new public int getMarshalledSize()
{
int marshalSize = 0;
marshalSize = base.getMarshalledSize();
marshalSize = marshalSize + _radioEntityType.getMarshalledSize(); // _radioEntityType
marshalSize = marshalSize + 1; // _transmitState
marshalSize = marshalSize + 1; // _inputSource
marshalSize = marshalSize + 2; // _padding1
marshalSize = marshalSize + _antennaLocation.getMarshalledSize(); // _antennaLocation
marshalSize = marshalSize + _relativeAntennaLocation.getMarshalledSize(); // _relativeAntennaLocation
marshalSize = marshalSize + 2; // _antennaPatternType
marshalSize = marshalSize + 2; // _antennaPatternCount
marshalSize = marshalSize + 8; // _frequency
marshalSize = marshalSize + 4; // _transmitFrequencyBandwidth
marshalSize = marshalSize + 4; // _power
marshalSize = marshalSize + _modulationType.getMarshalledSize(); // _modulationType
marshalSize = marshalSize + 2; // _cryptoSystem
marshalSize = marshalSize + 2; // _cryptoKeyId
marshalSize = marshalSize + 1; // _modulationParameterCount
marshalSize = marshalSize + 2; // _padding2
marshalSize = marshalSize + 1; // _padding3
for (int idx = 0; idx < _modulationParametersList.Count; idx++)
{
Vector3Float listElement = (Vector3Float)_modulationParametersList[idx];
marshalSize = marshalSize + listElement.getMarshalledSize();
}
for (int idx = 0; idx < _antennaPatternList.Count; idx++)
{
Vector3Float listElement = (Vector3Float)_antennaPatternList[idx];
marshalSize = marshalSize + listElement.getMarshalledSize();
}
return(marshalSize);
}
new public int getMarshalledSize()
{
int marshalSize = 0;
marshalSize = base.getMarshalledSize();
marshalSize = marshalSize + _minefieldID.getMarshalledSize(); // _minefieldID
marshalSize = marshalSize + _requestingEntityID.getMarshalledSize(); // _requestingEntityID
marshalSize = marshalSize + 2; // _minefieldSequenceNumbeer
marshalSize = marshalSize + 1; // _requestID
marshalSize = marshalSize + 1; // _pduSequenceNumber
marshalSize = marshalSize + 1; // _numberOfPdus
marshalSize = marshalSize + 1; // _numberOfMinesInThisPdu
marshalSize = marshalSize + 1; // _numberOfSensorTypes
marshalSize = marshalSize + 1; // _pad2
marshalSize = marshalSize + 4; // _dataFilter
marshalSize = marshalSize + _mineType.getMarshalledSize(); // _mineType
for (int idx = 0; idx < _sensorTypes.Count; idx++)
{
TwoByteChunk listElement = (TwoByteChunk)_sensorTypes[idx];
marshalSize = marshalSize + listElement.getMarshalledSize();
}
marshalSize = marshalSize + 1; // _pad3
for (int idx = 0; idx < _mineLocation.Count; idx++)
{
Vector3Float listElement = (Vector3Float)_mineLocation[idx];
marshalSize = marshalSize + listElement.getMarshalledSize();
}
return(marshalSize);
}
/**
* Compares for reference equality and value equality.
*/
public bool equals(Vector3Float rhs)
{
bool ivarsEqual = true;
if (rhs.GetType() != this.GetType())
{
return(false);
}
if (!(_x == rhs._x))
{
ivarsEqual = false;
}
if (!(_y == rhs._y))
{
ivarsEqual = false;
}
if (!(_z == rhs._z))
{
ivarsEqual = false;
}
return(ivarsEqual);
}
} // end of unmarshal method
///<summary>
///This allows for a quick display of PDU data. The current format is unacceptable and only used for debugging.
///This will be modified in the future to provide a better display. Usage:
///pdu.GetType().InvokeMember("reflection", System.Reflection.BindingFlags.InvokeMethod, null, pdu, new object[] { sb });
///where pdu is an object representing a single pdu and sb is a StringBuilder.
///Note: The supplied Utilities folder contains a method called 'DecodePDU' in the PDUProcessor Class that provides this functionality
///</summary>
new public void reflection(StringBuilder sb)
{
sb.Append("<TransmitterPdu>" + System.Environment.NewLine);
base.reflection(sb);
try
{
sb.Append("<radioEntityType>" + System.Environment.NewLine);
_radioEntityType.reflection(sb);
sb.Append("</radioEntityType>" + System.Environment.NewLine);
sb.Append("<transmitState type=\"byte\">" + _transmitState.ToString() + "</transmitState> " + System.Environment.NewLine);
sb.Append("<inputSource type=\"byte\">" + _inputSource.ToString() + "</inputSource> " + System.Environment.NewLine);
sb.Append("<padding1 type=\"ushort\">" + _padding1.ToString() + "</padding1> " + System.Environment.NewLine);
sb.Append("<antennaLocation>" + System.Environment.NewLine);
_antennaLocation.reflection(sb);
sb.Append("</antennaLocation>" + System.Environment.NewLine);
sb.Append("<relativeAntennaLocation>" + System.Environment.NewLine);
_relativeAntennaLocation.reflection(sb);
sb.Append("</relativeAntennaLocation>" + System.Environment.NewLine);
sb.Append("<antennaPatternType type=\"ushort\">" + _antennaPatternType.ToString() + "</antennaPatternType> " + System.Environment.NewLine);
sb.Append("<antennaPatternList type=\"ushort\">" + _antennaPatternList.Count.ToString() + "</antennaPatternList> " + System.Environment.NewLine);
sb.Append("<frequency type=\"ulong\">" + _frequency.ToString() + "</frequency> " + System.Environment.NewLine);
sb.Append("<transmitFrequencyBandwidth type=\"float\">" + _transmitFrequencyBandwidth.ToString() + "</transmitFrequencyBandwidth> " + System.Environment.NewLine);
sb.Append("<power type=\"float\">" + _power.ToString() + "</power> " + System.Environment.NewLine);
sb.Append("<modulationType>" + System.Environment.NewLine);
_modulationType.reflection(sb);
sb.Append("</modulationType>" + System.Environment.NewLine);
sb.Append("<cryptoSystem type=\"ushort\">" + _cryptoSystem.ToString() + "</cryptoSystem> " + System.Environment.NewLine);
sb.Append("<cryptoKeyId type=\"ushort\">" + _cryptoKeyId.ToString() + "</cryptoKeyId> " + System.Environment.NewLine);
sb.Append("<modulationParametersList type=\"byte\">" + _modulationParametersList.Count.ToString() + "</modulationParametersList> " + System.Environment.NewLine);
sb.Append("<padding2 type=\"ushort\">" + _padding2.ToString() + "</padding2> " + System.Environment.NewLine);
sb.Append("<padding3 type=\"byte\">" + _padding3.ToString() + "</padding3> " + System.Environment.NewLine);
for (int idx = 0; idx < _modulationParametersList.Count; idx++)
{
sb.Append("<modulationParametersList" + idx.ToString() + " type=\"Vector3Float\">" + System.Environment.NewLine);
Vector3Float aVector3Float = (Vector3Float)_modulationParametersList[idx];
aVector3Float.reflection(sb);
sb.Append("</modulationParametersList" + idx.ToString() + ">" + System.Environment.NewLine);
} // end of list marshalling
for (int idx = 0; idx < _antennaPatternList.Count; idx++)
{
sb.Append("<antennaPatternList" + idx.ToString() + " type=\"Vector3Float\">" + System.Environment.NewLine);
Vector3Float aVector3Float = (Vector3Float)_antennaPatternList[idx];
aVector3Float.reflection(sb);
sb.Append("</antennaPatternList" + idx.ToString() + ">" + System.Environment.NewLine);
} // end of list marshalling
sb.Append("</TransmitterPdu>" + System.Environment.NewLine);
} // end try
catch (Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of marshal method
} // end of unmarshal method
///<summary>
///This allows for a quick display of PDU data. The current format is unacceptable and only used for debugging.
///This will be modified in the future to provide a better display. Usage:
///pdu.GetType().InvokeMember("reflection", System.Reflection.BindingFlags.InvokeMethod, null, pdu, new object[] { sb });
///where pdu is an object representing a single pdu and sb is a StringBuilder.
///Note: The supplied Utilities folder contains a method called 'DecodePDU' in the PDUProcessor Class that provides this functionality
///</summary>
new public void reflection(StringBuilder sb)
{
sb.Append("<MinefieldDataPdu>" + System.Environment.NewLine);
base.reflection(sb);
try
{
sb.Append("<minefieldID>" + System.Environment.NewLine);
_minefieldID.reflection(sb);
sb.Append("</minefieldID>" + System.Environment.NewLine);
sb.Append("<requestingEntityID>" + System.Environment.NewLine);
_requestingEntityID.reflection(sb);
sb.Append("</requestingEntityID>" + System.Environment.NewLine);
sb.Append("<minefieldSequenceNumbeer type=\"ushort\">" + _minefieldSequenceNumbeer.ToString() + "</minefieldSequenceNumbeer> " + System.Environment.NewLine);
sb.Append("<requestID type=\"byte\">" + _requestID.ToString() + "</requestID> " + System.Environment.NewLine);
sb.Append("<pduSequenceNumber type=\"byte\">" + _pduSequenceNumber.ToString() + "</pduSequenceNumber> " + System.Environment.NewLine);
sb.Append("<numberOfPdus type=\"byte\">" + _numberOfPdus.ToString() + "</numberOfPdus> " + System.Environment.NewLine);
sb.Append("<mineLocation type=\"byte\">" + _mineLocation.Count.ToString() + "</mineLocation> " + System.Environment.NewLine);
sb.Append("<sensorTypes type=\"byte\">" + _sensorTypes.Count.ToString() + "</sensorTypes> " + System.Environment.NewLine);
sb.Append("<pad2 type=\"byte\">" + _pad2.ToString() + "</pad2> " + System.Environment.NewLine);
sb.Append("<dataFilter type=\"uint\">" + _dataFilter.ToString() + "</dataFilter> " + System.Environment.NewLine);
sb.Append("<mineType>" + System.Environment.NewLine);
_mineType.reflection(sb);
sb.Append("</mineType>" + System.Environment.NewLine);
for (int idx = 0; idx < _sensorTypes.Count; idx++)
{
sb.Append("<sensorTypes" + idx.ToString() + " type=\"TwoByteChunk\">" + System.Environment.NewLine);
TwoByteChunk aTwoByteChunk = (TwoByteChunk)_sensorTypes[idx];
aTwoByteChunk.reflection(sb);
sb.Append("</sensorTypes" + idx.ToString() + ">" + System.Environment.NewLine);
} // end of list marshalling
sb.Append("<pad3 type=\"byte\">" + _pad3.ToString() + "</pad3> " + System.Environment.NewLine);
for (int idx = 0; idx < _mineLocation.Count; idx++)
{
sb.Append("<mineLocation" + idx.ToString() + " type=\"Vector3Float\">" + System.Environment.NewLine);
Vector3Float aVector3Float = (Vector3Float)_mineLocation[idx];
aVector3Float.reflection(sb);
sb.Append("</mineLocation" + idx.ToString() + ">" + System.Environment.NewLine);
} // end of list marshalling
sb.Append("</MinefieldDataPdu>" + System.Environment.NewLine);
} // end try
catch (Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of reflection method
} // end of marshal method
new public void unmarshal(DataInputStream dis)
{
base.unmarshal(dis);
try
{
_radioEntityType.unmarshal(dis);
_transmitState = dis.readByte();
_inputSource = dis.readByte();
_padding1 = dis.readUshort();
_antennaLocation.unmarshal(dis);
_relativeAntennaLocation.unmarshal(dis);
_antennaPatternType = dis.readUshort();
_antennaPatternCount = dis.readUshort();
_frequency = dis.readUlong();
_transmitFrequencyBandwidth = dis.readFloat();
_power = dis.readFloat();
_modulationType.unmarshal(dis);
_cryptoSystem = dis.readUshort();
_cryptoKeyId = dis.readUshort();
_modulationParameterCount = dis.readByte();
_padding2 = dis.readUshort();
_padding3 = dis.readByte();
for (int idx = 0; idx < _modulationParameterCount; idx++)
{
Vector3Float anX = new Vector3Float();
anX.unmarshal(dis);
_modulationParametersList.Add(anX);
}
;
for (int idx = 0; idx < _antennaPatternCount; idx++)
{
Vector3Float anX = new Vector3Float();
anX.unmarshal(dis);
_antennaPatternList.Add(anX);
}
;
} // end try
catch (Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of unmarshal method
///<summary>
///Marshal the data to the DataOutputStream. Note: Length needs to be set before calling this method
///</summary>
new public void marshal(DataOutputStream dos)
{
base.marshal(dos);
try
{
_radioEntityType.marshal(dos);
dos.writeByte((byte)_transmitState);
dos.writeByte((byte)_inputSource);
dos.writeUshort((ushort)_padding1);
_antennaLocation.marshal(dos);
_relativeAntennaLocation.marshal(dos);
dos.writeUshort((ushort)_antennaPatternType);
dos.writeUshort((ushort)_antennaPatternList.Count);
dos.writeUlong((ulong)_frequency);
dos.writeFloat((float)_transmitFrequencyBandwidth);
dos.writeFloat((float)_power);
_modulationType.marshal(dos);
dos.writeUshort((ushort)_cryptoSystem);
dos.writeUshort((ushort)_cryptoKeyId);
dos.writeByte((byte)_modulationParametersList.Count);
dos.writeUshort((ushort)_padding2);
dos.writeByte((byte)_padding3);
for (int idx = 0; idx < _modulationParametersList.Count; idx++)
{
Vector3Float aVector3Float = (Vector3Float)_modulationParametersList[idx];
aVector3Float.marshal(dos);
} // end of list marshalling
for (int idx = 0; idx < _antennaPatternList.Count; idx++)
{
Vector3Float aVector3Float = (Vector3Float)_antennaPatternList[idx];
aVector3Float.marshal(dos);
} // end of list marshalling
} // end try
catch (Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of marshal method
} // end of marshal method
new public void unmarshal(DataInputStream dis)
{
base.unmarshal(dis);
try
{
_minefieldID.unmarshal(dis);
_requestingEntityID.unmarshal(dis);
_minefieldSequenceNumbeer = dis.readUshort();
_requestID = dis.readByte();
_pduSequenceNumber = dis.readByte();
_numberOfPdus = dis.readByte();
_numberOfMinesInThisPdu = dis.readByte();
_numberOfSensorTypes = dis.readByte();
_pad2 = dis.readByte();
_dataFilter = dis.readUint();
_mineType.unmarshal(dis);
for (int idx = 0; idx < _numberOfSensorTypes; idx++)
{
TwoByteChunk anX = new TwoByteChunk();
anX.unmarshal(dis);
_sensorTypes.Add(anX);
}
;
_pad3 = dis.readByte();
for (int idx = 0; idx < _numberOfMinesInThisPdu; idx++)
{
Vector3Float anX = new Vector3Float();
anX.unmarshal(dis);
_mineLocation.Add(anX);
}
;
} // end try
catch (Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of unmarshal method
///<summary>
///Marshal the data to the DataOutputStream. Note: Length needs to be set before calling this method
///</summary>
new public void marshal(DataOutputStream dos)
{
base.marshal(dos);
try
{
_minefieldID.marshal(dos);
_requestingEntityID.marshal(dos);
dos.writeUshort((ushort)_minefieldSequenceNumbeer);
dos.writeByte((byte)_requestID);
dos.writeByte((byte)_pduSequenceNumber);
dos.writeByte((byte)_numberOfPdus);
dos.writeByte((byte)_mineLocation.Count);
dos.writeByte((byte)_sensorTypes.Count);
dos.writeByte((byte)_pad2);
dos.writeUint((uint)_dataFilter);
_mineType.marshal(dos);
for (int idx = 0; idx < _sensorTypes.Count; idx++)
{
TwoByteChunk aTwoByteChunk = (TwoByteChunk)_sensorTypes[idx];
aTwoByteChunk.marshal(dos);
} // end of list marshalling
dos.writeByte((byte)_pad3);
for (int idx = 0; idx < _mineLocation.Count; idx++)
{
Vector3Float aVector3Float = (Vector3Float)_mineLocation[idx];
aVector3Float.marshal(dos);
} // end of list marshalling
} // end try
catch (Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of marshal method
///<summary>
///location of part; centroid of part in host's coordinate system. x=range, y=bearing, z=0
///</summary>
public void setPartLocation(Vector3Float pPartLocation)
{
_partLocation = pPartLocation;
}
///<summary>
///Linear acceleration of the entity
///</summary>
public void setEntityLinearAcceleration(Vector3Float pEntityLinearAcceleration)
{
_entityLinearAcceleration = pEntityLinearAcceleration;
}
///<summary>
///velocity at collision
///</summary>
public void setContactVelocity(Vector3Float pContactVelocity)
{
_contactVelocity = pContactVelocity;
}
/**
* The equals method doesn't always work--mostly on on classes that consist only of primitives. Be careful.
*/
public bool equals(MinefieldDataPdu rhs)
{
bool ivarsEqual = true;
if (rhs.GetType() != this.GetType())
{
return(false);
}
if (!(_minefieldID.Equals(rhs._minefieldID)))
{
ivarsEqual = false;
}
if (!(_requestingEntityID.Equals(rhs._requestingEntityID)))
{
ivarsEqual = false;
}
if (!(_minefieldSequenceNumbeer == rhs._minefieldSequenceNumbeer))
{
ivarsEqual = false;
}
if (!(_requestID == rhs._requestID))
{
ivarsEqual = false;
}
if (!(_pduSequenceNumber == rhs._pduSequenceNumber))
{
ivarsEqual = false;
}
if (!(_numberOfPdus == rhs._numberOfPdus))
{
ivarsEqual = false;
}
if (!(_numberOfMinesInThisPdu == rhs._numberOfMinesInThisPdu))
{
ivarsEqual = false;
}
if (!(_numberOfSensorTypes == rhs._numberOfSensorTypes))
{
ivarsEqual = false;
}
if (!(_pad2 == rhs._pad2))
{
ivarsEqual = false;
}
if (!(_dataFilter == rhs._dataFilter))
{
ivarsEqual = false;
}
if (!(_mineType.Equals(rhs._mineType)))
{
ivarsEqual = false;
}
for (int idx = 0; idx < _sensorTypes.Count; idx++)
{
TwoByteChunk x = (TwoByteChunk)_sensorTypes[idx];
if (!(_sensorTypes[idx].Equals(rhs._sensorTypes[idx])))
{
ivarsEqual = false;
}
}
if (!(_pad3 == rhs._pad3))
{
ivarsEqual = false;
}
for (int idx = 0; idx < _mineLocation.Count; idx++)
{
Vector3Float x = (Vector3Float)_mineLocation[idx];
if (!(_mineLocation[idx].Equals(rhs._mineLocation[idx])))
{
ivarsEqual = false;
}
}
return(ivarsEqual);
}
/**
* The equals method doesn't always work--mostly on on classes that consist only of primitives. Be careful.
*/
public bool equals(Vector3Float rhs)
{
bool ivarsEqual = true;
if(rhs.GetType() != this.GetType())
return false;
if( ! (_x == rhs._x)) ivarsEqual = false;
if( ! (_y == rhs._y)) ivarsEqual = false;
if( ! (_z == rhs._z)) ivarsEqual = false;
return ivarsEqual;
}
///<summary>
///Describes the speed of the entity in the world
///</summary>
public void setEntityLinearVelocity(Vector3Float pEntityLinearVelocity)
{
_entityLinearVelocity = pEntityLinearVelocity;
}
///<summary>
///velocity of aggregation
///</summary>
public void setVelocity(Vector3Float pVelocity)
{
_velocity = pVelocity;
}
///<summary>
///location of part; centroid of part in host's coordinate system. x=range, y=bearing, z=0
///</summary>
public void setPartLocation(Vector3Float pPartLocation)
{
_partLocation = pPartLocation;
}
///<summary>
///Location with respect to the entity
///</summary>
public void setLocation(Vector3Float pLocation)
{
_location = pLocation;
}
public new void unmarshal(DataInputStream dis)
{
base.unmarshal(dis);
try
{
_minefieldID.unmarshal(dis);
_requestingEntityID.unmarshal(dis);
_minefieldSequenceNumbeer = dis.readUshort();
_requestID = dis.readByte();
_pduSequenceNumber = dis.readByte();
_numberOfPdus = dis.readByte();
_numberOfMinesInThisPdu = dis.readByte();
_numberOfSensorTypes = dis.readByte();
_pad2 = dis.readByte();
_dataFilter = dis.readUint();
_mineType.unmarshal(dis);
for(int idx = 0; idx < _numberOfSensorTypes; idx++)
{
TwoByteChunk anX = new TwoByteChunk();
anX.unmarshal(dis);
_sensorTypes.Add(anX);
};
_pad3 = dis.readByte();
for(int idx = 0; idx < _numberOfMinesInThisPdu; idx++)
{
Vector3Float anX = new Vector3Float();
anX.unmarshal(dis);
_mineLocation.Add(anX);
};
} // end try
catch(Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
}
///<summary>
///This record shall represent the normal vector to the surface at the point of collision detection. The surface normal shall be represented in world coordinates.
///</summary>
public void setUnitSurfaceNormal(Vector3Float pUnitSurfaceNormal)
{
_unitSurfaceNormal = pUnitSurfaceNormal;
}
///<summary>
///velocity at collision
///</summary>
public void setContactVelocity(Vector3Float pContactVelocity)
{
_contactVelocity = pContactVelocity;
}
///<summary>
///linear accelleration of entity
///</summary>
public void setEntityLinearAcceleration(Vector3Float pEntityLinearAcceleration)
{
_entityLinearAcceleration = pEntityLinearAcceleration;
}
///<summary>
///designtor spot wrt the designated entity
///</summary>
public void setDesignatorSpotWrtDesignated(Vector3Float pDesignatorSpotWrtDesignated)
{
_designatorSpotWrtDesignated = pDesignatorSpotWrtDesignated;
}
///<summary>
///location of the detonation or impact in the target entity's coordinate system. This information should be used for damage assessment.
///</summary>
public void setLocationInEntityCoordinates(Vector3Float pLocationInEntityCoordinates)
{
_locationInEntityCoordinates = pLocationInEntityCoordinates;
}
///<summary>
///dimensions of bounding box for the aggregated entities, origin at the center of mass
///</summary>
public void setDimensions(Vector3Float pDimensions)
{
_dimensions = pDimensions;
}
///<summary>
///location of the detonation or impact in the target entity's coordinate system. This information should be used for damage assessment.
///</summary>
public void setLocationInEntityCoordinates(Vector3Float pLocationInEntityCoordinates)
{
_locationInEntityCoordinates = pLocationInEntityCoordinates;
}
///<summary>
///velocity at collision
///</summary>
public void setVelocity(Vector3Float pVelocity)
{
_velocity = pVelocity;
}
///<summary>
///Location with respect to the entity
///</summary>
public void setLocation(Vector3Float pLocation)
{
_location = pLocation;
}
///<summary>
///Location of the radiating portion of the antenna in entity coordinates
///</summary>
public void setRelativeAntennaLocation(Vector3Float pRelativeAntennaLocation)
{
_relativeAntennaLocation = pRelativeAntennaLocation;
}
///<summary>
///dimensions of bounding box for the aggregated entities, origin at the center of mass
///</summary>
public void setDimensions(Vector3Float pDimensions)
{
_dimensions = pDimensions;
}
///<summary>
///relative location of antenna
///</summary>
public void setRelativeAntennaLocation(Vector3Float pRelativeAntennaLocation)
{
_relativeAntennaLocation = pRelativeAntennaLocation;
}
public new void unmarshal(DataInputStream dis)
{
base.unmarshal(dis);
try
{
_radioEntityType.unmarshal(dis);
_transmitState = dis.readByte();
_inputSource = dis.readByte();
_padding1 = dis.readUshort();
_antennaLocation.unmarshal(dis);
_relativeAntennaLocation.unmarshal(dis);
_antennaPatternType = dis.readUshort();
_antennaPatternCount = dis.readUshort();
_frequency = dis.readUlong();
_transmitFrequencyBandwidth = dis.readFloat();
_power = dis.readFloat();
_modulationType.unmarshal(dis);
_cryptoSystem = dis.readUshort();
_cryptoKeyId = dis.readUshort();
_modulationParameterCount = dis.readByte();
_padding2 = dis.readUshort();
_padding3 = dis.readByte();
for(int idx = 0; idx < _modulationParameterCount; idx++)
{
Vector3Float anX = new Vector3Float();
anX.unmarshal(dis);
_modulationParametersList.Add(anX);
};
for(int idx = 0; idx < _antennaPatternCount; idx++)
{
Vector3Float anX = new Vector3Float();
anX.unmarshal(dis);
_antennaPatternList.Add(anX);
};
} // end try
catch(Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
}
///<summary>
///This record shall represent the normal vector to the surface at the point of collision detection. The surface normal shall be represented in world coordinates.
///</summary>
public void setUnitSurfaceNormal(Vector3Float pUnitSurfaceNormal)
{
_unitSurfaceNormal = pUnitSurfaceNormal;
}
///<summary>
///Represents the location wrt the entity
///</summary>
public void setEmitterLocation(Vector3Float pEmitterLocation)
{
_emitterLocation = pEmitterLocation;
}
/**
* The equals method doesn't always work--mostly on on classes that consist only of primitives. Be careful.
*/
public bool equals(TransmitterPdu rhs)
{
bool ivarsEqual = true;
if (rhs.GetType() != this.GetType())
{
return(false);
}
if (!(_radioEntityType.Equals(rhs._radioEntityType)))
{
ivarsEqual = false;
}
if (!(_transmitState == rhs._transmitState))
{
ivarsEqual = false;
}
if (!(_inputSource == rhs._inputSource))
{
ivarsEqual = false;
}
if (!(_padding1 == rhs._padding1))
{
ivarsEqual = false;
}
if (!(_antennaLocation.Equals(rhs._antennaLocation)))
{
ivarsEqual = false;
}
if (!(_relativeAntennaLocation.Equals(rhs._relativeAntennaLocation)))
{
ivarsEqual = false;
}
if (!(_antennaPatternType == rhs._antennaPatternType))
{
ivarsEqual = false;
}
if (!(_antennaPatternCount == rhs._antennaPatternCount))
{
ivarsEqual = false;
}
if (!(_frequency == rhs._frequency))
{
ivarsEqual = false;
}
if (!(_transmitFrequencyBandwidth == rhs._transmitFrequencyBandwidth))
{
ivarsEqual = false;
}
if (!(_power == rhs._power))
{
ivarsEqual = false;
}
if (!(_modulationType.Equals(rhs._modulationType)))
{
ivarsEqual = false;
}
if (!(_cryptoSystem == rhs._cryptoSystem))
{
ivarsEqual = false;
}
if (!(_cryptoKeyId == rhs._cryptoKeyId))
{
ivarsEqual = false;
}
if (!(_modulationParameterCount == rhs._modulationParameterCount))
{
ivarsEqual = false;
}
if (!(_padding2 == rhs._padding2))
{
ivarsEqual = false;
}
if (!(_padding3 == rhs._padding3))
{
ivarsEqual = false;
}
for (int idx = 0; idx < _modulationParametersList.Count; idx++)
{
Vector3Float x = (Vector3Float)_modulationParametersList[idx];
if (!(_modulationParametersList[idx].Equals(rhs._modulationParametersList[idx])))
{
ivarsEqual = false;
}
}
for (int idx = 0; idx < _antennaPatternList.Count; idx++)
{
Vector3Float x = (Vector3Float)_antennaPatternList[idx];
if (!(_antennaPatternList[idx].Equals(rhs._antennaPatternList[idx])))
{
ivarsEqual = false;
}
}
return(ivarsEqual);
}
///<summary>
///designtor spot wrt the designated entity
///</summary>
public void setDesignatorSpotWrtDesignated(Vector3Float pDesignatorSpotWrtDesignated)
{
_designatorSpotWrtDesignated = pDesignatorSpotWrtDesignated;
}
///<summary>
///angular velocity of the entity
///</summary>
public void setEntityAngularVelocity(Vector3Float pEntityAngularVelocity)
{
_entityAngularVelocity = pEntityAngularVelocity;
}
///<summary>
///Represents the location wrt the entity
///</summary>
public void setEmitterLocation(Vector3Float pEmitterLocation)
{
_emitterLocation = pEmitterLocation;
}
///<summary>
///Describes the speed of the entity in the world
///</summary>
public void setEntityLinearVelocity(Vector3Float pEntityLinearVelocity)
{
_entityLinearVelocity = pEntityLinearVelocity;
}
///<summary>
///angular velocity of the entity
///</summary>
public void setEntityAngularVelocity(Vector3Float pEntityAngularVelocity)
{
_entityAngularVelocity = pEntityAngularVelocity;
}
