public IHttpActionResult PutVoltageLevel(int id, VoltageLevel voltageLevel)
{
if (!ModelState.IsValid)
{
return(BadRequest(ModelState));
}
if (id != voltageLevel.ID)
{
return(BadRequest());
}
db.Entry(voltageLevel).State = EntityState.Modified;
try
{
db.SaveChanges();
}
catch (DbUpdateConcurrencyException)
{
if (!VoltageLevelExists(id))
{
return(NotFound());
}
else
{
throw;
}
}
return(StatusCode(HttpStatusCode.NoContent));
}
public VoltageLevelDetailViewModel(object voltageLevel)
{
if (voltageLevel != null && voltageLevel is VoltageLevel)
{
m_voltageLevel = voltageLevel as VoltageLevel;
}
}
public ActionResult DeleteConfirmed(int id)
{
VoltageLevel voltageLevel = db.VoltageLevels.Find(id);
db.VoltageLevels.Remove(voltageLevel);
db.SaveChanges();
return(RedirectToAction("Index"));
}
public ChannelAggregate(long id, long ownerId, string name, VoltageLevel voltageLevelId, DateTime beginDate, DateTime endDate, bool isTransit, bool deleted)
{
Id = id;
Name = name;
VoltageLevelId = voltageLevelId;
BeginDate = beginDate;
EndDate = endDate;
Deleted = deleted;
}
public ActionResult Edit([Bind(Include = "ID,Name,Description,Notes")] VoltageLevel voltageLevel)
{
if (ModelState.IsValid)
{
db.Entry(voltageLevel).State = EntityState.Modified;
db.SaveChanges();
return(RedirectToAction("Index"));
}
return(View(voltageLevel));
}
/// <summary>
/// Saves the input VoltageLevel object to DB
/// </summary>
/// <param name="voltageLevel">VoltageLevel object</param>
public void SaveVoltageLevel(VoltageLevel voltageLevel)
{
if (this.Context.VoltageLevels.Any(vl => vl.NominalVoltage == voltageLevel.NominalVoltage && vl.SubstationId == voltageLevel.SubstationId))
{
return;
}
this.Context.VoltageLevels.InsertOnSubmit(voltageLevel);
this.Context.SubmitChanges();
}
public ConstantFlowAggregate(long id, long ownerId, string name, double consumption, VoltageLevel voltageLevelId, DateTime beginDate, DateTime endDate, bool isTransit, bool deleted)
{
Id = id;
Name = name;
Сonsumption = consumption;
VoltageLevelId = voltageLevelId;
BeginDate = beginDate;
EndDate = endDate;
Deleted = deleted;
}
public IHttpActionResult GetVoltageLevel(int id)
{
VoltageLevel voltageLevel = db.VoltageLevels.Find(id);
if (voltageLevel == null)
{
return(NotFound());
}
return(Ok(voltageLevel));
}
private void AddVoltageLevelToRetainList()
{
MainWindowViewModel mainWindow = m_networkTree.MainWindow as MainWindowViewModel;
VoltageLevel voltageLevel = m_networkElement.Element as VoltageLevel;
if (!mainWindow.RetainedVoltageLevels.Contains(voltageLevel))
{
mainWindow.RetainedVoltageLevels.Add(voltageLevel);
mainWindow.ActionStatus = $"{voltageLevel.Description} added to retained list.";
}
}
/// <summary>
/// Designated constructor method for the <see cref="PhasorBase"/> object.
/// </summary>
/// <param name="magnitudeKey">The measurement key which corresponds to the magnitude of the phasor.</param>
/// <param name="angleKey">The measurement key which corresponds to the angle of the phasor.</param>
/// <param name="type">The <see cref="PhasorType"/> of the phasor.</param>
/// <param name="baseKV">The <see cref="VoltageLevel"/> of the phasor.</param>
public PhasorBase(string magnitudeKey, string angleKey, PhasorType type, VoltageLevel baseKV)
{
m_magnitudeValueWasReported = false;
m_angleValueWasReported = false;
m_magnitude = 0;
m_angleInDegrees = 0;
m_magnitudeKey = magnitudeKey;
m_angleKey = angleKey;
m_type = type;
m_baseKV = baseKV;
}
public ActionResult Create([Bind(Include = "ID,Name,Description,Notes")] VoltageLevel voltageLevel)
{
if (ModelState.IsValid)
{
db.VoltageLevels.Add(voltageLevel);
db.SaveChanges();
return(RedirectToAction("Index"));
}
return(View(voltageLevel));
}
public IHttpActionResult PostVoltageLevel(VoltageLevel voltageLevel)
{
if (!ModelState.IsValid)
{
return(BadRequest(ModelState));
}
db.VoltageLevels.Add(voltageLevel);
db.SaveChanges();
return(CreatedAtRoute("DefaultApi", new { id = voltageLevel.ID }, voltageLevel));
}
// GET: VoltageLevels/Delete/5
public ActionResult Delete(int?id)
{
if (id == null)
{
return(new HttpStatusCodeResult(HttpStatusCode.BadRequest));
}
VoltageLevel voltageLevel = db.VoltageLevels.Find(id);
if (voltageLevel == null)
{
return(HttpNotFound());
}
return(View(voltageLevel));
}
public IHttpActionResult DeleteVoltageLevel(int id)
{
VoltageLevel voltageLevel = db.VoltageLevels.Find(id);
if (voltageLevel == null)
{
return(NotFound());
}
db.VoltageLevels.Remove(voltageLevel);
db.SaveChanges();
return(Ok(voltageLevel));
}
/// <summary>
/// Attempts to get the <see cref="VoltageLevel"/> enum value for the source kV <paramref name="value"/>.
/// </summary>
/// <param name="value">kV value to attempt to find.</param>
/// <param name="level">Mapped <see cref="VoltageLevel"/> enum value, if found.</param>
/// <returns>
/// <c>true</c> if matching <see cref="VoltageLevel"/> enum value is found for specified kV
/// <paramref name="value"/>; otherwise, <c>false</c>.
/// </returns>
public static bool TryGetVoltageLevel(this int value, out VoltageLevel level)
{
foreach (KeyValuePair <VoltageLevel, int> kvp in m_voltageLevelMap)
{
if (kvp.Value == value)
{
level = kvp.Key;
return(true);
}
}
level = default;
return(false);
}
public DodajTrafo(String name, String alias, String desc, float voltage)
{
s.name = name;
s.description = desc;
Random r = new Random();
s.mRID = 'a' + r.Next(1000).ToString();
s.aliasName = alias;
s.connectivityNodes = new List <ConnectivityNode>();
s.x = -1;
s.y = -1;
s.Bays = new List <Bay>();
s.Equipments = new List <Equipment>();
s.VoltageLevels = new List <VoltageLevel>();
BaseVoltage bv = new BaseVoltage()
{
aliasName = "sub_-" + s.mRID + "_bv_" + s.aliasName,
mRID = "sub_-" + s.mRID + "-_bv_-" + s.mRID,
name = "sub_-" + s.mRID + "-_bv_-" + s.name,
description = name = "sub_-" + s.mRID + "-_bv_-" + s.description,
nominalVoltage = voltage,
ConductingEquipment = new List <ConductingEquipment>()
};
VoltageLevel vl = new VoltageLevel()
{
aliasName = "sub_" + s.mRID + "_vl_" + s.aliasName,
mRID = "sub_-" + s.mRID + "-_vl_-" + s.mRID,
name = "sub_-" + s.mRID + "-_vl_-" + s.name,
description = name = "sub_-" + s.mRID + "-_vl_-" + s.description,
BaseVoltage = bv,
Bays = new List <Bay>(),
Equipments = new List <Equipment>()
};
s.VoltageLevels.Add(vl);
}
/// <summary>
/// A constructor with default values except for the <see cref="PhasorType"/> and the <see cref="VoltageLevel"/> of the phasor.
/// </summary>
/// <param name="type">The <see cref="PhasorType"/> of the phasor.</param>
/// <param name="baseKV">The <see cref="VoltageLevel"/> of the phasor.</param>
public PhasorBase(PhasorType type, VoltageLevel baseKV)
: this("Undefined", "Undefined", type, baseKV)
{
}
/// <summary> /// Gets the voltage level for the specified <see cref="VoltageLevel"/> enum value. /// </summary> /// <param name="level">Target <see cref="VoltageLevel"/> enum value.</param> /// <returns>Voltage level for the specified <paramref name="level"/>.</returns> public static int Value(this VoltageLevel level) => m_voltageLevelMap.TryGetValue(level, out int value) ? value : 0;
static void Main(string[] args)
{
//PhasorMeasurement busAVoltage = new PhasorMeasurement()
// {
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133518.0156,
// AngleInDegrees = -2.4644
// };
//PhasorMeasurement busBVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133758.7656,
// AngleInDegrees = 2.4317
//};
//PhasorMeasurement busCVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133666.7188,
// AngleInDegrees = -2.1697
//};
//PhasorMeasurement busDVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 134102.8125,
// AngleInDegrees = 0.0096257
//};
//PhasorMeasurement busEVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133088.9688,
// AngleInDegrees = -7.2477
//};
//PhasorMeasurement busFVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133141.7344,
// AngleInDegrees = -6.3372
//};
//PhasorMeasurement busGVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133346.1094,
// AngleInDegrees = -5.8259
//};
//PhasorMeasurement busHVoltage = new PhasorMeasurement()
//{
// Type = PhasorType.VoltagePhasor,
// BaseKV = new VoltageLevel(1, 230),
// Magnitude = 133492.2969,
// AngleInDegrees = -4.6002
//};
/////
/////
///// Current
//PhasorMeasurement busBtoBusAFlow = new PhasorMeasurement()
// {
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
// };
//PhasorMeasurement busBtoBusCFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busDtoBusCFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busDtoBusFFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busAtoBusEFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busFtoBusEFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busAtoBusGFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busHtoBusGFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//PhasorMeasurement busDtoBusHFlow = new PhasorMeasurement()
//{
// Type = PhasorType.CurrentPhasor,
// BaseKV = new VoltageLevel(1, 230)
//};
//busBtoBusAFlow.PerUnitComplexPhasor = (busBVoltage.PerUnitComplexPhasor - busAVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.01));
//busBtoBusCFlow.PerUnitComplexPhasor = (busBVoltage.PerUnitComplexPhasor - busCVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.06));
//busDtoBusCFlow.PerUnitComplexPhasor = (busDVoltage.PerUnitComplexPhasor - busCVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.06));
//busDtoBusFFlow.PerUnitComplexPhasor = (busDVoltage.PerUnitComplexPhasor - busFVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.01));
//busAtoBusEFlow.PerUnitComplexPhasor = (busAVoltage.PerUnitComplexPhasor - busEVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.005));
//busFtoBusEFlow.PerUnitComplexPhasor = (busFVoltage.PerUnitComplexPhasor - busEVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.005));
//busAtoBusGFlow.PerUnitComplexPhasor = (busAVoltage.PerUnitComplexPhasor - busGVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.005));
//busHtoBusGFlow.PerUnitComplexPhasor = (busHVoltage.PerUnitComplexPhasor - busGVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.01));
//busDtoBusHFlow.PerUnitComplexPhasor = (busDVoltage.PerUnitComplexPhasor - busHVoltage.PerUnitComplexPhasor) / (new Complex(0.0, 0.01));
//Console.WriteLine("BusB.BusA: " + busBtoBusAFlow.Magnitude.ToString() + " " + (busBtoBusAFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusB.BusC: " + busBtoBusCFlow.Magnitude.ToString() + " " + (busBtoBusCFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusD.BusC: " + busDtoBusCFlow.Magnitude.ToString() + " " + (busDtoBusCFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusD.BusF: " + busDtoBusFFlow.Magnitude.ToString() + " " + (busDtoBusFFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusA.BusE: " + busAtoBusEFlow.Magnitude.ToString() + " " + (busAtoBusEFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusF.BusE: " + busFtoBusEFlow.Magnitude.ToString() + " " + (busFtoBusEFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusA.BusG: " + busAtoBusGFlow.Magnitude.ToString() + " " + (busAtoBusGFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusH.BusG: " + busHtoBusGFlow.Magnitude.ToString() + " " + (busHtoBusGFlow.AngleInDegrees).ToString());
//Console.WriteLine("BusD.BusH: " + busDtoBusHFlow.Magnitude.ToString() + " " + (busDtoBusHFlow.AngleInDegrees).ToString());
//Network network = Network.DeserializeFromXml(@"\\psf\Home\Documents\mc2\Linear State Estimation\EPG\LinearStateEstimator.OfflineModule\x86\TransmissionLineGraphTestFull4.xml");
//Network network = Network.DeserializeFromXml(@"\\psf\Home\Documents\mc2\Projects\EPG - WECC SDVCA\Data\July 20, 2014 Test Cases\shunt_test_model.xml");
//RawMeasurements rawMeasurements = RawMeasurements.DeserializeFromXml(@"\\psf\Home\Documents\mc2\Projects\EPG - WECC SDVCA\Data\July 20, 2014 Test Cases\ShuntSeriesTestCase151.xml");
//network.Initialize();
//network.Model.InputKeyValuePairs.Clear();
//for (int i = 0; i < rawMeasurements.Items.Count(); i++)
//{
// network.Model.InputKeyValuePairs.Add(rawMeasurements.Items[i].Key, Convert.ToDouble(rawMeasurements.Items[i].Value));
//}
//network.Model.OnNewMeasurements();
//Console.WriteLine(network.Model.ComponentList());
//Dictionary<string, double> receivedMeasurements = network.Model.GetReceivedMeasurements();
//foreach (KeyValuePair<string, double> keyValuePair in receivedMeasurements)
//{
// Console.WriteLine(keyValuePair.Key + " " + keyValuePair.Value.ToString());
//}
//Console.WriteLine(rawMeasurements.Items.Count().ToString());
//Console.WriteLine(receivedMeasurements.Count.ToString());
//Console.WriteLine();
//network.RunNetworkReconstructionCheck();
//network.Model.DetermineActiveCurrentFlows();
//network.Model.DetermineActiveCurrentInjections();
//Console.WriteLine(network.Model.MeasurementInclusionStatusList());
//network.Model.ResolveToObservedBusses();
//Console.WriteLine(network.Model.ObservedBusses.Count);
//foreach (Substation substation in network.Model.Substations)
//{
// Console.WriteLine(substation.Graph.AdjacencyList.ToString());
//}
//network.Model.ResolveToSingleFlowBranches();
//foreach (TransmissionLine transmissionLine in network.Model.TransmissionLines)
//{
// Console.WriteLine();
// Console.WriteLine(transmissionLine.Name);
// Console.WriteLine("Has at least one flow path: " + transmissionLine.Graph.HasAtLeastOneFlowPath.ToString());
// Console.WriteLine(transmissionLine.Graph.DirectlyConnectedAdjacencyList.ToString());
// Console.WriteLine(transmissionLine.Graph.SeriesImpedanceConnectedAdjacencyList.ToString());
// Console.WriteLine(transmissionLine.Graph.RootNode.ToSubtreeString());
// List<SeriesBranchBase> seriesBranches = transmissionLine.Graph.SingleFlowPathBranches;
// foreach (SeriesBranchBase seriesBranch in seriesBranches)
// {
// seriesBranch.ToVerboseString();
// }
//}
//network.ComputeSystemState();
//network.Model.ComputeEstimatedCurrentFlows();
//network.Model.ComputeEstimatedCurrentInjections();
//TransmissionLine transmissionLine = network.Model.Companies[0].Divisions[0].TransmissionLines[0];
//foreach (Switch bypassSwitch in transmissionLine.Switches)
//{
// bypassSwitch.IsInDefaultMode = false;
// bypassSwitch.ActualState = SwitchingDeviceActualState.Closed;
// if (bypassSwitch.InternalID == 1) { bypassSwitch.ActualState = SwitchingDeviceActualState.Closed; }
// Console.WriteLine(String.Format("ID:{0} Normally:{1} Actually:{2}", bypassSwitch.InternalID, bypassSwitch.NormalState, bypassSwitch.ActualState));
//}
//TransmissionLineGraph graph = new TransmissionLineGraph(transmissionLine);
//graph.InitializeAdjacencyLists();
//Console.WriteLine(graph.DireclyConnectedAdjacencyList.ToString());
//graph.ResolveConnectedAdjacencies();
//Console.WriteLine(graph.DireclyConnectedAdjacencyList.ToString());
//Console.WriteLine(graph.SeriesImpedanceConnectedAdjacencyList.ToString());
//if (graph.HasAtLeastOneFlowPath)
//{
// Console.WriteLine(graph.SeriesImpedanceConnectedAdjacencyList.ToString());
// graph.InitializeTree();
// Console.WriteLine(graph.RootNode.ToSubtreeString());
// Console.WriteLine("Number of series branches: " + graph.SingleFlowPathBranches.Count);
// Console.WriteLine(graph.ResolveToSingleSeriesBranch().RawImpedanceParameters.ToString());
//}
//else
//{
// Console.WriteLine("Graph does not have at least one flow path -> tree would be invalid!");
//}
//SequencedMeasurementSnapshotPathSet sequencedMeasurementSnapshotPathSet = new SequencedMeasurementSnapshotPathSet();
//sequencedMeasurementSnapshotPathSet.MeasurementSnapshotPaths.Add(new MeasurementSnapshotPath("value"));
//sequencedMeasurementSnapshotPathSet.SerializeToXml("\\\\psf\\Home\\Documents\\mc2\\Projects\\EPG - WECC SDVCA\\Data\\TestCases.xml");
CsvFileWithHeader coFile = new CsvFileWithHeader("U:\\Documents\\Projects\\02 Linear State Estimator\\EMS to LSE\\lse_co.out");
CsvFileWithHeader dvFile = new CsvFileWithHeader("U:\\Documents\\Projects\\02 Linear State Estimator\\EMS to LSE\\lse_dv.out");
CsvFileWithHeader stFile = new CsvFileWithHeader("U:\\Documents\\Projects\\02 Linear State Estimator\\EMS to LSE\\lse_st.out");
CsvFileWithHeader ndFile = new CsvFileWithHeader("U:\\Documents\\Projects\\02 Linear State Estimator\\EMS to LSE\\lse_nd.out");
List <double> nodeBaseKvs = new List <double>();
NetworkModel networkModel = new NetworkModel();
foreach (Dictionary <string, string> node in ndFile.StructuredData)
{
if (!nodeBaseKvs.Contains(Convert.ToDouble(node["id_kv"].TrimEnd('\'').TrimStart('\''))))
{
nodeBaseKvs.Add(Convert.ToDouble(node["id_kv"].TrimEnd('\'').TrimStart('\'')));
}
}
nodeBaseKvs.Sort();
for (int i = 0; i < nodeBaseKvs.Count; i++)
{
networkModel.VoltageLevels.Add(new VoltageLevel(i + 1, nodeBaseKvs[i]));
}
foreach (Dictionary <string, string> row in coFile.StructuredData)
{
Company company = new Company()
{
InternalID = Convert.ToInt32(row["%SUBSCRIPT"]),
Number = Convert.ToInt32(row["%SUBSCRIPT"]),
Name = row["id_area"],
Acronym = row["id_area"],
};
networkModel.Companies.Add(company);
foreach (Dictionary <string, string> divisionRecord in dvFile.StructuredData)
{
if (company.Number == Convert.ToInt32(divisionRecord["i$area_dv"]))
{
Division division = new Division()
{
InternalID = Convert.ToInt32(divisionRecord["%SUBSCRIPT"]),
Number = Convert.ToInt32(divisionRecord["%SUBSCRIPT"]),
Name = divisionRecord["id_dv"],
Acronym = divisionRecord["id_dv"],
};
company.Divisions.Add(division);
foreach (Dictionary <string, string> substationRecord in stFile.StructuredData)
{
if (division.Name == substationRecord["id_dv"])
{
Substation substation = new Substation()
{
InternalID = Convert.ToInt32(substationRecord["%SUBSCRIPT"]),
Number = Convert.ToInt32(substationRecord["%SUBSCRIPT"]),
Acronym = substationRecord["id_st"],
Name = substationRecord["id_st"]
};
division.Substations.Add(substation);
foreach (Dictionary <string, string> nodeRecord in ndFile.StructuredData)
{
if (substation.Name == nodeRecord["id_st"])
{
double baseKvValue = Convert.ToDouble(nodeRecord["id_kv"].TrimEnd('\'').TrimStart('\''));
VoltageLevel baseKv = new VoltageLevel(1, 999);
foreach (VoltageLevel voltageLevel in networkModel.VoltageLevels)
{
if (voltageLevel.Value == baseKv.Value)
{
baseKv = voltageLevel;
}
}
Node node = new Node()
{
InternalID = Convert.ToInt32(nodeRecord["%SUBSCRIPT"]),
Number = Convert.ToInt32(nodeRecord["%SUBSCRIPT"]),
Acronym = nodeRecord["id_nd"],
Name = nodeRecord["id_st"] + "_" + nodeRecord["id_nd"],
Description = nodeRecord["id_st"] + " " + nodeRecord["id_kv"] + "kV Node " + nodeRecord["id_nd"],
BaseKV = baseKv
};
VoltagePhasorGroup voltage = new VoltagePhasorGroup()
{
InternalID = node.InternalID,
Number = node.Number,
Acronym = "V " + node.InternalID.ToString(),
Name = "Phasor Name",
Description = "Voltage Phasor Group Description",
IsEnabled = true,
UseStatusFlagForRemovingMeasurements = true,
MeasuredNode = node
};
voltage.ZeroSequence.Measurement.BaseKV = node.BaseKV;
voltage.ZeroSequence.Estimate.BaseKV = node.BaseKV;
voltage.NegativeSequence.Measurement.BaseKV = node.BaseKV;
voltage.NegativeSequence.Estimate.BaseKV = node.BaseKV;
voltage.PositiveSequence.Measurement.BaseKV = node.BaseKV;
voltage.PositiveSequence.Estimate.BaseKV = node.BaseKV;
voltage.PhaseA.Measurement.BaseKV = node.BaseKV;
voltage.PhaseA.Estimate.BaseKV = node.BaseKV;
voltage.PhaseB.Measurement.BaseKV = node.BaseKV;
voltage.PhaseB.Estimate.BaseKV = node.BaseKV;
voltage.PhaseC.Measurement.BaseKV = node.BaseKV;
voltage.PhaseC.Estimate.BaseKV = node.BaseKV;
node.Voltage = voltage;
substation.Nodes.Add(node);
}
}
}
}
}
}
}
Network network = new Network(networkModel);
network.SerializeToXml("U:\\ems.xml");
Console.ReadLine();
}
private static void DeleteVoltageLevel(VoltageLevel voltageLevel, List <VoltageLevel> parent)
{
parent.Remove(voltageLevel);
}
/// <summary>
/// The designated constructor for the <see cref="LinearStateEstimator.Measurements.PhasorEstimate"/> class.
/// </summary>
/// <param name="magnitudeKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.Magnitude"/> of the <see cref="LinearStateEstimator.Measurements.PhasorEstimate"/>.</param>
/// <param name="angleKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.Magnitude"/> of the <see cref="LinearStateEstimator.Measurements.PhasorEstimate"/>.</param>
/// <param name="type">Specifies whether the phasor measurement is a current phasor or a voltage phasor or complex power with the <see cref="LinearStateEstimator.Measurements.PhasorType"/> enumeration, either <see cref="LinearStateEstimator.Measurements.PhasorType.VoltagePhasor"/>, <see cref="LinearStateEstimator.Measurements.PhasorType.CurrentPhasor"/>, or <see cref="LinearStateEstimator.Measurements.PhasorType.ComplexPower"/>.</param>
/// <param name="baseKV">The <see cref="LinearStateEstimator.Modeling.VoltageLevel"/> of the phasor measurement.</param>
public PhasorEstimate(string magnitudeKey, string angleKey, PhasorType type, VoltageLevel baseKV)
: base(magnitudeKey, angleKey, type, baseKV)
{
}
/// <summary>
/// The designated constructor for the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/> class.
/// </summary>
/// <param name="magnitudeKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.Magnitude"/> of the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>.</param>
/// <param name="angleKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.AngleInDegrees"/> of the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>.</param>
/// <param name="type">Specifies whether the phasor measurement is a current phasor or a
/// voltage phasor or complex power with the <see cref="LinearStateEstimator.Measurements.PhasorType"/> enumeration, either <see cref="LinearStateEstimator.Measurements.PhasorType.VoltagePhasor"/>,
/// <see cref="LinearStateEstimator.Measurements.PhasorType.CurrentPhasor"/>, or <see cref="LinearStateEstimator.Measurements.PhasorType.ComplexPower"/>.</param>
/// <param name="baseKV">The <see cref="LinearStateEstimator.Modeling.VoltageLevel"/> of the phasor measurement.</param>
/// <param name="variance">The measurement variance in per unit.</param>
/// <param name="rcf">The <b>Ratio Correction Factor (RCF)</b> for the measurement.</param>
/// <param name="pacf">The <b>Phase Angle Correction Factor (PACF)</b> for the measurement in degrees.</param>
/// <param name="calibrationSetting">The <see cref="LinearStateEstimator.Calibration.CalibrationSetting"/> type for the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>. Determines how the measurement is included in the calibration algorithm.</param>
public PhasorMeasurement(string magnitudeKey, string angleKey, PhasorType type, VoltageLevel baseKV, double variance, double rcf, double pacf, CalibrationSetting calibrationSetting)
: base(magnitudeKey, angleKey, type, baseKV)
{
m_measurementVariance = variance;
m_rcf = rcf;
m_pacf = pacf;
m_calibrationSetting = calibrationSetting;
}
/// <summary>
/// A constructor for the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/> which specifies the measurement keys, phasor type, base KV, measurement variance as well as RCF and PACF.
/// </summary>
/// <param name="magnitudeKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.Magnitude"/> of the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>.</param>
/// <param name="angleKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.AngleInDegrees"/> of the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>.</param>
/// <param name="type">Specifies whether the phasor measurement is a current phasor or a
/// voltage phasor or complex power with the <see cref="LinearStateEstimator.Measurements.PhasorType"/> enumeration, either <see cref="LinearStateEstimator.Measurements.PhasorType.VoltagePhasor"/>,
/// <see cref="LinearStateEstimator.Measurements.PhasorType.CurrentPhasor"/>, or <see cref="LinearStateEstimator.Measurements.PhasorType.ComplexPower"/>.</param>
/// <param name="baseKV">The <see cref="LinearStateEstimator.Modeling.VoltageLevel"/> of the phasor measurement.</param>
/// <param name="variance">The measurement variance in per unit.</param>
/// <param name="rcf">The <b>Ratio Correction Factor (RCF)</b> for the measurement.</param>
/// <param name="pacf">The <b>Phase Angle Correction Factor (PACF)</b> for the measurementin degrees</param>
public PhasorMeasurement(string magnitudeKey, string angleKey, PhasorType type, VoltageLevel baseKV, double variance, double rcf, double pacf)
: this(magnitudeKey, angleKey, type, baseKV, variance, rcf, pacf, CalibrationSetting.Inactive)
{
}
/// <summary>
/// A constructor for the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/> which only specifies the measurement keys, phasor type, base KV and measurement variance.
/// </summary>
/// <param name="magnitudeKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.Magnitude"/> of the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>.</param>
/// <param name="angleKey">The openPDC input measurement key for the <see cref="LinearStateEstimator.Measurements.PhasorBase.AngleInDegrees"/> of the <see cref="LinearStateEstimator.Measurements.PhasorMeasurement"/>.</param>
/// <param name="type">Specifies whether the phasor measurement is a current phasor or a voltage phasor or complex power with the <see cref="LinearStateEstimator.Measurements.PhasorType"/> enumeration, either <see cref="LinearStateEstimator.Measurements.PhasorType.VoltagePhasor"/>, <see cref="LinearStateEstimator.Measurements.PhasorType.CurrentPhasor"/>, or <see cref="LinearStateEstimator.Measurements.PhasorType.ComplexPower"/>.</param>
/// <param name="baseKV">The <see cref="LinearStateEstimator.Modeling.VoltageLevel"/> of the phasor measurement.</param>
/// <param name="variance">The measurement variance in per unit.</param>
public PhasorMeasurement(string magnitudeKey, string angleKey, PhasorType type, VoltageLevel baseKV, double variance)
: this(magnitudeKey, angleKey, type, baseKV, variance, 1, 0)
{
}
/// <summary>
/// A constructor for the <see cref="SynchrophasorAnalytics.Measurements.PhasorMeasurement"/> which only specifies the measurement keys, phasor type, and base KV.
/// </summary>
/// <param name="magnitudeKey">The openPDC input measurement key for the <see cref="SynchrophasorAnalytics.Measurements.PhasorBase.Magnitude"/> of the <see cref="SynchrophasorAnalytics.Measurements.PhasorMeasurement"/>.</param>
/// <param name="angleKey">The openPDC input measurement key for the <see cref="SynchrophasorAnalytics.Measurements.PhasorBase.AngleInDegrees"/> of the <see cref="SynchrophasorAnalytics.Measurements.PhasorMeasurement"/>.</param>
/// <param name="type">Specifies whether the phasor measurement is a current phasor or a
/// voltage phasor or complex power with the <see cref="SynchrophasorAnalytics.Measurements.PhasorType"/> enumeration, either <see cref="SynchrophasorAnalytics.Measurements.PhasorType.VoltagePhasor"/>,
/// <see cref="PhasorType.CurrentPhasor"/>, or <see cref="SynchrophasorAnalytics.Measurements.PhasorType.ComplexPower"/>.</param>
/// <param name="baseKV">The <see cref="SynchrophasorAnalytics.Modeling.VoltageLevel"/> of the phasor measurement.</param>
public PhasorMeasurement(string magnitudeKey, string angleKey, PhasorType type, VoltageLevel baseKV)
: base(magnitudeKey, angleKey, type, baseKV)
{
}
public void transistorWrite(TransistorPort port, VoltageLevel level)
{
}
public DynamicTopologicalNode(ConnectivityNode firstConnectivityNode,VoltageLevel parent, DateTime time)
{
nodes.ConnectivityNodes.Add(firstConnectivityNode.Name, firstConnectivityNode);
name = parent.name + "d" + parent.DynamicTopoNodeCount.ToString();
parentStaticNode = parent;
timeIndex = time;
}
public void digitalWrite(ArduinoPort port, VoltageLevel level)
{
}
