private double getLatitude(TreeNode <NodeData> node)
{
if (node.Data.Type == DMSType.ACLINESEGMENT)
{
//+
ACLineSegment acLineSegment = (ACLineSegment)node.Data.IdentifiedObject;
return(acLineSegment.Latitude);
}
else if (node.Data.Type == DMSType.BREAKER)
{
//+
Breaker breaker = (Breaker)node.Data.IdentifiedObject;
return(breaker.Latitude);
}
else if (node.Data.Type == DMSType.ENEGRYSOURCE)
{
//+
EnergySource source = (EnergySource)node.Data.IdentifiedObject;
return(source.Latitude);
}
else if (node.Data.Type == DMSType.ENERGYCONSUMER)
{
//+
EnergyConsumer consumer = (EnergyConsumer)node.Data.IdentifiedObject;
return(consumer.Latitude);
}
else if (node.Data.Type == DMSType.GENERATOR)
{
//+
Generator generator = (Generator)node.Data.IdentifiedObject;
return(generator.Latitude);
}
return(0);
}
double CalculateVoltageForACLineSegment(Node node, Dictionary <long, LoadFlowResult> lf, Dictionary <long, Complex> currents)
{
Complex current;
if (!currents.TryGetValue(node.IO.GID, out current))
{
return(double.MaxValue);
}
ACLineSegment segment = node.IO as ACLineSegment;
List <Node> nodes = new List <Node>(2);
for (int i = node.AdjacentOffset; i < node.AdjacentOffset + node.AdjacentCount; ++i)
{
Node n = adjacency[i];
if (!nodes.Contains(n) && ModelCodeHelper.GetTypeFromGID(n.IO.GID) == DMSType.ConnectivityNode)
{
nodes.Add(n);
}
}
if (nodes.Count != 2)
{
return(0);
}
LoadFlowResult lfr1;
if (!lf.TryGetValue(nodes[0].IO.GID, out lfr1))
{
return(0);
}
Complex u1 = new Complex(lfr1.Get(LoadFlowResultType.UR), lfr1.Get(LoadFlowResultType.UI));
Complex u2 = u1.Subtract(new Complex(segment.PerLengthPhaseResistance * segment.Length, segment.PerLengthPhaseReactance * segment.Length).Multiply(current));
LoadFlowResult lfr2;
double relDelta = double.MaxValue;
if (!lf.TryGetValue(nodes[1].IO.GID, out lfr2))
{
lfr2 = new LoadFlowResult();
lf[nodes[1].IO.GID] = lfr2;
}
else
{
relDelta = GetVoltageRelativeDifference(new Complex(lfr2.Get(LoadFlowResultType.UR), lfr2.Get(LoadFlowResultType.UI)), u2);
}
lfr2.Remove(LoadFlowResultType.UR);
lfr2.Remove(LoadFlowResultType.UI);
lfr2.Add(new LoadFlowResultItem(u2.X, LoadFlowResultType.UR));
lfr2.Add(new LoadFlowResultItem(u2.Y, LoadFlowResultType.UI));
return(relDelta);
}
public override void Izvrsi()
{
line = (ACLineSegment)line.Clone();
line.mRID = ID;
line.terminali.Add(terminal1);
line.terminali.Add(terminal2);
Singleton.Instance().AClines.Add(line);
}
private void Brisi(object sender, RoutedEventArgs e)
{
ACLineSegment acs = dataGrid.SelectedItem as ACLineSegment;
BrisiLiniju bl = new BrisiLiniju(acs.mRID);
Singleton.Instance().inv.DodajIzvrsi(bl);
serializer.SerializeObject <BindingList <ACLineSegment> >(Singleton.Instance().AClines, "../../doc/konekcije.xml");
Singleton.Instance().NotifyObservers();
}
Complex CalculateCurrentForACLineSegment(Node node, IEnumerable <Complex> childCurrents, Dictionary <long, LoadFlowResult> lf)
{
Complex result = CalculateCurrentDefault(node, childCurrents, lf);
LoadFlowResult lfr;
if (!lf.TryGetValue(node.IO.GID, out lfr))
{
lfr = new LoadFlowResult();
lf[node.IO.GID] = lfr;
}
lfr.Remove(LoadFlowResultType.IR);
lfr.Remove(LoadFlowResultType.II);
lfr.Add(new LoadFlowResultItem(result.X, LoadFlowResultType.IR));
lfr.Add(new LoadFlowResultItem(result.Y, LoadFlowResultType.II));
List <Node> nodes = new List <Node>(2);
for (int i = node.AdjacentOffset; i < node.AdjacentOffset + node.AdjacentCount; ++i)
{
Node n = adjacency[i];
if (!nodes.Contains(n) && ModelCodeHelper.GetTypeFromGID(n.IO.GID) == DMSType.ConnectivityNode)
{
nodes.Add(n);
}
}
if (nodes.Count != 2)
{
return(result);
}
LoadFlowResult lfr1;
LoadFlowResult lfr2;
if (!lf.TryGetValue(nodes[0].IO.GID, out lfr1) || !lf.TryGetValue(nodes[1].IO.GID, out lfr2))
{
return(result);
}
ACLineSegment segment = node.IO as ACLineSegment;
Complex u1 = new Complex(lfr1.Get(LoadFlowResultType.UR), lfr1.Get(LoadFlowResultType.UI));
Complex u2 = new Complex(lfr2.Get(LoadFlowResultType.UR), lfr2.Get(LoadFlowResultType.UI));
Complex s = u1.Subtract(u2).Multiply(new Complex(result.X, -result.Y));
lfr.Remove(LoadFlowResultType.SR);
lfr.Remove(LoadFlowResultType.SI);
lfr.Add(new LoadFlowResultItem(s.X, LoadFlowResultType.SR));
lfr.Add(new LoadFlowResultItem(s.Y, LoadFlowResultType.SI));
return(result);
}
private void KlonirajLiniju(object sender, RoutedEventArgs e)
{
if (dataGrid.SelectedItem != null)
{
ACLineSegment ac = dataGrid.SelectedItem as ACLineSegment;
CloneLine cl = new CloneLine(ac.mRID);
Singleton.Instance().inv.DodajIzvrsi(cl);
Singleton.Instance().NotifyObservers();
}
}
/// <summary>
/// Creates entity for specified global inside the container.
/// </summary>
/// <param name="globalId">Global id of the entity for insert</param>
/// <returns>Created entity (identified object).</returns>
public IdentifiedObject CreateEntity(long globalId)
{
short type = ModelCodeHelper.ExtractTypeFromGlobalId(globalId);
IdentifiedObject io = null;
switch ((DMSType)type)
{
case DMSType.BASEVOLTAGE:
io = new BaseVoltage(globalId);
break;
case DMSType.CONNECTIVITYNODE:
io = new ConnectivityNode(globalId);
break;
case DMSType.ENERGYCONSUMER:
io = new EnergyConsumer(globalId);
break;
case DMSType.ENERGYSOURCE:
io = new EnergySource(globalId);
break;
case DMSType.POWERTRANSFORMER:
io = new PowerTransformer(globalId);
break;
case DMSType.PTRANSFORMEREND:
io = new PowerTransformerEnd(globalId);
break;
case DMSType.SWITCH:
io = new Switch(globalId);
break;
case DMSType.ACLINESEGMENT:
io = new ACLineSegment(globalId);
break;
case DMSType.TERMINAL:
io = new Terminal(globalId);
break;
default:
string message = String.Format("Failed to create entity because specified type ({0}) is not supported.", type);
Logger.LogError(message);
throw new Exception(message);
}
// Add entity to map
this.AddEntity(io);
return(io);
}
private ResourceDescription CreateACLineSegmentResourceDecription(ACLineSegment cimACLineSegment)
{
ResourceDescription rd = null;
if (cimACLineSegment != null)
{
long gid = ModelCodeHelper.CreateGlobalId(0, (short)DMSType.ACLINESEGMENT, importHelper.CheckOutIndexForDMSType(DMSType.ACLINESEGMENT));
rd = new ResourceDescription(gid);
importHelper.DefineIDMapping(cimACLineSegment.ID, gid);
////populate ResourceDescription
LoadFlowConverter.PopulateACLineSegmentProperties(cimACLineSegment, rd, importHelper, report);
}
return(rd);
}
private ResourceDescription CreateACLineSegmentResourceDescription(ACLineSegment acline)
{
ResourceDescription rd = null;
if (acline != null)
{
long gid = ModelCodeHelper.CreateGlobalId(0, (short)DMSType.ACLINESEGMENT, importHelper.CheckOutIndexForDMSType(DMSType.ACLINESEGMENT));
rd = new ResourceDescription(gid);
importHelper.DefineIDMapping(acline.ID, gid);
////populate ResourceDescription
PowerTransformerConverter.PopulateACLineSegmentProperties(acline, rd, importHelper, report);
}
return(rd);
}
//ovu metodu treba jos doraditi kada se uvuce pravilan xml fajl sa vise kordinata za AcLine
private void DrowOnMapAcLineSegment(TreeNode <NodeData> acLine, string stringBuilderUniversal)
{
StringBuilder stringBuilder = new StringBuilder();
ACLineSegment acLineSegment = (ACLineSegment)acLine.Data.IdentifiedObject;
stringBuilder.Append(stringBuilderUniversal);
stringBuilder.AppendFormat("Name: {0}{1}", acLineSegment.Name, Environment.NewLine);
stringBuilder.AppendFormat("Description: {0}{1}", acLineSegment.Description, Environment.NewLine);
stringBuilder.AppendFormat("Type: {0}", acLineSegment.Type.ToString());
string toolTip = stringBuilder.ToString();
Location pinLocation = new Location(acLineSegment.Longitude, acLineSegment.Latitude);
MapPolygon polygon = new MapPolygon();
MapPolyline line = new MapPolyline();
line.ToolTip = toolTip;
if (acLine.Data.Energized == Enums.Energized.FromEnergySRC)
{
line.Stroke = new SolidColorBrush(Colors.Green);
}
else if (acLine.Data.Energized == Enums.Energized.FromIsland)
{
line.Stroke = new SolidColorBrush(Colors.Blue);
}
else
{
line.Stroke = new SolidColorBrush(Colors.Red);
}
line.Uid = acLineSegment.GlobalId.ToString();
line.StrokeThickness = 2;
line.Opacity = 0.9;
line.Cursor = Cursors.Hand;
line.Locations = new LocationCollection();
foreach (long item in acLineSegment.Points)
{
TreeNode <NodeData> data = acLine.Children.Where(X => X.Data.IdentifiedObject.GlobalId == item).First();
DERMSCommon.DataModel.Core.Point point1 = (DERMSCommon.DataModel.Core.Point)(data.Data.IdentifiedObject);
//polygon.Locations.Add(new Location(point1.Longitude, point1.Latitude));
line.Locations.Add(new Location(point1.Longitude, point1.Latitude));
}
_map.Children.Add(line);
}
void PopulateACLineSegmentProperties(ACLineSegment x, ResourceDescription rd)
{
PopulateConductorProperties(x, rd);
if (x.RatedCurrentHasValue)
{
rd.AddProperty(new FloatProperty(ModelCode.ACLINESEGMENT_RATEDCURRENT, x.RatedCurrent));
}
if (x.PerLengthPhaseResistanceHasValue)
{
rd.AddProperty(new FloatProperty(ModelCode.ACLINESEGMENT_PERLENGTHPHASERESISTANCE, x.PerLengthPhaseResistance));
}
if (x.PerLengthPhaseReactanceHasValue)
{
rd.AddProperty(new FloatProperty(ModelCode.ACLINESEGMENT_PERLENGTHPHASEREACTANCE, x.PerLengthPhaseReactance));
}
}
public DodajACLine(ConnectivityNode node1, ConnectivityNode node2, String ime, float duzina, float gch, float bch, float r, float x)
{
als = new ACLineSegment();
Random rand = new Random();
als.name = ime;//linija ime
als.length = duzina;
als.mRID = rand.Next(1000).ToString();
als.gch = gch;
als.bch = bch;
als.r = r;
als.x = x;
term1 = new Terminal()
{
name = "Terminal 1",
ConnectivityNode = node1,
ConductingEquipment = new ConductingEquipment(),
phases = PhaseCode.AB,
sequenceNumber = 1,
connected = false,
mRID = rand.Next(100).ToString(),
aliasName = "A_Terminal 1",
description = "opis"
};
term2 = new Terminal()
{
name = "Terminal 2",
ConnectivityNode = node2,
ConductingEquipment = new ConductingEquipment(),
phases = PhaseCode.ABCN,
sequenceNumber = 1,
connected = false,
mRID = rand.Next(100).ToString(),
aliasName = "A_Terminal 2",
description = "opis"
};
als.terminali.Add(term1);
als.terminali.Add(term2);
}
public static void PopulateACLineSegmentProperties(ACLineSegment cimACLineSegment, ResourceDescription rd)
{
if ((cimACLineSegment != null) && (rd != null))
{
IES21Converter.PopulateConductorProperties(cimACLineSegment, rd);
if (cimACLineSegment.B0chHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_B0CH, cimACLineSegment.B0ch));
}
if (cimACLineSegment.BchHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_BCH, cimACLineSegment.Bch));
}
if (cimACLineSegment.G0chHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_G0CH, cimACLineSegment.G0ch));
}
if (cimACLineSegment.GchHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_GCH, cimACLineSegment.Gch));
}
if (cimACLineSegment.R0HasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_R0, cimACLineSegment.R0));
}
if (cimACLineSegment.RHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_R, cimACLineSegment.R));
}
if (cimACLineSegment.X0HasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_X0, cimACLineSegment.X0));
}
if (cimACLineSegment.XHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEG_X, cimACLineSegment.X));
}
}
}
public static void PopulateACLineSegmentProperties(ACLineSegment acline, ResourceDescription rd, ImportHelper importHelper, TransformAndLoadReport report)
{
if ((acline != null) && (rd != null))
{
PowerTransformerConverter.PopulateConductorProperties(acline, rd, importHelper, report);
if (acline.B0chHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_B0CH, acline.B0ch));
}
if (acline.BchHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_BCH, acline.Bch));
}
if (acline.GchHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_GCH, acline.Gch));
}
if (acline.G0chHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_G0CH, acline.G0ch));
}
if (acline.XHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_X, acline.X));
}
if (acline.X0HasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_X0, acline.X0));
}
if (acline.RHasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_R, acline.R));
}
if (acline.R0HasValue)
{
rd.AddProperty(new Property(ModelCode.ACLINESEGMENT_R0, acline.R0));
}
}
}
private void ImportACLineSegments()
{
SortedDictionary <string, object> cimACLineSegments = concreteModel.GetAllObjectsOfType("FTN.ACLineSegment");
if (cimACLineSegments != null)
{
foreach (KeyValuePair <string, object> cimACLineSegmentPair in cimACLineSegments)
{
ACLineSegment cimACLineSegment = cimACLineSegmentPair.Value as ACLineSegment;
ResourceDescription rd = CreateACLineSegmentResourceDescription(cimACLineSegment);
if (rd != null)
{
delta.AddDeltaOperation(DeltaOpType.Insert, rd, true);
report.Report.Append("ACLineSegment ID = ").Append(cimACLineSegment.ID).Append(" SUCCESSFULLY converted to GID = ").AppendLine(rd.Id.ToString());
}
else
{
report.Report.Append("ACLineSegment ID = ").Append(cimACLineSegment.ID).AppendLine(" FAILED to be converted");
}
}
report.Report.AppendLine();
}
}
public BrisiLiniju(String id)
{
line = new ACLineSegment();
line.mRID = id;
}
public Dictionary <Type, Dictionary <string, IdentifiedObject> > CreateObjectModel(Dictionary <string, DataVertex> globalVertices, Dictionary <string, List <DataEdge> > globalEdges, Dictionary <string, CableConfiguration> globalCableConfiguration, Dictionary <string, SpotLoad> globalSpotLoads)
{
globalComponentDictionary = new Dictionary <Type, Dictionary <string, IdentifiedObject> >();
terminalPairsContainer = new List <TerminalPair>();
perLengthImpedanceContainer = new Dictionary <string, PerLengthImpedance>();
wireInfoContainer = new Dictionary <string, WireInfo>();
usagePointContainer = new Dictionary <string, SpotLoad>();
powerTransformerEnding = new Dictionary <string, DataVertexTransformer>();
PSRType local_psr_pt = new PSRType();
circuit = new Circuit();
string mrid = Guid.NewGuid().ToString();
PSRType psrTypeCircuit = new PSRType()
{
MRID = "Feeder", Name = "Feeder"
};
circuit.PSRType = psrTypeCircuit;
circuit.ID = mrid;
circuit.MRID = mrid;
circuit.Name = "Feeder_36";
addComponentToGlobalDictionary(circuit, circuit.GetType());
addComponentToGlobalDictionary(psrTypeCircuit, psrTypeCircuit.GetType());
Dictionary <string, ConnectivityNode> connectivityNodeContainer = new Dictionary <string, ConnectivityNode>();
foreach (DataVertex dataVertex in globalVertices.Values)
{
if (dataVertex.typeOfVertex == DataVertex.TypeOfVertex.TRANSFORMER_VERTEX)
{
PowerTransformer powerTransformer = new PowerTransformer();
DataVertexTransformer dvt = (DataVertexTransformer)dataVertex;
string power_transformer_mrid = Guid.NewGuid().ToString();
powerTransformer.ID = power_transformer_mrid;
powerTransformer.MRID = power_transformer_mrid;
powerTransformer.Name = "2 winding power transformer";
local_psr_pt = new PSRType()
{
Name = "Consumer Transformer", MRID = "Consumer Transformer"
};
powerTransformer.PSRType = local_psr_pt;
powerTransformer.EquipmentContainer = circuit;
addComponentToGlobalDictionary(local_psr_pt, local_psr_pt.GetType());
ConnectivityNode w1T_cn = new ConnectivityNode();
string connectivity_node_mrid = Guid.NewGuid().ToString();
w1T_cn.ID = connectivity_node_mrid;
w1T_cn.MRID = connectivity_node_mrid;
w1T_cn.ConnectivityNodeContainer = circuit;
if ((dataVertex as DataVertexTransformer).Line_from == null)
{
continue;
}
;
w1T_cn.Name = (dataVertex as DataVertexTransformer).Line_from;
connectivityNodeContainer.Add((dataVertex as DataVertexTransformer).Line_from, w1T_cn);
addComponentToGlobalDictionary(w1T_cn, w1T_cn.GetType());
ConnectivityNode w2T_cn = new ConnectivityNode();
connectivity_node_mrid = Guid.NewGuid().ToString();
w2T_cn.ID = connectivity_node_mrid;
w2T_cn.MRID = connectivity_node_mrid;
w2T_cn.ConnectivityNodeContainer = circuit;
w2T_cn.Name = (dataVertex as DataVertexTransformer).Line_to;
connectivityNodeContainer.Add((dataVertex as DataVertexTransformer).Line_to, w2T_cn);
if ((dataVertex as DataVertexTransformer).Line_to == null)
{
continue;
}
;
addComponentToGlobalDictionary(w2T_cn, w2T_cn.GetType());
Terminal w1T = new Terminal();
w1T.MRID = power_transformer_mrid + ".W1.T";
w1T.ID = power_transformer_mrid + ".W1.T";
w1T.SequenceNumber = 1;
w1T.ConductingEquipment = powerTransformer;
w1T.ConnectivityNode = w1T_cn;
w1T.Phases = PhaseCode.s2N;
w1T.Name = "Transformer end terminal 1";
Terminal w2T = new Terminal();
w2T.MRID = power_transformer_mrid + ".W2.T";
w2T.ID = power_transformer_mrid + ".W2.T";
w2T.SequenceNumber = 2;
w2T.ConductingEquipment = powerTransformer;
w2T.ConnectivityNode = w2T_cn;
w2T.Phases = PhaseCode.s2N;
w2T.Name = "Transformer end terminal 2";
terminalPairsContainer.Add(new TerminalPair()
{
terminalA = w1T, terminalB = w2T
});
addComponentToGlobalDictionary(w1T, w1T.GetType());
addComponentToGlobalDictionary(w2T, w2T.GetType());
PowerTransformerEnd powerTransformerEnd1 = new PowerTransformerEnd();
powerTransformerEnd1.ID = power_transformer_mrid + ".W1";
powerTransformerEnd1.MRID = power_transformer_mrid + ".W1";
powerTransformerEnd1.Name = dvt.NameA;
powerTransformerEnd1.Terminal = w1T;
powerTransformerEnd1.Grounded = false;
powerTransformerEnd1.EndNumber = 1;
powerTransformerEnd1.PowerTransformer = powerTransformer;
powerTransformerEnd1.ConnectionKind = WindingConnection.D;
powerTransformerEnd1.PhaseAngleClock = 0;
powerTransformerEnd1.RatedS = (float)dvt._kVA_A;
powerTransformerEnd1.RatedU = (float)dvt._kV_LowA;
PowerTransformerEnd powerTransformerEnd2 = new PowerTransformerEnd();
powerTransformerEnd2.ID = power_transformer_mrid + ".W2";
powerTransformerEnd2.MRID = power_transformer_mrid + ".W2";
powerTransformerEnd2.Name = dvt.NameB;
powerTransformerEnd2.Terminal = w2T;
powerTransformerEnd2.Grounded = false;
powerTransformerEnd2.EndNumber = 1;
powerTransformerEnd2.PowerTransformer = powerTransformer;
powerTransformerEnd2.ConnectionKind = WindingConnection.D;
powerTransformerEnd2.PhaseAngleClock = 0;
powerTransformerEnd2.RatedS = (float)dvt._kVA_B;
powerTransformerEnd2.RatedU = (float)dvt._kV_LowB;
addComponentToGlobalDictionary(powerTransformer, powerTransformer.GetType());
addComponentToGlobalDictionary(powerTransformerEnd1, powerTransformerEnd1.GetType());
addComponentToGlobalDictionary(powerTransformerEnd2, powerTransformerEnd2.GetType());
}
if (dataVertex.typeOfVertex == DataVertex.TypeOfVertex.REGULATOR_VERTEX)
{
string sync_machine = Guid.NewGuid().ToString();
PSRType psr_sync_machine = new PSRType()
{
MRID = "Generator",
Name = "Generator"
};
SynchronousMachine sm = new SynchronousMachine()
{
Name = dataVertex.Text,
MRID = sync_machine,
ID = sync_machine,
EquipmentContainer = circuit
};
addComponentToGlobalDictionary(sm, sm.GetType());
addComponentToGlobalDictionary(psr_sync_machine, psr_sync_machine.GetType());
}
}
foreach (List <DataEdge> dataEdgeCollection in globalEdges.Values)
{
foreach (DataEdge dataEdge in dataEdgeCollection)
{
string acLineSegment_mrid = Guid.NewGuid().ToString();
ConnectivityNode T1_cn = new ConnectivityNode();
string connectivity_node_mrid = Guid.NewGuid().ToString();
T1_cn.ID = connectivity_node_mrid;
T1_cn.MRID = connectivity_node_mrid;
T1_cn.ConnectivityNodeContainer = circuit;
T1_cn.Name = (dataEdge.Source as DataVertex).Element_id;
if (connectivityNodeContainer.ContainsKey((dataEdge.Source as DataVertex).Element_id) == false)
{
connectivityNodeContainer.Add(dataEdge.Source.Element_id, T1_cn);
addComponentToGlobalDictionary(T1_cn, T1_cn.GetType());
}
ConnectivityNode T2_cn = new ConnectivityNode();
connectivity_node_mrid = Guid.NewGuid().ToString();
T2_cn.ID = connectivity_node_mrid;
T2_cn.MRID = connectivity_node_mrid;
T2_cn.ConnectivityNodeContainer = circuit;
T2_cn.Name = (dataEdge.Target as DataVertex).Element_id;
if (connectivityNodeContainer.ContainsKey((dataEdge.Target as DataVertex).Element_id) == false)
{
connectivityNodeContainer.Add(dataEdge.Target.Element_id, T2_cn);
addComponentToGlobalDictionary(T2_cn, T2_cn.GetType());
}
Terminal T1 = new Terminal();
//string terminal_mrid = Guid.NewGuid().ToString();
T1.ID = acLineSegment_mrid + ".T1";
T1.MRID = acLineSegment_mrid + ".T1";
T1.Name = dataEdge.Source.Element_id;
T1.Phases = PhaseCode.ABC;
ACDCTerminal acdc_terminal = new ACDCTerminal()
{
SequenceNumber = 1
};
T1.SequenceNumber = acdc_terminal.SequenceNumber;
T1.ConnectivityNode = T1_cn;
Terminal T2 = new Terminal();
T2.ID = acLineSegment_mrid + ".T2";
T2.MRID = acLineSegment_mrid + ".T2";
T2.Name = dataEdge.Target.Element_id;
T2.Phases = PhaseCode.ABC;
ACDCTerminal acdc_terminal2 = new ACDCTerminal()
{
SequenceNumber = 2
};
T2.SequenceNumber = acdc_terminal2.SequenceNumber;
T2.ConnectivityNode = T2_cn;
string perLengthImpedance_mrid = Guid.NewGuid().ToString();
PerLengthImpedance pli = createPerLengthImpedanceObject(dataEdge.Configuration, perLengthImpedance_mrid);
AssetInfo wi = createWireInfoObject(dataEdge.Configuration, perLengthImpedance_mrid);
PSRType acPSRType = new PSRType()
{
MRID = "Section",
Name = "Section"
};
if (!globalComponentDictionary[acPSRType.GetType()].ContainsKey(acPSRType.Name))
{
addComponentToGlobalDictionary(acPSRType, acPSRType.GetType());
}
ACLineSegment acLineSegment = new ACLineSegment()
{
ID = acLineSegment_mrid,
MRID = acLineSegment_mrid,
Name = T1.Name.Split(' ').Last() + "-" + T2.Name.Split(' ').Last(),
PSRType = acPSRType,
EquipmentContainer = circuit,
Length = (float)feetsToMeters(dataEdge.Length),
PerLengthImpedance = pli,
AssetDatasheet = wi
};
addComponentToGlobalDictionary(acLineSegment, acLineSegment.GetType());
TerminalPair terminalPair = new TerminalPair()
{
terminalA = T1,
terminalB = T2
};
terminalPairsContainer.Add(terminalPair);
addComponentToGlobalDictionary(T1, T1.GetType());
addComponentToGlobalDictionary(T2, T2.GetType());
}
}
UsagePoint usagePoint = new UsagePoint();
foreach (DataVertex dv in globalVertices.Values)
{
if (dv.typeOfVertex == DataVertex.TypeOfVertex.SPOT_LOAD_VERTEX)
{
SpotLoad sl = (SpotLoad)dv;
usagePoint = CreateSpotLoad(sl);
addComponentToGlobalDictionary(usagePoint, usagePoint.GetType());
}
}
return(globalComponentDictionary);
}
private void addComponentToGlobalDictionary(IdentifiedObject component, Type type)
{
if (!globalComponentDictionary.ContainsKey(type))
{
globalComponentDictionary.Add(type, new Dictionary <string, IdentifiedObject>());
}
if (type.Equals(typeof(ACLineSegment)))
{
ACLineSegment acl = (ACLineSegment)component;
globalComponentDictionary[type].Add(acl.MRID, acl);
}
else if (type.Equals(typeof(Terminal)))
{
Terminal tp = (Terminal)component;
globalComponentDictionary[tp.GetType()].Add(tp.MRID, tp);
}
else if (type.Equals(typeof(Circuit)))
{
Circuit cr = (Circuit)component;
globalComponentDictionary[cr.GetType()].Add(cr.MRID, cr);
}
else if (type.Equals(typeof(WireInfo)))
{
WireInfo wi = (WireInfo)component;
globalComponentDictionary[wi.GetType()].Add(wi.MRID, wi);
}
else if (type.Equals(typeof(PerLengthSequenceImpedance)))
{
PerLengthSequenceImpedance pli = (PerLengthSequenceImpedance)component;
globalComponentDictionary[pli.GetType()].Add(pli.MRID, pli);
}
else if (type.Equals(typeof(ConnectivityNode)))
{
ConnectivityNode cn = (ConnectivityNode)component;
globalComponentDictionary[cn.GetType()].Add(cn.MRID, cn);
}
else if (type.Equals(typeof(PowerTransformer)))
{
PowerTransformer pt = (PowerTransformer)component;
globalComponentDictionary[pt.GetType()].Add(pt.MRID, pt);
}
else if (type.Equals(typeof(PowerTransformerEnd)))
{
PowerTransformerEnd pt = (PowerTransformerEnd)component;
globalComponentDictionary[pt.GetType()].Add(pt.MRID, pt);
}
else if (type.Equals(typeof(UsagePoint)))
{
UsagePoint us = (UsagePoint)component;
globalComponentDictionary[us.GetType()].Add(us.MRID, us);
}
else if (type.Equals(typeof(PSRType)))
{
PSRType psr = (PSRType)component;
globalComponentDictionary[psr.GetType()].Add(psr.Name, psr);
}
else if (type.Equals(typeof(SynchronousMachine)))
{
SynchronousMachine sm = (SynchronousMachine)component;
globalComponentDictionary[sm.GetType()].Add(sm.Name, sm);
}
}
public CloneLine(string id)
{
foreach (ACLineSegment ac in Singleton.Instance().AClines)
{
if (ac.mRID.Equals(id))
{
line = ac;
break;
}
}
ID = Guid.NewGuid().ToString().Substring(0, 8);
foreach (ACLineSegment l in Singleton.Instance().AClines)
{
if (id.Equals(l.mRID))
{
foreach (Terminal t in l.terminali)
{
foreach (CIM.IEC61970.Base.Core.Substation s in Singleton.Instance().Substations)
{
foreach (ConnectivityNode cn in s.connectivityNodes)
{
if (t.ConnectivityNode.mRID.Equals(cn.mRID))
{
if (terminal1 == null)
{
terminal1 = new Terminal()
{
aliasName = "Terminal",
ConductingEquipment = new ConductingEquipment(),
connected = false,
ConnectivityNode = cn,
description = "something",
mRID = Guid.NewGuid().ToString().Substring(0, 8),
name = "Terminal",
phases = PhaseCode.A,
sequenceNumber = 1
};
}
else
{
terminal2 = new Terminal()
{
aliasName = "Terminal",
ConductingEquipment = new ConductingEquipment(),
connected = false,
ConnectivityNode = cn,
description = "something",
mRID = Guid.NewGuid().ToString().Substring(0, 8),
name = "Terminal",
phases = PhaseCode.A,
sequenceNumber = 1
};
}
}
}
}
}
}
}
}
/// <summary>
/// Creates entity for specified global inside the container.
/// </summary>
/// <param name="globalId">Global id of the entity for insert</param>
/// <returns>Created entity (identified object).</returns>
public IdentifiedObject CreateEntity(long globalId)
{
short type = ModelCodeHelper.ExtractTypeFromGlobalId(globalId);
IdentifiedObject io = null;
switch ((DMSType)type)
{
case DMSType.BASEVOLTAGE:
{
io = new BaseVoltage(globalId);
break;
}
case DMSType.TERMINAL:
{
io = new Terminal(globalId);
break;
}
case DMSType.CONNECTIVITYNODE:
{
io = new ConnectivityNode(globalId);
break;
}
case DMSType.POWERTRANSFORMER:
{
io = new PowerTransformer(globalId);
break;
}
case DMSType.ENERGYSOURCE:
{
io = new EnergySource(globalId);
break;
}
case DMSType.ENERGYCONSUMER:
{
io = new EnergyConsumer(globalId);
break;
}
case DMSType.TRANSFORMERWINDING:
{
io = new TransformerWinding(globalId);
break;
}
case DMSType.FUSE:
{
io = new Fuse(globalId);
break;
}
case DMSType.DISCONNECTOR:
{
io = new Disconnector(globalId);
break;
}
case DMSType.BREAKER:
{
io = new Breaker(globalId);
break;
}
case DMSType.LOADBREAKSWITCH:
{
io = new LoadBreakSwitch(globalId);
break;
}
case DMSType.ACLINESEGMENT:
{
io = new ACLineSegment(globalId);
break;
}
case DMSType.DISCRETE:
{
io = new Discrete(globalId);
break;
}
case DMSType.ANALOG:
{
io = new Analog(globalId);
break;
}
case DMSType.SYNCHRONOUSMACHINE:
{
io = new SynchronousMachine(globalId);
break;
}
default:
{
string message = String.Format("Failed to create entity because specified type ({0}) is not supported.", type);
Logger.LogError(message);
throw new Exception(message);
}
}
// Add entity to map
this.AddEntity(io);
return(io);
}
private string BuildToolTipOnClick(TreeNode <NodeData> selected)
{
StringBuilder stringBuilderFinal = new StringBuilder();
StringBuilder stringBuilder = new StringBuilder();
stringBuilder.AppendFormat("GID: {0}{1}", selected.Data.IdentifiedObject.GlobalId, Environment.NewLine);
stringBuilder.AppendFormat("Name: {0}{1}", selected.Data.IdentifiedObject.Name, Environment.NewLine);
stringBuilder.AppendFormat("Description: {0}{1}", selected.Data.IdentifiedObject.Description, Environment.NewLine);
stringBuilder.AppendFormat("{0}", Environment.NewLine);
stringBuilder.AppendFormat("{0}{1}", selected.Data.Type.ToString(), Environment.NewLine);
stringBuilder.AppendFormat("Energized: {0}{1}", selected.Data.Energized.ToString(), Environment.NewLine);
long substationGID = 0;
List <long> measurementGIDs = new List <long>();
switch (selected.Data.Type)
{
case FTN.Common.DMSType.ACLINESEGMENT:
ACLineSegment lineSegment = (ACLineSegment)selected.Data.IdentifiedObject;
stringBuilder.AppendFormat("Current Flow: {0}{1}", lineSegment.CurrentFlow, Environment.NewLine);
stringBuilder.AppendFormat("Type of AC Line Segment: {0}{1}", lineSegment.Type.ToString(), Environment.NewLine);
substationGID = lineSegment.Container;
measurementGIDs = lineSegment.Measurements;
break;
case FTN.Common.DMSType.BREAKER:
Breaker breaker = (Breaker)selected.Data.IdentifiedObject;
if (breaker.NormalOpen)
{
stringBuilder.AppendFormat("Normal open state: true (0) {1}", breaker.NormalOpen.ToString(), Environment.NewLine);
}
else
{
stringBuilder.AppendFormat("Normal open state: false (1) {1}", breaker.NormalOpen.ToString(), Environment.NewLine);
}
substationGID = breaker.Container;
measurementGIDs = breaker.Measurements;
break;
case FTN.Common.DMSType.ENEGRYSOURCE:
EnergySource energySource = (EnergySource)selected.Data.IdentifiedObject;
stringBuilder.AppendFormat("Type: {0}{1}", energySource.Type.ToString(), Environment.NewLine);
stringBuilder.AppendFormat("Nominal Voltage: {0} ", energySource.NominalVoltage);
stringBuilder.AppendFormat("Magnitude Voltage: {0} ", energySource.MagnitudeVoltage);
stringBuilder.AppendFormat("Active Power: {0}{1}", energySource.ActivePower, Environment.NewLine);
substationGID = energySource.Container;
measurementGIDs = energySource.Measurements;
break;
case FTN.Common.DMSType.ENERGYCONSUMER:
EnergyConsumer energyConsumer = (EnergyConsumer)selected.Data.IdentifiedObject;
stringBuilder.AppendFormat("P Fixed: {0} ", energyConsumer.PFixed);
stringBuilder.AppendFormat("Q Fixed: {0}{1}", energyConsumer.QFixed, Environment.NewLine);
substationGID = energyConsumer.Container;
measurementGIDs = energyConsumer.Measurements;
break;
case FTN.Common.DMSType.GENERATOR:
Generator generator = (Generator)selected.Data.IdentifiedObject;
stringBuilder.AppendFormat("Type: {0}{1}", generator.GeneratorType.ToString(), Environment.NewLine);
stringBuilder.AppendFormat("Consider P: {0}{1}", generator.ConsiderP, Environment.NewLine);
substationGID = generator.Container;
measurementGIDs = generator.Measurements;
break;
default:
break;
}
Substation substation = (Substation)_tree.Where(x => x.Data.IdentifiedObject.GlobalId == substationGID).FirstOrDefault().Data.IdentifiedObject;
SubGeographicalRegion subGeographicalRegion = (SubGeographicalRegion)_tree.Where(x => x.Data.IdentifiedObject.GlobalId == substation.SubGeoReg).FirstOrDefault().Data.IdentifiedObject;
GeographicalRegion geographicalRegion = (GeographicalRegion)_tree.Where(x => x.Data.IdentifiedObject.GlobalId == subGeographicalRegion.GeoReg).FirstOrDefault().Data.IdentifiedObject;
stringBuilderFinal.AppendFormat("Geographical Region: {0} ", geographicalRegion.Name);
stringBuilderFinal.AppendFormat("SubGeographical Region: {0} ", subGeographicalRegion.Name);
stringBuilderFinal.AppendFormat("Substation: {0}{1}", substation.Name, Environment.NewLine);
stringBuilderFinal.AppendFormat("{0}", Environment.NewLine);
stringBuilderFinal.Append(stringBuilder.ToString());
stringBuilderFinal.AppendFormat("{0}Measurements {1}", Environment.NewLine, Environment.NewLine);
int i = 0;
if (measurementGIDs.Count == 0)
{
stringBuilderFinal.AppendFormat("NaN");
}
foreach (long gid in measurementGIDs)
{
stringBuilderFinal.AppendFormat("[{0}]{1}", i++, Environment.NewLine);
TreeNode <NodeData> treeNode = _tree.Where(x => x.Data.IdentifiedObject.GlobalId == gid).FirstOrDefault();
if (treeNode.Data.Type == FTN.Common.DMSType.ANALOG)
{
Analog analog = (Analog)treeNode.Data.IdentifiedObject;
stringBuilderFinal.AppendFormat("Name: {0}{1}", analog.Name, Environment.NewLine);
stringBuilderFinal.AppendFormat("Measurement Type: {0}{1}", analog.MeasurementType, Environment.NewLine);
stringBuilderFinal.AppendFormat("Min Value: {0} ", analog.MinValue);
stringBuilderFinal.AppendFormat("Max Value: {0} ", analog.MaxValue);
stringBuilderFinal.AppendFormat("Normal Value: {0}{1}", analog.NormalValue, Environment.NewLine);
}
else
{
Discrete discrete = (Discrete)treeNode.Data.IdentifiedObject;
stringBuilderFinal.AppendFormat("Name: {0}{1}", discrete.Name, Environment.NewLine);
stringBuilderFinal.AppendFormat("Measurement Type: {0}{1}", discrete.MeasurementType, Environment.NewLine);
stringBuilderFinal.AppendFormat("Min Value: {0} ", discrete.MinValue);
stringBuilderFinal.AppendFormat("Max Value: {0} ", discrete.MaxValue);
if (discrete.NormalValue == 1)
{
stringBuilderFinal.AppendFormat("Normal Value: OPEN({0}){1}", discrete.NormalValue, Environment.NewLine);
}
else
{
stringBuilderFinal.AppendFormat("Normal Value: CLOSED({0}){1}", discrete.NormalValue, Environment.NewLine);
}
}
}
return(stringBuilderFinal.ToString());
}