// Copyright (c) 1995-2009 held by the author(s). All rights reserved.
// Redistribution and use in source and binary forms, with or without
// modification, are permitted provided that the following conditions
// are met:
//
// * Redistributions of source code must retain the above copyright
// notice, this list of conditions and the following disclaimer.
// * Redistributions in binary form must reproduce the above copyright
// notice, this list of conditions and the following disclaimer
// in the documentation and/or other materials provided with the
// distribution.
// * Neither the names of the Naval Postgraduate School (NPS)
// Modeling Virtual Environments and Simulation (MOVES) Institute
// (http://www.nps.edu and http://www.MovesInstitute.org)
// nor the names of its contributors may be used to endorse or
// promote products derived from this software without specific
// prior written permission.
//
// THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
// AS IS AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
// LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
// FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE
// COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT,
// INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING,
// BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
// LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER
// CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
// LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN
// ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
// POSSIBILITY OF SUCH DAMAGE.
using System;
using System.Collections.Generic;
using System.Text;
using System.Diagnostics;
using System.Xml.Serialization;
using DISnet.DataStreamUtilities;
namespace DIS1998net
{
/**
* Section 5.2.22. Contains electromagnetic emmision regineratin parameters that are variable throughout a scenario dependent on the actions of the participants in the simulation. Also provides basic parametric data that may be used to support low-fidelity simulations.
*
* Copyright (c) 2008, MOVES Institute, Naval Postgraduate School. All rights reserved.
* This work is licensed under the BSD open source license, available at https://www.movesinstitute.org/licenses/bsd.html
*
* @author DMcG
* Modified for use with C#:
* Peter Smith (Naval Air Warfare Center - Training Systems Division)
*/
[Serializable]
[XmlRoot]
public partial class FundamentalParameterData : Object
{
/** center frequency of the emission in hertz. */
protected float _frequency;
/** Bandwidth of the frequencies corresponding to the fequency field. */
protected float _frequencyRange;
/** Effective radiated power for the emission in DdBm. For a radar noise jammer, indicates the peak of the transmitted power. */
protected float _effectiveRadiatedPower;
/** Average repetition frequency of the emission in hertz. */
protected float _pulseRepetitionFrequency;
/** Average pulse width of the emission in microseconds. */
protected float _pulseWidth;
/** Specifies the beam azimuth an elevation centers and corresponding half-angles to describe the scan volume */
protected float _beamAzimuthCenter;
/** Specifies the beam azimuth sweep to determine scan volume */
protected float _beamAzimuthSweep;
/** Specifies the beam elevation center to determine scan volume */
protected float _beamElevationCenter;
/** Specifies the beam elevation sweep to determine scan volume */
protected float _beamElevationSweep;
/** allows receiver to synchronize its regenerated scan pattern to that of the emmitter. Specifies the percentage of time a scan is through its pattern from its origion. */
protected float _beamSweepSync;
/** Constructor */
///<summary>
///Section 5.2.22. Contains electromagnetic emmision regineratin parameters that are variable throughout a scenario dependent on the actions of the participants in the simulation. Also provides basic parametric data that may be used to support low-fidelity simulations.
///</summary>
public FundamentalParameterData()
{
}
public int getMarshalledSize()
{
int marshalSize = 0;
marshalSize = marshalSize + 4; // _frequency
marshalSize = marshalSize + 4; // _frequencyRange
marshalSize = marshalSize + 4; // _effectiveRadiatedPower
marshalSize = marshalSize + 4; // _pulseRepetitionFrequency
marshalSize = marshalSize + 4; // _pulseWidth
marshalSize = marshalSize + 4; // _beamAzimuthCenter
marshalSize = marshalSize + 4; // _beamAzimuthSweep
marshalSize = marshalSize + 4; // _beamElevationCenter
marshalSize = marshalSize + 4; // _beamElevationSweep
marshalSize = marshalSize + 4; // _beamSweepSync
return marshalSize;
}
///<summary>
///center frequency of the emission in hertz.
///</summary>
public void setFrequency(float pFrequency)
{
_frequency = pFrequency;
}
[XmlElement(Type= typeof(float), ElementName="frequency")]
public float Frequency
{
get
{
return _frequency;
}
set
{
_frequency = value;
}
}
///<summary>
///Bandwidth of the frequencies corresponding to the fequency field.
///</summary>
public void setFrequencyRange(float pFrequencyRange)
{
_frequencyRange = pFrequencyRange;
}
[XmlElement(Type= typeof(float), ElementName="frequencyRange")]
public float FrequencyRange
{
get
{
return _frequencyRange;
}
set
{
_frequencyRange = value;
}
}
///<summary>
///Effective radiated power for the emission in DdBm. For a radar noise jammer, indicates the peak of the transmitted power.
///</summary>
public void setEffectiveRadiatedPower(float pEffectiveRadiatedPower)
{
_effectiveRadiatedPower = pEffectiveRadiatedPower;
}
[XmlElement(Type= typeof(float), ElementName="effectiveRadiatedPower")]
public float EffectiveRadiatedPower
{
get
{
return _effectiveRadiatedPower;
}
set
{
_effectiveRadiatedPower = value;
}
}
///<summary>
///Average repetition frequency of the emission in hertz.
///</summary>
public void setPulseRepetitionFrequency(float pPulseRepetitionFrequency)
{
_pulseRepetitionFrequency = pPulseRepetitionFrequency;
}
[XmlElement(Type= typeof(float), ElementName="pulseRepetitionFrequency")]
public float PulseRepetitionFrequency
{
get
{
return _pulseRepetitionFrequency;
}
set
{
_pulseRepetitionFrequency = value;
}
}
///<summary>
///Average pulse width of the emission in microseconds.
///</summary>
public void setPulseWidth(float pPulseWidth)
{
_pulseWidth = pPulseWidth;
}
[XmlElement(Type= typeof(float), ElementName="pulseWidth")]
public float PulseWidth
{
get
{
return _pulseWidth;
}
set
{
_pulseWidth = value;
}
}
///<summary>
///Specifies the beam azimuth an elevation centers and corresponding half-angles to describe the scan volume
///</summary>
public void setBeamAzimuthCenter(float pBeamAzimuthCenter)
{
_beamAzimuthCenter = pBeamAzimuthCenter;
}
[XmlElement(Type= typeof(float), ElementName="beamAzimuthCenter")]
public float BeamAzimuthCenter
{
get
{
return _beamAzimuthCenter;
}
set
{
_beamAzimuthCenter = value;
}
}
///<summary>
///Specifies the beam azimuth sweep to determine scan volume
///</summary>
public void setBeamAzimuthSweep(float pBeamAzimuthSweep)
{
_beamAzimuthSweep = pBeamAzimuthSweep;
}
[XmlElement(Type= typeof(float), ElementName="beamAzimuthSweep")]
public float BeamAzimuthSweep
{
get
{
return _beamAzimuthSweep;
}
set
{
_beamAzimuthSweep = value;
}
}
///<summary>
///Specifies the beam elevation center to determine scan volume
///</summary>
public void setBeamElevationCenter(float pBeamElevationCenter)
{
_beamElevationCenter = pBeamElevationCenter;
}
[XmlElement(Type= typeof(float), ElementName="beamElevationCenter")]
public float BeamElevationCenter
{
get
{
return _beamElevationCenter;
}
set
{
_beamElevationCenter = value;
}
}
///<summary>
///Specifies the beam elevation sweep to determine scan volume
///</summary>
public void setBeamElevationSweep(float pBeamElevationSweep)
{
_beamElevationSweep = pBeamElevationSweep;
}
[XmlElement(Type= typeof(float), ElementName="beamElevationSweep")]
public float BeamElevationSweep
{
get
{
return _beamElevationSweep;
}
set
{
_beamElevationSweep = value;
}
}
///<summary>
///allows receiver to synchronize its regenerated scan pattern to that of the emmitter. Specifies the percentage of time a scan is through its pattern from its origion.
///</summary>
public void setBeamSweepSync(float pBeamSweepSync)
{
_beamSweepSync = pBeamSweepSync;
}
[XmlElement(Type= typeof(float), ElementName="beamSweepSync")]
public float BeamSweepSync
{
get
{
return _beamSweepSync;
}
set
{
_beamSweepSync = value;
}
}
///<summary>
///Marshal the data to the DataOutputStream. Note: Length needs to be set before calling this method
///</summary>
public void marshal(DataOutputStream dos)
{
try
{
dos.writeFloat((float)_frequency);
dos.writeFloat((float)_frequencyRange);
dos.writeFloat((float)_effectiveRadiatedPower);
dos.writeFloat((float)_pulseRepetitionFrequency);
dos.writeFloat((float)_pulseWidth);
dos.writeFloat((float)_beamAzimuthCenter);
dos.writeFloat((float)_beamAzimuthSweep);
dos.writeFloat((float)_beamElevationCenter);
dos.writeFloat((float)_beamElevationSweep);
dos.writeFloat((float)_beamSweepSync);
} // end try
catch(Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of marshal method
public void unmarshal(DataInputStream dis)
{
try
{
_frequency = dis.readFloat();
_frequencyRange = dis.readFloat();
_effectiveRadiatedPower = dis.readFloat();
_pulseRepetitionFrequency = dis.readFloat();
_pulseWidth = dis.readFloat();
_beamAzimuthCenter = dis.readFloat();
_beamAzimuthSweep = dis.readFloat();
_beamElevationCenter = dis.readFloat();
_beamElevationSweep = dis.readFloat();
_beamSweepSync = dis.readFloat();
} // end try
catch(Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // 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>
public void reflection(StringBuilder sb)
{
sb.Append("<FundamentalParameterData>" + System.Environment.NewLine);
try
{
sb.Append("<frequency type=\"float\">" + _frequency.ToString() + "</frequency> " + System.Environment.NewLine);
sb.Append("<frequencyRange type=\"float\">" + _frequencyRange.ToString() + "</frequencyRange> " + System.Environment.NewLine);
sb.Append("<effectiveRadiatedPower type=\"float\">" + _effectiveRadiatedPower.ToString() + "</effectiveRadiatedPower> " + System.Environment.NewLine);
sb.Append("<pulseRepetitionFrequency type=\"float\">" + _pulseRepetitionFrequency.ToString() + "</pulseRepetitionFrequency> " + System.Environment.NewLine);
sb.Append("<pulseWidth type=\"float\">" + _pulseWidth.ToString() + "</pulseWidth> " + System.Environment.NewLine);
sb.Append("<beamAzimuthCenter type=\"float\">" + _beamAzimuthCenter.ToString() + "</beamAzimuthCenter> " + System.Environment.NewLine);
sb.Append("<beamAzimuthSweep type=\"float\">" + _beamAzimuthSweep.ToString() + "</beamAzimuthSweep> " + System.Environment.NewLine);
sb.Append("<beamElevationCenter type=\"float\">" + _beamElevationCenter.ToString() + "</beamElevationCenter> " + System.Environment.NewLine);
sb.Append("<beamElevationSweep type=\"float\">" + _beamElevationSweep.ToString() + "</beamElevationSweep> " + System.Environment.NewLine);
sb.Append("<beamSweepSync type=\"float\">" + _beamSweepSync.ToString() + "</beamSweepSync> " + System.Environment.NewLine);
sb.Append("</FundamentalParameterData>" + System.Environment.NewLine);
} // end try
catch(Exception e)
{
Trace.WriteLine(e);
Trace.Flush();
}
} // end of reflection method
public static bool operator !=(FundamentalParameterData a, FundamentalParameterData b)
{
return !(a == b);
}
public static bool operator ==(FundamentalParameterData a, FundamentalParameterData b)
{
if (System.Object.ReferenceEquals(a, b))
{
return true;
}
if (((object)a == null) || ((object)b == null))
{
return false;
}
return a.equals(b);
}
public override bool Equals(object obj)
{
return this == obj as FundamentalParameterData;
}
/**
* Compares for reference equality and value equality.
*/
public bool equals(FundamentalParameterData rhs)
{
bool ivarsEqual = true;
if(rhs.GetType() != this.GetType())
return false;
if( ! (_frequency == rhs._frequency)) ivarsEqual = false;
if( ! (_frequencyRange == rhs._frequencyRange)) ivarsEqual = false;
if( ! (_effectiveRadiatedPower == rhs._effectiveRadiatedPower)) ivarsEqual = false;
if( ! (_pulseRepetitionFrequency == rhs._pulseRepetitionFrequency)) ivarsEqual = false;
if( ! (_pulseWidth == rhs._pulseWidth)) ivarsEqual = false;
if( ! (_beamAzimuthCenter == rhs._beamAzimuthCenter)) ivarsEqual = false;
if( ! (_beamAzimuthSweep == rhs._beamAzimuthSweep)) ivarsEqual = false;
if( ! (_beamElevationCenter == rhs._beamElevationCenter)) ivarsEqual = false;
if( ! (_beamElevationSweep == rhs._beamElevationSweep)) ivarsEqual = false;
if( ! (_beamSweepSync == rhs._beamSweepSync)) ivarsEqual = false;
return ivarsEqual;
}
/**
* HashCode Helper
*/
private int GenerateHash(int hash)
{
hash = hash << 5 + hash;
return(hash);
}
/**
* Return Hash
*/
public override int GetHashCode()
{
int result = 0;
result = GenerateHash(result) ^ _frequency.GetHashCode();
result = GenerateHash(result) ^ _frequencyRange.GetHashCode();
result = GenerateHash(result) ^ _effectiveRadiatedPower.GetHashCode();
result = GenerateHash(result) ^ _pulseRepetitionFrequency.GetHashCode();
result = GenerateHash(result) ^ _pulseWidth.GetHashCode();
result = GenerateHash(result) ^ _beamAzimuthCenter.GetHashCode();
result = GenerateHash(result) ^ _beamAzimuthSweep.GetHashCode();
result = GenerateHash(result) ^ _beamElevationCenter.GetHashCode();
result = GenerateHash(result) ^ _beamElevationSweep.GetHashCode();
result = GenerateHash(result) ^ _beamSweepSync.GetHashCode();
return result;
}
} // end of class
} // end of namespace
Submit an article or tip