/// <summary>
/// An override of the Subsystem CanPerform method
/// </summary>
/// <param name="proposedEvent"></param>
/// <param name="environment"></param>
/// <returns></returns>
public override bool CanPerform(Event proposedEvent, Universe environment)
{
if (base.CanPerform(proposedEvent, environment) == false)
{
return(false);
}
//double timetoslew = (rand()%5)+8;
double timetoslew = _timetoslew;
double es = proposedEvent.GetEventStart(Asset);
double ts = proposedEvent.GetTaskStart(Asset);
double te = proposedEvent.GetTaskEnd(Asset);
if (es + timetoslew > ts)
{
if (es + timetoslew > te)
{
// TODO: Change this to Logger
//Console.WriteLine("Antenna: Not enough time to slew event start: "+ es + "task end" + te);
return(false);
}
else
{
ts = es + timetoslew;
}
}
// set task end based upon time to capture
te = ts + timetocapture;
proposedEvent.SetTaskEnd(Asset, te);
// from Brown, Pp. 99
DynamicState position = Asset.AssetDynamicState;
double timage = ts + timetocapture / 2;
Matrix <double> m_SC_pos_at_ts_ECI = position.PositionECI(ts);
Matrix <double> m_target_pos_at_ts_ECI = _task.Target.DynamicState.PositionECI(ts);
Matrix <double> m_pv = m_target_pos_at_ts_ECI - m_SC_pos_at_ts_ECI;
Matrix <double> pos_norm = -m_SC_pos_at_ts_ECI / Matrix <double> .Norm(-m_SC_pos_at_ts_ECI);
Matrix <double> pv_norm = m_pv / Matrix <double> .Norm(m_pv);
double I = (arc - Math.Sin(arc)) * (Math.Pow(r2, 4) - Math.Pow(r1, 4)) / 8;
double area = (Math.Pow(r2, 2) - Math.Pow(r1, 2)) * (Math.PI);
double volume = area * L;
double deltaangle = Math.Acos(Matrix <double> .Dot(position.PositionECI(te), position.PositionECI(ts))) / (Matrix[System.Double].Norm(position.PositionECI(te)) * Matrix[System.Double].Norm(position.PositionECI(ts)));
double a = deltaangle / (Math.Pow(te - ts, 2));
double M = density * volume;
double force = a * M;
double finaldeflection = force * Math.Pow(L / 2, 2) * ((5 * (L / 2)) / (6 * E * I));
double antstress = (M * L / 2) / I;
double incidenceang = 90 - 180 / Math.PI * Math.Acos(Matrix <double> .Dot(pos_norm, pv_norm));
// set state data
_newState.AddValue(ANTDATA_KEY, new KeyValuePair <double, double>(timage, incidenceang));
_newState.AddValue(ANTINCIDENCE_KEY, new KeyValuePair <double, double>(timage, incidenceang));
_newState.AddValue(ANTSTRESS_KEY, new KeyValuePair <double, double>(timage, incidenceang));
return(true);
}
public override bool canPerform(Event proposedEvent, Universe environment)
{
if (!base.canPerform(proposedEvent, environment))
{
return(false);
}
DynamicState position = Asset.AssetDynamicState;
Matrix <double> assetPosECI = position.PositionECI(proposedEvent.GetTaskStart(Asset));
Matrix <double> targetPosECI = _task.Target.DynamicState.PositionECI(proposedEvent.GetTaskStart(Asset));
return(GeometryUtilities.hasLOS(assetPosECI, targetPosECI));
}
public override bool CanPerform(Event proposedEvent, Domain environment)
{
if (!base.CanPerform(proposedEvent, environment))
{
return(false);
}
DynamicState position = Asset.AssetDynamicState;
Vector assetPosECI = position.PositionECI(proposedEvent.GetTaskStart(Asset));
Vector targetPosECI = _task.Target.DynamicState.PositionECI(proposedEvent.GetTaskStart(Asset));
return(GeometryUtilities.hasLOS(assetPosECI, targetPosECI));
}
/// <summary>
/// An override of the Subsystem CanPerform method
/// </summary>
/// <param name="proposedEvent"></param>
/// <param name="environment"></param>
/// <returns></returns>
public override bool CanPerform(Event proposedEvent, Domain environment)
{
if (base.CanPerform(proposedEvent, environment) == false)
{
return(false);
}
double es = proposedEvent.GetEventStart(Asset);
double ts = proposedEvent.GetTaskStart(Asset);
double te = proposedEvent.GetTaskEnd(Asset);
// from Brown, Pp. 99
DynamicState position = Asset.AssetDynamicState;
Matrix <double> m_SC_pos_at_ts_ECI = position.PositionECI(ts);
Matrix <double> m_target_pos_at_ts_ECI = _task.Target.DynamicState.PositionECI(ts);
Matrix <double> m_pv = m_target_pos_at_ts_ECI - m_SC_pos_at_ts_ECI;
Matrix <double> sc_n = m_SC_pos_at_ts_ECI / Matrix <double> .Norm(m_SC_pos_at_ts_ECI);
Matrix <double> pv_n = m_pv / Matrix <double> .Norm(m_pv);
double slewAngle = Math.Acos(Matrix <double> .Dot(pv_n, -sc_n)) * 180 / Math.PI;
//double timetoslew = (rand()%5)+8;
double timetoslew = slewAngle / _slewRate;
if (es + timetoslew > ts)
{
if (es + timetoslew > te)
{
// TODO: Change this to Logger
//Console.WriteLine("ADCS: Not enough time to slew event start: "+ es + "task end" + te);
return(false);
}
else
{
ts = es + timetoslew;
}
}
// set state data
_newState.SetProfile(POINTVEC_KEY, new HSFProfile <Matrix <double> >(ts, m_pv));
proposedEvent.SetTaskStart(Asset, ts);
return(true);
}
public override bool canPerform(Event proposedEvent, Universe environment)
{
if (base.canPerform(proposedEvent, environment) == false)
{
return(false);
}
//double timetoslew = (rand()%5)+8;
double timetoslew = 10;
double es = proposedEvent.GetEventStart(Asset);
double ts = proposedEvent.GetTaskStart(Asset);
double te = proposedEvent.GetTaskEnd(Asset);
if (es + timetoslew > ts) //fix event task end!
{
if (es + timetoslew > te)
{
Logger.Report("ADCS: Not enough time to slew event start: " + es + "task end" + te);
return(false);
}
else
{
ts = es + timetoslew;
}
}
// from Brown, Pp. 99
DynamicState position = Asset.AssetDynamicState;
Matrix <double> m_SC_pos_at_ts_ECI = position.PositionECI(ts);
Matrix <double> m_target_pos_at_ts_ECI = _task.Target.DynamicState.PositionECI(ts);
Matrix <double> m_pv = m_target_pos_at_ts_ECI - m_SC_pos_at_ts_ECI;
// set state data
_newState.setProfile(POINTVEC_KEY, new HSFProfile <Matrix <double> >(ts, m_pv));
proposedEvent.SetTaskStart(Asset, ts);
return(true);
}
public override bool canPerform(Event proposedEvent, Universe environment)
{
if (!base.canPerform(proposedEvent, environment))
{
return(false);
}
if (_task.Type == TaskType.IMAGING)
{
//set pixels and time to caputre based on target value
int value = _task.Target.Value;
double pixels = _lowQualityPixels;
double timetocapture = _lowQualityTime;
if (value <= _highQualityTime && value >= _midQualityTime) //Morgan took out magic numbers
{
pixels = _midQualityPixels;
timetocapture = _midQualityTime;
}
if (value > _highQualityTime)
{
pixels = _highQualityPixels;
timetocapture = _highQualityTime;
}
// get event start and task start times
double es = proposedEvent.GetEventStart(Asset);
double ts = proposedEvent.GetTaskStart(Asset);
double te = proposedEvent.GetTaskEnd(Asset);
if (ts > te)
{
Logger.Report("EOSensor lost access");
return(false);
}
// set task end based upon time to capture
te = ts + timetocapture;
proposedEvent.SetTaskEnd(Asset, te);
// calculate incidence angle
// from Brown, Pp. 99
DynamicState position = Asset.AssetDynamicState;
double timage = ts + timetocapture / 2;
Matrix <double> m_SC_pos_at_tf_ECI = position.PositionECI(timage);
Matrix <double> m_target_pos_at_tf_ECI = _task.Target.DynamicState.PositionECI(timage);
Matrix <double> m_pv = m_target_pos_at_tf_ECI - m_SC_pos_at_tf_ECI;
Matrix <double> pos_norm = -m_SC_pos_at_tf_ECI / Matrix <double> .Norm(-m_SC_pos_at_tf_ECI);
Matrix <double> pv_norm = m_pv / Matrix <double> .Norm(m_pv);
double incidenceang = 90 - 180 / Math.PI * Math.Acos(Matrix <double> .Dot(pos_norm, pv_norm));
// set state data
_newState.addValue(INCIDENCE_KEY, new KeyValuePair <double, double>(timage, incidenceang));
_newState.addValue(INCIDENCE_KEY, new KeyValuePair <double, double>(timage + 1, 0.0));
_newState.addValue(PIXELS_KEY, new KeyValuePair <double, double>(timage, pixels));
_newState.addValue(PIXELS_KEY, new KeyValuePair <double, double>(timage + 1, 0.0));
_newState.addValue(EOON_KEY, new KeyValuePair <double, bool>(ts, true));
_newState.addValue(EOON_KEY, new KeyValuePair <double, bool>(te, false));
}
return(true);
}