double GetPowerTransformerRatio(PowerTransformer pt)
{
if (pt.TransformerWindings.Count != 2)
{
return(1);
}
TransformerWinding tw1 = Get(pt.TransformerWindings[0]) as TransformerWinding;
TransformerWinding tw2 = Get(pt.TransformerWindings[1]) as TransformerWinding;
BaseVoltage bv1 = Get(tw1.BaseVoltage) as BaseVoltage;
BaseVoltage bv2 = Get(tw2.BaseVoltage) as BaseVoltage;
Pair <double, double> u = MinMax(bv1.NominalVoltage, bv2.NominalVoltage);
RatioTapChanger rt = null;
if (tw1.RatioTapChanger.Count == 1)
{
rt = Get(tw1.RatioTapChanger[0]) as RatioTapChanger;
}
else if (tw2.RatioTapChanger.Count == 1)
{
rt = Get(tw2.RatioTapChanger[0]) as RatioTapChanger;
}
return(rt != null ? (u.Second + (GetRatioTapChangerStep(rt) - rt.NominalStep) * rt.VoltageStep) / u.First : u.Second / u.First);
}
bool IsTransformerWindingPrimary(TransformerWinding tw)
{
PowerTransformer pt = Get(tw.PowerTransformer) as PowerTransformer;
TransformerWinding other = null;
for (int i = 0; i < pt.TransformerWindings.Count; ++i)
{
long otherGID = pt.TransformerWindings[i];
if (otherGID == tw.GID)
{
continue;
}
TransformerWinding tw2 = Get(otherGID) as TransformerWinding;
if (tw2 != null)
{
other = tw2;
break;
}
}
BaseVoltage bv1 = Get(tw.BaseVoltage) as BaseVoltage;
BaseVoltage bv2 = Get(other.BaseVoltage) as BaseVoltage;
return(bv1.NominalVoltage > bv2.NominalVoltage);
}
void PopulateTransformerWindingProperties(TransformerWinding x, ResourceDescription rd)
{
PopulateConductingEquipmentProperties(x, rd);
if (x.PowerTransformerHasValue)
{
rd.AddProperty(new ReferenceProperty(ModelCode.TRANSFORMERWINDING_POWERTRANSFORMER, GetGID(x.PowerTransformer.ID)));
}
}
public static string WindingToString(TransformerWinding winding, string num)
{
StringBuilder sb = new StringBuilder();
sb.AppendLine($"\t\tTW {num}");
sb.AppendLine($"\t\t\tNAME: {winding.Name}");
sb.AppendLine($"\t\t\tMRDI: {winding.MRID}");
sb.AppendLine($"\t\t\tDESCRIPTION: {winding.Description}");
sb.AppendLine($"\t\t\tNOMINAL VOLTAGE: {winding.BaseVoltage.NominalVoltage}");
return(sb.ToString());
}
private ResourceDescription CreateTransformerWindingResourceDescription(TransformerWinding cimTransformerWinding)
{
ResourceDescription rd = null;
if (cimTransformerWinding != null)
{
long gid = ModelCodeHelper.CreateGlobalId(0, (short)DMSType.TRANSFORMERWINDING, importHelper.CheckOutIndexForDMSType(DMSType.TRANSFORMERWINDING));
rd = new ResourceDescription(gid);
importHelper.DefineIDMapping(cimTransformerWinding.ID, gid);
SCADAConverter.PopulateTransformerWindingProperties(cimTransformerWinding, rd, importHelper, report);
}
return(rd);
}
Complex CalculateCurrentForTransformerWinding(Node node, IEnumerable <Complex> childCurrents, Dictionary <long, LoadFlowResult> lf)
{
TransformerWinding tw = node.IO as TransformerWinding;
if (tw == null)
{
return(Complex.NaN());
}
if (!IsTransformerWindingPrimary(tw))
{
return(CalculateCurrentDefault(node, childCurrents, lf));
}
return(CalculateCurrentDefault(node, childCurrents, lf).Scale(GetPowerTransformerRatio(Get(tw.PowerTransformer) as PowerTransformer)));
}
/// <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.LOCATION:
io = new Location(globalId);
break;
case DMSType.POWERTR:
io = new PowerTransformer(globalId);
break;
case DMSType.POWERTRWINDING:
io = new TransformerWinding(globalId);
break;
case DMSType.WINDINGTEST:
io = new WindingTest(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);
CommonTrace.WriteTrace(CommonTrace.TraceError, message);
throw new Exception(message);
}
// Add entity to map
this.AddEntity(io);
return(io);
}
private void ImportTransformerWinding()
{
SortedDictionary <string, object> cimTransformerWindings = concreteModel.GetAllObjectsOfType("FTN.TransformerWinding");
if (cimTransformerWindings != null)
{
foreach (KeyValuePair <string, object> item in cimTransformerWindings)
{
TransformerWinding cimTransformerWinding = item.Value as TransformerWinding;
ResourceDescription rd = CreateTransformerWindingResourceDescription(cimTransformerWinding);
if (rd != null)
{
delta.AddDeltaOperation(DeltaOpType.Insert, rd, true);
report.Report.Append("TransformerWinding ID = ").Append(cimTransformerWinding.ID).Append(" SUCCESSFULLY converted to GID = ").AppendLine(rd.Id.ToString());
}
else
{
report.Report.Append("TransformerWinding ID = ").Append(cimTransformerWinding.ID).AppendLine(" FAILED to be converted");
}
}
report.Report.AppendLine();
}
}
Node BuildSubGraph(EnergySource source)
{
Dictionary <long, IdentifiedObject> terminals = containers[DMSType.Terminal];
Dictionary <long, IdentifiedObject> cNodes = containers[DMSType.ConnectivityNode];
Node sourceNode = new Node(source, 0, 0);
Queue <Tuple <Node, Node> > queue = new Queue <Tuple <Node, Node> >();
queue.Enqueue(new Tuple <Node, Node>(null, sourceNode));
Dictionary <long, Node> visited = new Dictionary <long, Node>();
visited.Add(source.GID, sourceNode);
while (queue.Count > 0)
{
Tuple <Node, Node> tuple = queue.Dequeue();
Node node = tuple.Item2;
node.AdjacentOffset = adjacency.Count;
adjacency.Add(tuple.Item1);
++node.AdjacentCount;
DMSType type = ModelCodeHelper.GetTypeFromGID(node.IO.GID);
if (type == DMSType.ConnectivityNode)
{
foreach (long tGID in ((ConnectivityNode)node.IO).Terminals)
{
IdentifiedObject terminal;
if (!terminals.TryGetValue(tGID, out terminal))
{
continue;
}
long ceGID = ((Terminal)terminal).ConductingEquipment;
if (ceGID == 0)
{
continue;
}
Node adjacentNode;
if (!visited.TryGetValue(ceGID, out adjacentNode))
{
DMSType ceType = ModelCodeHelper.GetTypeFromGID(ceGID);
IdentifiedObject ce;
if (!containers[ceType].TryGetValue(ceGID, out ce))
{
continue;
}
adjacentNode = new Node(ce, 0, 0);
queue.Enqueue(new Tuple <Node, Node>(node, adjacentNode));
visited.Add(ceGID, adjacentNode);
}
adjacency.Add(adjacentNode);
++node.AdjacentCount;
}
}
else if (type == DMSType.TransformerWinding)
{
TransformerWinding tw = node.IO as TransformerWinding;
PowerTransformer pt = Get(tw.PowerTransformer) as PowerTransformer;
if (pt == null)
{
continue;
}
foreach (long twGID in pt.TransformerWindings)
{
if (twGID == tw.GID)
{
continue;
}
Node adjacentNode;
if (!visited.TryGetValue(twGID, out adjacentNode))
{
TransformerWinding twAdjacent = Get(twGID) as TransformerWinding;
if (twAdjacent == null)
{
continue;
}
adjacentNode = new Node(twAdjacent, 0, 0);
queue.Enqueue(new Tuple <Node, Node>(node, adjacentNode));
visited.Add(twGID, adjacentNode);
}
adjacency.Add(adjacentNode);
++node.AdjacentCount;
break;
}
foreach (long tGID in tw.Terminals)
{
IdentifiedObject terminal;
if (!terminals.TryGetValue(tGID, out terminal))
{
continue;
}
long cNodeGID = ((Terminal)terminal).ConnectivityNode;
if (cNodeGID == 0)
{
continue;
}
Node adjacentNode;
if (!visited.TryGetValue(cNodeGID, out adjacentNode))
{
IdentifiedObject cNode;
if (!cNodes.TryGetValue(cNodeGID, out cNode))
{
continue;
}
adjacentNode = new Node(cNode, 0, 0);
queue.Enqueue(new Tuple <Node, Node>(node, adjacentNode));
visited.Add(cNodeGID, adjacentNode);
}
adjacency.Add(adjacentNode);
++node.AdjacentCount;
}
}
else
{
foreach (long tGID in ((ConductingEquipment)node.IO).Terminals)
{
IdentifiedObject terminal;
if (!terminals.TryGetValue(tGID, out terminal))
{
continue;
}
long cNodeGID = ((Terminal)terminal).ConnectivityNode;
if (cNodeGID == 0)
{
continue;
}
Node adjacentNode;
if (!visited.TryGetValue(cNodeGID, out adjacentNode))
{
IdentifiedObject cNode;
if (!cNodes.TryGetValue(cNodeGID, out cNode))
{
continue;
}
adjacentNode = new Node(cNode, 0, 0);
queue.Enqueue(new Tuple <Node, Node>(node, adjacentNode));
visited.Add(cNodeGID, adjacentNode);
}
adjacency.Add(adjacentNode);
++node.AdjacentCount;
}
}
}
return(sourceNode);
}
double CalculateVoltageForTransformerWinding(Node node, Dictionary <long, LoadFlowResult> lf, Dictionary <long, Complex> currents)
{
TransformerWinding tw = node.IO as TransformerWinding;
if (IsTransformerWindingPrimary(tw))
{
return(0);
}
if (!currents.ContainsKey(node.IO.GID))
{
return(double.MaxValue);
}
PowerTransformer pw = Get(tw.PowerTransformer) as PowerTransformer;
TransformerWinding tw1 = null;
for (int i = 0; i < pw.TransformerWindings.Count; ++i)
{
long twGid = pw.TransformerWindings[i];
if (twGid != tw.GID)
{
tw1 = Get(twGid) as TransformerWinding;
break;
}
}
long node1Gid = (Get(tw1.Terminals[0]) as Terminal).ConnectivityNode;
long node2Gid = (Get(tw.Terminals[0]) as Terminal).ConnectivityNode;
LoadFlowResult lfr1;
if (!lf.TryGetValue(node1Gid, out lfr1))
{
return(0);
}
Complex u1 = new Complex(lfr1.Get(LoadFlowResultType.UR), lfr1.Get(LoadFlowResultType.UI));
Complex u2 = u1.Scale(1.0 / GetPowerTransformerRatio(pw));
LoadFlowResult lfr2;
double relDelta = double.MaxValue;
if (!lf.TryGetValue(node2Gid, out lfr2))
{
lfr2 = new LoadFlowResult();
lf[node2Gid] = 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);
}
/// <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.TERMINAL:
io = new Terminal(globalId);
break;
case DMSType.ANALOG:
io = new Analog(globalId);
break;
case DMSType.ASYNCHRONOUSMACHINE:
io = new AsynchronousMachine(globalId);
break;
case DMSType.BREAKER:
io = new Breaker(globalId);
break;
case DMSType.CONNECTIVITYNODE:
io = new ConnectivityNode(globalId);
break;
case DMSType.DISCONNECTOR:
io = new Disconnector(globalId);
break;
case DMSType.DISCRETE:
io = new Discrete(globalId);
break;
case DMSType.POWERTRANSFORMER:
io = new PowerTransformer(globalId);
break;
case DMSType.RATIOTAPCHANGER:
io = new RatioTapChanger(globalId);
break;
case DMSType.SUBSTATION:
io = new Substation(globalId);
break;
case DMSType.TRANSFORMERWINDING:
io = new TransformerWinding(globalId);
break;
default:
string message = String.Format("Failed to create entity because specified type ({0}) is not supported.", type);
CommonTrace.WriteTrace(CommonTrace.TraceError, message);
throw new Exception(message);
}
// Add entity to map
this.AddEntity(io);
return(io);
}
/// <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);
}
public NetworkModel(NetworkModelDownload download)
{
Dictionary <long, IdentifiedObject> terminalContainer = download.Containers[DMSType.Terminal];
Dictionary <long, IdentifiedObject> conNodeContainer = download.Containers[DMSType.ConnectivityNode];
List <Node> trees = new List <Node>();
Dictionary <long, RecloserNode> reclosers = new Dictionary <long, RecloserNode>();
foreach (KeyValuePair <long, IdentifiedObject> source in download.Containers[DMSType.EnergySource])
{
if (source.Value == null)
{
continue;
}
Node root = new Node(null, source.Value);
Stack <Node> stack = new Stack <Node>();
stack.Push(root);
while (stack.Count > 0)
{
Node node = stack.Pop();
IdentifiedObject io = node.io;
DMSType type = ModelCodeHelper.GetTypeFromGID(io.GID);
switch (type)
{
case DMSType.ConnectivityNode:
{
foreach (long terminalGID in ((ConnectivityNode)io).Terminals)
{
long condEqGID = ((Terminal)terminalContainer[terminalGID]).ConductingEquipment;
if (condEqGID == node.parent.io.GID)
{
continue;
}
DMSType condEqType = ModelCodeHelper.GetTypeFromGID(condEqGID);
ConductingEquipment condEq = (ConductingEquipment)download.Containers[condEqType][condEqGID];
if (condEq is Recloser)
{
RecloserNode rn;
if (reclosers.TryGetValue(condEqGID, out rn))
{
if (rn.node2 == null)
{
rn.node2 = node;
}
}
else
{
reclosers.Add(condEqGID, new RecloserNode(condEq)
{
node1 = node
});
}
continue;
}
Node childNode = new Node(node, condEq);
node.children.Add(childNode);
stack.Push(childNode);
}
}
break;
case DMSType.TransformerWinding:
{
TransformerWinding tw = io as TransformerWinding;
if (tw == null)
{
break;
}
PowerTransformer pt = GetInternal(download.Containers, tw.PowerTransformer) as PowerTransformer;
if (pt == null)
{
break;
}
foreach (long twGID in pt.TransformerWindings)
{
if (twGID == tw.GID || (node.parent != null && twGID == node.parent.io.GID))
{
continue;
}
TransformerWinding twChild = GetInternal(download.Containers, twGID) as TransformerWinding;
if (twChild == null)
{
continue;
}
Node childNode = new Node(node, twChild);
node.children.Add(childNode);
stack.Push(childNode);
}
foreach (long terminalGID in tw.Terminals)
{
long conNodeGID = ((Terminal)terminalContainer[terminalGID]).ConnectivityNode;
if (node.parent != null && conNodeGID == node.parent.io.GID)
{
continue;
}
Node childNode = new Node(node, conNodeContainer[conNodeGID]);
node.children.Add(childNode);
stack.Push(childNode);
}
}
break;
default:
{
ConductingEquipment condEq = io as ConductingEquipment;
if (condEq == null)
{
break;
}
foreach (long terminalGID in condEq.Terminals)
{
long conNodeGID = ((Terminal)terminalContainer[terminalGID]).ConnectivityNode;
if (node.parent != null && conNodeGID == node.parent.io.GID)
{
continue;
}
Node childNode = new Node(node, conNodeContainer[conNodeGID]);
node.children.Add(childNode);
stack.Push(childNode);
}
}
break;
}
}
trees.Add(root);
}
this.trees = trees;
this.reclosers = reclosers;
this.containers = download.Containers;
}
