
FObjective.AddMaxEpisodeLength(b, ep_len);
FObjective.AddSignalSpace(b,
FRange.CreateFRange(b,
a,
f,
c,
d));
FObjective.AddObjectiveName(b, objective_name_offset);
return(FObjective.EndFObjective(b));
}
static Offset <FTriple> Serialise(FlatBufferBuilder b, IHasTriple numeral)
{
FTriple.StartFTriple(b);
var vec3 = numeral.ObservationValue;
FTriple.AddVec3(b,
FVector3.CreateFVector3(b,
vec3.x,
vec3.y,
vec3.z));
var granularity = numeral.TripleSpace.DecimalGranularity;
var xs = numeral.TripleSpace.Xspace;
var ys = numeral.TripleSpace.Yspace;
var zs = numeral.TripleSpace.Zspace;
FTriple.AddXRange(b,
FRange.CreateFRange(b,
granularity,
xs.Max,
xs.Min,
xs.NormalisedBool));
FTriple.AddYRange(b,
FRange.CreateFRange(b,
granularity,
ys.Max,
ys.Min,
ys.NormalisedBool));
FTriple.AddZRange(b,
FRange.CreateFRange(b,
granularity,
zs.Max,
zs.Min,
zs.NormalisedBool));
return(FTriple.EndFTriple(b));
}
static Offset <FArray> Serialise(FlatBufferBuilder b, IHasFloatArray float_a)
{
var v_offset = FArray.CreateArrayVectorBlock(b, float_a.ObservationArray);
//var v_offset = CustomFlatBufferImplementation.CreateFloatVector(b, float_a.ObservationArray);
var ranges_vector = new VectorOffset();
FArray.StartRangesVector(b, float_a.ObservationSpace.Length);
foreach (var tra in float_a.ObservationSpace)
{
FRange.CreateFRange(b,
tra.DecimalGranularity,
tra.Max,
tra.Min,
tra.NormalisedBool);
}
ranges_vector = b.EndVector();
FArray.StartFArray(b);
FArray.AddArray(b, v_offset);
FArray.AddRanges(b, ranges_vector);
return(FArray.EndFArray(b));
}
void Start()
{
if (planetPosition == null)
{
planetPosition = new PlanetPosition(gameObject);
planetPosition.GenerateSeed();
}
else
{
planetPosition.SetParent(gameObject);
}
if (Data == null)
{
return;
}
if (Data.IsEmpty())
{
Create();
}
else
{
Visualize();
}
EcoZone = Star.EcosphereZone(this);
}
/// <summary>
/// </summary>
/// <param name="b"></param>
/// <param name="sensor"></param>
/// <returns></returns>
static Offset <FQTObs> Serialise(FlatBufferBuilder b, IHasQuaternionTransform sensor)
{
var pos = sensor.Position;
var rot = sensor.Rotation;
var pos_range = sensor.PositionSpace;
var rot_range = sensor.RotationSpace;
FQTObs.StartFQTObs(b);
FQTObs.AddPosRange(b,
FRange.CreateFRange(b,
pos_range.DecimalGranularity,
pos_range.Max,
pos_range.Min,
pos_range.NormalisedBool));
FQTObs.AddRotRange(b,
FRange.CreateFRange(b,
rot_range.DecimalGranularity,
rot_range.Max,
rot_range.Min,
rot_range.NormalisedBool));
FQTObs.AddTransform(b,
FQuaternionTransform.CreateFQuaternionTransform(b,
pos.x,
pos.y,
pos.z,
rot.x,
rot.y,
rot.z,
rot.w));
return(FQTObs.EndFQTObs(b));
}
public void Create()
{
GameObject star = Instantiate(StarPrefab, this.transform.position, Quaternion.identity);
star.transform.SetParent(this.transform);
star.GetComponent <Star>().Create();
ecoZone = Star.EcosphereZone(star);
PlanetPosition planetPosition = new PlanetPosition(star);
planetPosition.GenerateSeed();
List <float> positions = planetPosition.Positions();
float creationChance = (1f / positions.Count) * 3f;
foreach (var position in positions)
{
//if (Random.Range(0f, 1f) < creationChance)
//if (Random.Range(0f, 1f) < 0.4f)
{
float radius = ((SpaceMath.AU * position) / SpaceMath.Unit);
Vector3 pos = new Vector3(1, 0, 0).normalized *radius *DistanceMult;
GameObject planet = Instantiate(PlanetPrefab, this.transform.position + pos, Quaternion.identity);
planet.transform.SetParent(star.transform);
Zone planetZone = PlanetPositionZone(position);
planet.GetComponent <Planet>().Create(planetZone);
}
}
}
public static FRange EcosphereZone(Star star)
{
FRange ecoZone = new FRange();
ecoZone.Value = Mathf.Sqrt(star.Data.Luminosity.Value);
ecoZone.From = ecoZone.Value * 0.95f;
ecoZone.To = ecoZone.Value * 1.35f;
return(ecoZone);
}
static Offset <FConfigurable> Serialise(
FlatBufferBuilder b,
IConfigurable configurable,
string identifier)
{
var n = b.CreateString(identifier);
int observation_offset;
FObservation observation_type;
if (configurable is IHasQuaternionTransform)
{
observation_offset = Serialise(b, (IHasQuaternionTransform)configurable).Value;
observation_type = FObservation.FQTObs;
}
else if (configurable is PositionConfigurable)
{
observation_offset = Serialise(b, (PositionConfigurable)configurable).Value;
observation_type = FObservation.FTriple;
}
else if (configurable is IHasSingle)
{
observation_offset = Serialise(b, (IHasSingle)configurable).Value;
observation_type = FObservation.FSingle;
// ReSharper disable once SuspiciousTypeConversion.Global
}
else if (configurable is IHasDouble)
{
// ReSharper disable once SuspiciousTypeConversion.Global
observation_offset = Serialise(b, (IHasDouble)configurable).Value;
observation_type = FObservation.FDouble;
}
else if (configurable is EulerTransformConfigurable)
{
observation_offset = Serialise(b, (IHasEulerTransform)configurable).Value;
observation_type = FObservation.FETObs;
}
else
{
FConfigurable.StartFConfigurable(b);
FConfigurable.AddConfigurableName(b, n);
return(FConfigurable.EndFConfigurable(b));
}
FConfigurable.StartFConfigurable(b);
FConfigurable.AddConfigurableName(b, n);
FConfigurable.AddConfigurableValue(b, observation_offset);
FConfigurable.AddConfigurableValueType(b, observation_type);
FConfigurable.AddConfigurableRange(b,
FRange.CreateFRange(b,
0,
0,
0,
false));
return(FConfigurable.EndFConfigurable(b));
}
static Offset <FSingle> Serialise(FlatBufferBuilder b, IHasSingle numeral)
{
FSingle.StartFSingle(b);
FSingle.AddValue(b, numeral.ObservationValue);
var range_offset = FRange.CreateFRange(b,
numeral.SingleSpace.DecimalGranularity,
numeral.SingleSpace.Max,
numeral.SingleSpace.Min,
numeral.SingleSpace.NormalisedBool);
FSingle.AddRange(b, range_offset);
return(FSingle.EndFSingle(b));
}
static Offset <FActuator> Serialise(FlatBufferBuilder b, IActuator actuator, string identifier)
{
var n = b.CreateString(identifier);
FActuator.StartFActuator(b);
FActuator.AddActuatorName(b, n);
FActuator.AddActuatorRange(b,
FRange.CreateFRange(b,
actuator.MotionSpace.DecimalGranularity,
actuator.MotionSpace.Max,
actuator.MotionSpace.Min,
actuator.MotionSpace.NormalisedBool));
return(FActuator.EndFActuator(b));
}
IEnumerable <FRange> GenerateRanges(IEnumerable <int> months)
{
foreach (int m in months)
{
FRange range = new FRange();
range.attractor = m;
range.includeLow = true;
range.includeHigh = true;
int window = 1 + Math.Min(2, m / 12); // yes, integer division is what we want
range.low = m - window;
range.high = m + window;
yield return(range);
}
}
static Offset <FMotor> build_motor(FlatBufferBuilder b, Motor motor, string identifier)
{
var n = b.CreateString(identifier);
FMotor.StartFMotor(b);
FMotor.AddMotorName(b, n);
FMotor.AddValidInput(
b,
FRange.CreateFRange(
b,
motor.MotionValueSpace.DecimalGranularity,
motor.MotionValueSpace.MaxValue,
motor.MotionValueSpace.MinValue));
FMotor.AddEnergySpentSinceReset(b, motor.GetEnergySpend());
return(FMotor.EndFMotor(b));
}
static Offset <FQuadruple> Serialise(FlatBufferBuilder b, IHasQuadruple numeral)
{
FQuadruple.StartFQuadruple(b);
var quad = numeral.ObservationValue;
FQuadruple.AddQuat(b,
FQuaternion.CreateFQuaternion(b,
quad.x,
quad.y,
quad.z,
quad.z));
var granularity = numeral.QuadSpace.DecimalGranularity;
var xs = numeral.QuadSpace.Xspace;
var ys = numeral.QuadSpace.Yspace;
var zs = numeral.QuadSpace.Zspace;
var ws = numeral.QuadSpace.Wspace;
FQuadruple.AddXRange(b,
FRange.CreateFRange(b,
granularity,
xs.Max,
xs.Min,
xs.NormalisedBool));
FQuadruple.AddYRange(b,
FRange.CreateFRange(b,
granularity,
ys.Max,
ys.Min,
ys.NormalisedBool));
FQuadruple.AddZRange(b,
FRange.CreateFRange(b,
granularity,
zs.Max,
zs.Min,
zs.NormalisedBool));
FQuadruple.AddWRange(b,
FRange.CreateFRange(b,
granularity,
ws.Max,
ws.Min,
ws.NormalisedBool));
return(FQuadruple.EndFQuadruple(b));
}
public void Create()
{
if (Class == StarClass.Random)
{
Data = StarData.GetData();
}
else
{
Data = StarData.GetData(Class);
}
Data.Mutate();
float index = Random.Range(0.0f, 1f);
Data.Luminosity.RandomValue(index, Mathf.Lerp);
Data.Radius.RandomValue(index, Mathf.Lerp);
Data.Color.RandomValue(index, Color.Lerp);
Data.Mass.RandomValue(index, Mathf.Lerp);
this.Evolution = Data.EvolutionState;
this.Class = Data.StarClass;
Visualize();
DestroyPlanets();
EcoZone = Star.EcosphereZone(this);
}
public static float remap01(this float value, FRange fromTo) => value.remap(fromTo.from, fromTo.to, 0f, 1f);
