public void AddPNMObject(PhysicalNetworkModel.Terminal terminal)
{
if (terminal.ConductingEquipment.@ref == "76c96252-b533-44b1-aac2-9efb184dc9e7")
{
}
string xml = "<cim:Terminal rdf:ID = '_" + terminal.mRID + "'>\r\n";
if (terminal.name == null)
{
xml += " <cim:IdentifiedObject.name>" + "T" + terminal.sequenceNumber + "</cim:IdentifiedObject.name>\r\n";
}
else
{
xml += " <cim:IdentifiedObject.name>" + terminal.name + "</cim:IdentifiedObject.name>\r\n";
}
xml += " <cim:ACDCTerminal.sequenceNumber>" + terminal.sequenceNumber + "</cim:ACDCTerminal.sequenceNumber>\r\n";
// ABCN on everything except cables, to avoid connectivity struggle issues inside substation in PF
var ci = _cimContext.GetObject <PhysicalNetworkModel.ConductingEquipment>(terminal.ConductingEquipment.@ref);
if (ci is PhysicalNetworkModel.ACLineSegment)
{
xml += " <cim:Terminal.phases rdf:resource='http://iec.ch/TC57/2013/CIM-schema-cim16#PhaseCode.ABC'/>\r\n";
}
else
{
xml += " <cim:Terminal.phases rdf:resource='http://iec.ch/TC57/2013/CIM-schema-cim16#PhaseCode.ABCN'/>\r\n";
}
/*
* if (!ForceThreePhases)
* xml += " <cim:Terminal.phases rdf:resource='http://iec.ch/TC57/2013/CIM-schema-cim16#PhaseCode." + terminal.phases.ToString() + "'/>\r\n";
* else
* xml += " <cim:Terminal.phases rdf:resource='http://iec.ch/TC57/2013/CIM-schema-cim16#PhaseCode.ABCN'/>\r\n";
*/
if (terminal.ConnectivityNode != null)
{
xml += " <cim:Terminal.ConnectivityNode rdf:resource = '#_" + terminal.ConnectivityNode.@ref + "'/>\r\n";
}
xml += " <cim:Terminal.ConductingEquipment rdf:resource='#_" + terminal.ConductingEquipment.@ref + "'/>\r\n";
xml += "</cim:Terminal>\r\n\r\n";
_writer.Write(xml);
}
public void TestLineMerging()
{
// Breaker in BRB
var swBRB = _context.GetObject <PhysicalNetworkModel.Switch>("366461ea-69b3-4e55-8459-228d9d33668e");
// Load Break Switch in 30904
var sw30904 = _context.GetObject <PhysicalNetworkModel.Switch>("15088672-f80c-453c-8bc6-30550ab00780");
var inputObjects = _context.GetAllObjects().Where(o => (o is PhysicalNetworkModel.ACLineSegment && o.name != null && o.name.Contains("BRB-30904")) || !(o is PhysicalNetworkModel.ACLineSegment));
var converter = new PNM2PowerFactoryCimConverter(inputObjects, new List <IPreProcessor> {
new ACLSMerger(new MappingContext())
});
var outputCimObjects = converter.GetCimObjects().ToList();
// Check that the two switches point to each other via the same ACLS
Assert.AreEqual(swBRB.GetNeighborConductingEquipments().OfType <PhysicalNetworkModel.ACLineSegment>().First(), sw30904.GetNeighborConductingEquipments().OfType <PhysicalNetworkModel.ACLineSegment>().First());
}
public static List <IdentifiedObject> Filter(CimContext context, FilterRule rule)
{
//List<IdentifiedObject> result = new List<IdentifiedObject>();
Dictionary <string, IdentifiedObject> result = new Dictionary <string, IdentifiedObject>();
HashSet <string> assetRefs = new HashSet <string>();
HashSet <string> assetInfoRefs = new HashSet <string>();
HashSet <string> assetModelRefs = new HashSet <string>();
HashSet <string> manufacturerRefs = new HashSet <string>();
HashSet <PhysicalNetworkModel.ConnectivityNode> cnAlreadyWritten = new HashSet <PhysicalNetworkModel.ConnectivityNode>();
FeederInfoContext feederContext = new FeederInfoContext(context);
feederContext.CreateFeederObjects();
foreach (var cimObject in context.GetAllObjects())
{
if ((cimObject is PhysicalNetworkModel.ConductingEquipment &&
((PhysicalNetworkModel.ConductingEquipment)cimObject).BaseVoltage >= rule.MinVoltageLevel) ||
!(cimObject is PhysicalNetworkModel.ConductingEquipment) ||
cimObject is PhysicalNetworkModel.PowerTransformer ||
cimObject is PhysicalNetworkModel.ExternalNetworkInjection ||
(cimObject is EnergyConsumer && ((PowerSystemResource)cimObject).PSRType == "Aftagepunkt_fællesmaaling")
)
{
if (
cimObject is PhysicalNetworkModel.ACLineSegment ||
cimObject is PhysicalNetworkModel.BusbarSection ||
cimObject is PhysicalNetworkModel.LoadBreakSwitch ||
cimObject is PhysicalNetworkModel.Breaker ||
cimObject is PhysicalNetworkModel.Disconnector ||
cimObject is PhysicalNetworkModel.Fuse ||
cimObject is PhysicalNetworkModel.Substation ||
cimObject is PhysicalNetworkModel.VoltageLevel ||
cimObject is PhysicalNetworkModel.Bay ||
cimObject is PhysicalNetworkModel.PowerTransformer ||
cimObject is PhysicalNetworkModel.PowerTransformerEnd ||
cimObject is PhysicalNetworkModel.ExternalNetworkInjection ||
cimObject is PhysicalNetworkModel.PetersenCoil ||
cimObject is PhysicalNetworkModel.CurrentTransformer ||
cimObject is PhysicalNetworkModel.PotentialTransformer ||
cimObject is PhysicalNetworkModel.EnergyConsumer ||
cimObject is PhysicalNetworkModel.RatioTapChanger ||
cimObject is PhysicalNetworkModel.LinearShuntCompensator/* ||
* cimObject is PhysicalNetworkModel.Asset ||
* cimObject is PhysicalNetworkModel.AssetInfo ||
* cimObject is PhysicalNetworkModel.ProductAssetModel ||
* cimObject is PhysicalNetworkModel.Manufacturer */
)
{
// Find substation
Substation partOfSt = null;
if (cimObject is Substation)
{
partOfSt = (Substation)cimObject;
}
if (cimObject.IsInsideSubstation(context))
{
partOfSt = cimObject.GetSubstation(true, context);
}
if (cimObject is ExternalNetworkInjection)
{
var eni = cimObject as ExternalNetworkInjection;
var neighbors = eni.GetNeighborConductingEquipments();
if (neighbors.Exists(c => c.IsInsideSubstation() && (rule.IncludeSpecificSubstations == null || rule.IncludeSpecificSubstations.Contains(c.GetSubstation().name))))
{
var ce = neighbors.First(c => c.IsInsideSubstation() && (rule.IncludeSpecificSubstations == null || rule.IncludeSpecificSubstations.Contains(c.GetSubstation().name)));
// put injection inside substation
eni.BaseVoltage = ce.BaseVoltage;
if (ce is BusbarSection)
{
eni.EquipmentContainer = new EquipmentEquipmentContainer()
{
@ref = context.GetObject <VoltageLevel>(ce.EquipmentContainer.@ref).mRID
};
}
else
{
eni.EquipmentContainer = new EquipmentEquipmentContainer()
{
@ref = context.GetObject <Bay>(ce.EquipmentContainer.@ref).VoltageLevel.@ref
};
}
}
}
// Tap changer
if (cimObject is RatioTapChanger)
{
var tap = cimObject as RatioTapChanger;
if (!(tap.TransformerEnd != null && tap.TransformerEnd.@ref != null && result.ContainsKey(tap.TransformerEnd.@ref)))
{
continue;
}
var ptEnd = context.GetObject <PowerTransformerEnd>(tap.TransformerEnd.@ref);
}
// AuxiliaryEquipment - transfer the one pointing to 60 kV breakers only
if (cimObject is AuxiliaryEquipment)
{
var aux = cimObject as AuxiliaryEquipment;
// If not connected to terminal, then skip
if (aux.Terminal == null)
{
continue;
}
var swTerminal = context.GetObject <Terminal>(aux.Terminal.@ref);
var ctObj = context.GetObject <IdentifiedObject>(swTerminal.ConductingEquipment.@ref);
if (ctObj is Switch)
{
Switch ctSw = ctObj as Switch;
// If not connedted to breaker, then skip
if (!(ctSw is Breaker))
{
continue;
}
// if not 60000 volt, then skip
if (ctSw.BaseVoltage != 60000)
{
continue;
}
// If bay name contains transformer, skup
var swBayName = ctSw.GetBay(true, context).name;
if (swBayName.ToLower().Contains("transformer"))
{
continue;
}
}
}
// Generel voltage check
if (!(cimObject is ConductingEquipment) ||
rule.MinVoltageLevel == 0 ||
((ConductingEquipment)cimObject).BaseVoltage == 0 ||
((ConductingEquipment)cimObject).BaseVoltage >= rule.MinVoltageLevel ||
(cimObject is EnergyConsumer && ((PowerSystemResource)cimObject).PSRType == "Aftagepunkt_fællesmaaling"))
{
// Add high voltage measured customer, even if lv modelled
if (cimObject is EnergyConsumer && ((EnergyConsumer)cimObject).PSRType == "Aftagepunkt_fællesmaaling" && ((EnergyConsumer)cimObject).BaseVoltage == 400)
{
// Don't add low voltage consumers if min voltage > 15000
if (rule.MinVoltageLevel > 15000)
{
continue;
}
var ec = cimObject as EnergyConsumer;
if (ec.name == "571313124501138119")
{
}
var ecAclsNeighbors = context.GetNeighborConductingEquipments(ec).Where(c => c is ACLineSegment).ToList();
if (ecAclsNeighbors.Count == 1)
{
var ecTerminal = context.GetConnections(ec)[0].Terminal;
var aclsTrafoConnections = context.GetNeighborConductingEquipments(ecAclsNeighbors[0]).Where(c => c is PowerTransformer).ToList();
if (aclsTrafoConnections.Count == 1)
{
var trafo = aclsTrafoConnections[0];
var trafoCn = context.GetConnections(trafo).Where(c => c.Terminal.sequenceNumber == "2").ToList();
if (trafoCn.Count == 1)
{
var trafoTerminal2 = trafoCn[0].Terminal;
var trafoTerminal2Cn = trafoCn[0].ConnectivityNode;
context.ConnectTerminalToAnotherConnectitityNode(ecTerminal, trafoTerminal2Cn);
var ptSt = trafo.GetSubstation(false, context);
if (ptSt != null)
{
var stVls = context.GetSubstationVoltageLevels(ptSt);
var vl = stVls.Find(o => o.BaseVoltage == ec.BaseVoltage);
if (vl != null)
{
ec.EquipmentContainer = new EquipmentEquipmentContainer()
{
@ref = vl.mRID
};
}
}
//ec.EquipmentContainer = new EquipmentEquipmentContainer() { @ref = trafo.EquipmentContainer.@ref };
}
}
}
else if (ecAclsNeighbors.Count > 1)
{
Logger.Log(LogLevel.Warning, "Cannot convert: " + ec.name + " multiply cables connected to customer. Must be modelled in PF.");
continue;
}
}
// Check if substation should be filtered away
if (cimObject is Substation st)
{
var priVoltage = st.GetPrimaryVoltageLevel(context);
if (priVoltage < rule.MinVoltageLevel)
{
continue;
}
}
// Check if power transformer should be filtered away
if (cimObject is PowerTransformer pt)
{
var ends = pt.GetEnds(context);
if (!ends.Exists(e => e.BaseVoltage >= rule.MinVoltageLevel))
{
continue;
}
}
// Check if power transformer should be filtered away
if (cimObject is PowerTransformerEnd ptEnd)
{
var ptOfPtEnd = context.GetObject <PowerTransformer>(ptEnd.PowerTransformer.@ref);
var ends = ptOfPtEnd.GetEnds(context);
if (!ends.Exists(e => e.BaseVoltage >= rule.MinVoltageLevel))
{
continue;
}
}
// Check if object part of substation should be filtered away due to voltage level
if (partOfSt != null)
{
var priVoltage = partOfSt.GetPrimaryVoltageLevel(context);
if (priVoltage < rule.MinVoltageLevel)
{
continue;
}
}
// If part of substation, check if we should filter away
if (partOfSt != null && (rule.IncludeSpecificSubstations == null ||
(rule.IncludeSpecificSubstations.Count > 1 &&
!rule.IncludeSpecificSubstations.Contains(partOfSt.name))))
{
// Don't filter anything away, if not specific substations specified
if (rule.IncludeSpecificSubstations != null)
{
bool skip = true;
// Check if substation is feeded from included primary substation
if (partOfSt.PSRType == "SecondarySubstation" &&
partOfSt.InternalFeeders != null &&
partOfSt.InternalFeeders.Count > 0 &&
partOfSt.InternalFeeders[0].ConnectionPoint != null &&
partOfSt.InternalFeeders[0].ConnectionPoint.Substation != null &&
partOfSt.InternalFeeders[0].ConnectionPoint.Substation.name != null)
{
var feededStName = partOfSt.InternalFeeders[0].ConnectionPoint.Substation.name;
if (rule.IncludeSpecificSubstations == null || rule.IncludeSpecificSubstations.Contains(feededStName))
{
skip = false;
}
}
if (skip)
{
continue;
}
}
}
// If acls, check if we should filter away
if (cimObject is ACLineSegment && (rule.IncludeSpecificLines == null || rule.IncludeSpecificLines.Count > 1))
{
bool continueToCheck = true;
var acls = cimObject as ACLineSegment;
// check if feeded from primary substation
var aclsFeeders = feederContext.GeConductingEquipmentFeeders(acls);
if (aclsFeeders != null && aclsFeeders.Count > 0)
{
if (rule.IncludeSpecificSubstations == null)
{
continueToCheck = false;
}
else
{
var feededStName = aclsFeeders[0].ConnectionPoint.Substation.name;
if (rule.IncludeSpecificSubstations == null || rule.IncludeSpecificSubstations.Contains(feededStName))
{
continueToCheck = false;
}
}
}
if (continueToCheck)
{
if (acls.PSRType == "InternalCable")
{
var aclsSt = acls.GetSubstation(false, context);
if (!(aclsSt != null && (rule.IncludeSpecificSubstations == null || rule.IncludeSpecificSubstations.Contains(aclsSt.name))))
{
continue;
}
}
else if (acls.name != null && acls.name.Contains("#"))
{
var nameSplit = acls.name.Split('#');
var nameWithoutDelStr = nameSplit[0].ToUpper();
if (rule.IncludeSpecificLines != null && !rule.IncludeSpecificLines.Contains(nameWithoutDelStr))
{
continue;
}
}
else
{
continue;
}
}
}
// If min voltagelevel > 400, don't include cable boxes and stuff inside cable boxes
if (rule.MinVoltageLevel > 400 &&
partOfSt != null
&&
(partOfSt.PSRType == "CableBox" || partOfSt.PSRType == "T-Junction"))
{
continue;
}
if (rule.MinVoltageLevel > 400 &&
partOfSt != null &&
partOfSt.PSRType == "Tower" &&
partOfSt.GetPrimaryVoltageLevel(context) < 1000)
{
continue;
}
// don't add voltage level, we do this later
if (cimObject is VoltageLevel)
{
continue;
}
result.Add(cimObject.mRID, cimObject);
// Add terminals if conducting equipment
if (cimObject is ConductingEquipment)
{
var ci = cimObject as PhysicalNetworkModel.ConductingEquipment;
foreach (var tc in context.GetConnections(ci))
{
string stName = "";
if (partOfSt != null && partOfSt.name != null)
{
stName = partOfSt.name + "_";
}
//tc.Terminal.phases = PhysicalNetworkModel.PhaseCode.ABCN;
tc.Terminal.name = stName + ci.name + "_T" + tc.Terminal.sequenceNumber;
result.Add(tc.Terminal.mRID, tc.Terminal);
// add connectivity node, if not already added
if (!cnAlreadyWritten.Contains(tc.ConnectivityNode))
{
result.Add(tc.ConnectivityNode.mRID, tc.ConnectivityNode);
}
cnAlreadyWritten.Add(tc.ConnectivityNode);
}
}
// Add location
if (cimObject is PowerSystemResource)
{
var psrObj = cimObject as PowerSystemResource;
if (psrObj.PSRType != "InternalCable")
{
if (psrObj.Location != null && psrObj.Location.@ref != null)
{
var loc = context.GetObject <PhysicalNetworkModel.LocationExt>(psrObj.Location.@ref);
result.Add(loc.mRID, loc);
}
}
}
// Add substation voltage levels
if (cimObject is Substation)
{
var psrObj = cimObject as Substation;
var voltageLevels = context.GetSubstationVoltageLevels(psrObj);
foreach (var vl in voltageLevels)
{
result.Add(vl.mRID, vl);
}
}
}
}
}
}
// Add protective equipment (relays)
foreach (var cimObject in context.GetAllObjects())
{
if (cimObject is ProtectionEquipmentExt)
{
var pe = cimObject as ProtectionEquipmentExt;
if (pe.ProtectedSwitches != null && pe.ProtectedSwitches.Length > 0 && result.ContainsKey(pe.ProtectedSwitches[0].@ref))
{
result.Add(cimObject.mRID, cimObject);
}
}
}
//////////////////////////////////////////////////////////////////////////////////7
// Add Asset stuff
//////////////////////////////////////////////////////////////////////////////////7
// Asset ref
foreach (var cimObject in result.Values)
{
if (cimObject is PowerSystemResource)
{
var psr = cimObject as PowerSystemResource;
if (psr.Assets != null && psr.Assets.@ref != null)
{
assetRefs.Add(psr.Assets.@ref);
}
}
}
// Asset
foreach (var cimObject in context.GetAllObjects())
{
if (cimObject is PhysicalNetworkModel.Asset)
{
var asset = cimObject as PhysicalNetworkModel.Asset;
if (!assetRefs.Contains(asset.mRID))
{
continue;
}
if (asset.AssetInfo != null && asset.AssetInfo.@ref != null && !assetInfoRefs.Contains(asset.AssetInfo.@ref))
{
assetInfoRefs.Add(asset.AssetInfo.@ref);
}
result.Add(asset.mRID, asset);
}
}
// Asset info
foreach (var cimObject in context.GetAllObjects())
{
if (cimObject is PhysicalNetworkModel.AssetInfo)
{
var assetInfo = cimObject as PhysicalNetworkModel.AssetInfo;
if (!assetInfoRefs.Contains(assetInfo.mRID))
{
continue;
}
if (!(cimObject is PhysicalNetworkModel.CurrentTransformerInfoExt ||
cimObject is PhysicalNetworkModel.CableInfoExt ||
cimObject is PhysicalNetworkModel.OverheadWireInfoExt))
{
}
if (assetInfo.AssetModel != null && assetInfo.AssetModel.@ref != null && !assetModelRefs.Contains(assetInfo.AssetModel.@ref))
{
assetModelRefs.Add(assetInfo.AssetModel.@ref);
}
result.Add(assetInfo.mRID, assetInfo);
}
}
// Asset model
foreach (var cimObject in context.GetAllObjects())
{
if (cimObject is PhysicalNetworkModel.ProductAssetModel)
{
var assetModel = cimObject as PhysicalNetworkModel.ProductAssetModel;
if (!assetModelRefs.Contains(assetModel.mRID))
{
continue;
}
if (assetModel.Manufacturer != null && assetModel.Manufacturer.@ref != null && !manufacturerRefs.Contains(assetModel.Manufacturer.@ref))
{
manufacturerRefs.Add(assetModel.Manufacturer.@ref);
}
result.Add(assetModel.mRID, assetModel);
}
}
// Manufacturer
foreach (var cimObject in context.GetAllObjects())
{
if (cimObject is PhysicalNetworkModel.Manufacturer)
{
var manu = cimObject as PhysicalNetworkModel.Manufacturer;
if (!manufacturerRefs.Contains(manu.mRID))
{
continue;
}
result.Add(manu.mRID, manu);
}
}
return(result.Values.ToList());
}
public IEnumerable <IdentifiedObject> Transform(CimContext context, IEnumerable <IdentifiedObject> input)
{
HashSet <PhysicalNetworkModel.IdentifiedObject> dropList = new HashSet <IdentifiedObject>();
List <PhysicalNetworkModel.IdentifiedObject> addList = new List <IdentifiedObject>();
foreach (var inputCimObject in input)
{
// Find connectivity nodes outside substations
if (inputCimObject is ConnectivityNode && !dropList.Contains(inputCimObject) && !inputCimObject.IsInsideSubstation(context))
{
ConnectivityNode cn = inputCimObject as ConnectivityNode;
// Handle that acls cn relationship might have changed
var cnNeighborsx = cn.GetNeighborConductingEquipments(context);
// If two acls and we are above low voltage, merge them
if (cnNeighborsx.Count(o => o.BaseVoltage > 5000) > 0)
{
// acls <-> acls
if (cnNeighborsx.Count(o => o is ACLineSegmentExt) == 2)
{
var acls = cnNeighborsx.Where(o => o is ACLineSegmentExt).ToList();
var acls1 = acls[0] as ACLineSegment;
var acls2 = acls[1] as ACLineSegment;
// NEVER MERGE
bool theSame = false;
// Compate bch
if (acls1.bch != null && acls2.bch != null && !CompareAclsValue(acls1.length.Value, acls1.bch.Value, acls2.length.Value, acls2.bch.Value))
{
theSame = false;
}
// Compate b0ch
if (acls1.b0ch != null && acls2.b0ch != null && !CompareAclsValue(acls1.length.Value, acls1.b0ch.Value, acls2.length.Value, acls2.b0ch.Value))
{
theSame = false;
}
// Compare gch
if (acls1.gch != null && acls2.gch != null && !CompareAclsValue(acls1.length.Value, acls1.gch.Value, acls2.length.Value, acls2.gch.Value))
{
theSame = false;
}
// Compare g0ch
if (acls1.g0ch != null && acls2.g0ch != null && !CompareAclsValue(acls1.length.Value, acls1.g0ch.Value, acls2.length.Value, acls2.g0ch.Value))
{
theSame = false;
}
// Compare r
if (acls1.r != null && acls2.r != null && !CompareAclsValue(acls1.length.Value, acls1.r.Value, acls2.length.Value, acls2.r.Value))
{
theSame = false;
}
// Compare r0
if (acls1.r0 != null && acls2.r0 != null && !CompareAclsValue(acls1.length.Value, acls1.r0.Value, acls2.length.Value, acls2.r0.Value))
{
theSame = false;
}
// Compare x
if (acls1.x != null && acls2.x != null && !CompareAclsValue(acls1.length.Value, acls1.x.Value, acls2.length.Value, acls2.x.Value))
{
theSame = false;
}
// Compare x0
if (acls1.x0 != null && acls2.x0 != null && !CompareAclsValue(acls1.length.Value, acls1.x0.Value, acls2.length.Value, acls2.x0.Value))
{
theSame = false;
}
// If the cables have the same eletrical charastica, merge them
if (theSame)
{
// ACLS 1 will survive, ACLS 2 and the CN will die
dropList.Add(cn);
dropList.Add(acls2);
// drop acls 2 terminals
foreach (var tc in context.GetConnections(acls2))
{
dropList.Add(tc.Terminal);
}
var loc1 = context.GetObject <LocationExt>(acls1.Location.@ref);
var loc2 = context.GetObject <LocationExt>(acls2.Location.@ref);
LineMerger lm = new LineMerger();
// Convert to NTS geometries
lm.Add(GetGeometry(loc1));
lm.Add(GetGeometry(loc2));
// Merge the two line strings
var mergedLineList = lm.GetMergedLineStrings();
if (mergedLineList.Count != 1)
{
throw new Exception("Cannot merge ACLS: " + acls1.mRID + " and " + acls2.mRID);
}
// Overwrite loc 1 coordinated with merged strings
loc1.coordinates = GetPoints((ILineString)mergedLineList[0]).ToArray();
// Sum length
acls1.length.Value += acls2.length.Value;
// Sum bch
if (acls1.bch != null && acls2.bch != null)
{
acls1.bch.Value += acls2.bch.Value;
}
// Sum b0ch
if (acls1.b0ch != null && acls2.b0ch != null)
{
acls1.b0ch.Value += acls2.b0ch.Value;
}
// Sum gch
if (acls1.gch != null && acls2.gch != null)
{
acls1.gch.Value += acls2.gch.Value;
}
// Sum g0ch
if (acls1.g0ch != null && acls2.g0ch != null)
{
acls1.g0ch.Value += acls2.g0ch.Value;
}
// Sum r
if (acls1.r != null && acls2.r != null)
{
acls1.r.Value += acls2.r.Value;
}
// Sum r0
if (acls1.r0 != null && acls2.r0 != null)
{
acls1.r0.Value += acls2.r0.Value;
}
// Sum x
if (acls1.x != null && acls2.x != null)
{
acls1.x.Value += acls2.x.Value;
}
// Sum x0
if (acls1.x0 != null && acls2.x0 != null)
{
acls1.x0.Value += acls2.x0.Value;
}
// Find cn in the other end of ACLS 2
var acls2otherEndCn = context.GetConnections(acls2).Find(o => o.ConnectivityNode != cn);
// Get terminal of ACLS 1 that point to ACLS 2
var acls1Terminal = acls1.GetTerminal(acls2, true, context);
// Disconnect ACLS 2 terminals
var acls2connections = context.GetConnections(acls2);
List <Terminal> terminalsToDisconnect = new List <Terminal>();
foreach (var acls2con in acls2connections)
{
terminalsToDisconnect.Add(acls2con.Terminal);
}
foreach (var t2d in terminalsToDisconnect)
{
context.DisconnectTerminalFromConnectitityNode(t2d);
}
// Change terminal of ACLS 1 to point to ACLS 2 other end CN
context.ConnectTerminalToAnotherConnectitityNode(acls1Terminal, acls2otherEndCn.ConnectivityNode);
}
else
{
// Cable are not the same, we need to add a susbstation to act as a junction
// Create muffe station
var st = new PhysicalNetworkModel.Substation();
st.mRID = Guid.NewGuid().ToString();
st.name = "Junction";
st.PSRType = "Junction";
addList.Add(st);
// Create voltage level
var vl = new PhysicalNetworkModel.VoltageLevel();
vl.mRID = Guid.NewGuid().ToString();
vl.BaseVoltage = acls1.BaseVoltage;
vl.name = "VL";
vl.EquipmentContainer1 = new VoltageLevelEquipmentContainer()
{
@ref = st.mRID
};
addList.Add(vl);
// Relate cn to voltage level
if (_mappingContext.ConnectivityNodeToVoltageLevel.ContainsKey(cn))
{
_mappingContext.ConnectivityNodeToVoltageLevel.Remove(cn);
}
_mappingContext.ConnectivityNodeToVoltageLevel.Add(cn, vl);
}
}
// <> 2 kabler
else
{
// Create muffe station
var st = new PhysicalNetworkModel.Substation();
st.mRID = Guid.NewGuid().ToString();
st.name = "MUFFE";
st.PSRType = "Junction";
addList.Add(st);
// Create voltage level
var vl = new PhysicalNetworkModel.VoltageLevel();
vl.mRID = Guid.NewGuid().ToString();
vl.BaseVoltage = cnNeighborsx[0].BaseVoltage;
vl.name = "VL";
vl.EquipmentContainer1 = new VoltageLevelEquipmentContainer()
{
@ref = st.mRID
};
addList.Add(vl);
// Relate cn to voltage level
if (_mappingContext.ConnectivityNodeToVoltageLevel.ContainsKey(cn))
{
_mappingContext.ConnectivityNodeToVoltageLevel.Remove(cn);
}
_mappingContext.ConnectivityNodeToVoltageLevel.Add(cn, vl);
}
}
}
}
// return objects, except the one dropped
foreach (var inputObj in input)
{
if (!dropList.Contains(inputObj))
{
yield return(inputObj);
}
}
// yield added objects,
foreach (var inputObj in addList)
{
yield return(inputObj);
}
}
public KonstantCimArchiveWriter(IEnumerable <PhysicalNetworkModel.IdentifiedObject> cimObjects, string outputFolder, string archiveName, Guid modelRdfId, bool highVoltageOnly = false)
{
System.IO.Directory.CreateDirectory(outputFolder);
System.IO.Directory.CreateDirectory(outputFolder + "\\files");
CimContext initialContext = CimContext.Create(cimObjects);
string eqTempFileName = outputFolder + @"\files\" + archiveName + "_eq.xml";
string glTempFileName = outputFolder + @"\files\" + archiveName + "_gl.xml";
string aiTempFileName = outputFolder + @"\files\" + archiveName + "_ai.xml";
string peTempFileName = outputFolder + @"\files\" + archiveName + "_pe.xml";
Dictionary <string, string> assetToEqRefs = new Dictionary <string, string>();
var filtered = FilterHelper.Filter(initialContext, new FilterRule()
{
MinVoltageLevel = highVoltageOnly ? 20000 : 10000,
});
var mappingContext = new MappingContext();
// Reinitialize cim context to filtered objects
CimContext _context = CimContext.Create(filtered);
var converter = new PNM2PowerFactoryCimConverter(filtered,
new List <IPreProcessor> {
new ACLSMerger(mappingContext),
new TransformerCableMerger(mappingContext),
new KonstantBigEnergyConsumerHandler(mappingContext),
new KonstantPowerFactoryDataPrepareAndFix(mappingContext)
});
// Reinitialize cim context to converted objects
var outputCimObjects = converter.GetCimObjects().ToList();
// We need to reinitialize context, because converter has modified objects
_context = CimContext.Create(outputCimObjects);
var eqWriter = new EQ_Writer(eqTempFileName, _context, mappingContext, modelRdfId, archiveName);
eqWriter.ForceThreePhases = true;
var glWriter = new GL_Writer(glTempFileName);
var aiWriter = new AI_Writer(aiTempFileName, _context, mappingContext);
var peWriter = new PE_Writer(peTempFileName, _context, mappingContext);
//////////////////////
// do the lines
var lineContext = new LineInfoContext(_context);
//lineContext.CreateLineInfo();
Dictionary <SimpleLine, string> lineToGuid = new Dictionary <SimpleLine, string>();
foreach (var line in lineContext.GetLines())
{
var lineGuid = GUIDHelper.CreateDerivedGuid(Guid.Parse(line.Children[0].Equipment.mRID), 678, true).ToString();
lineToGuid.Add(line, lineGuid);
//eqWriter.AddLine(lineGuid, line.Name);
}
//////////////////////
// do the general cim objects
foreach (var cimObject in _context.GetAllObjects())
{
if (cimObject.name != null && cimObject.name.Contains("571313124501006982"))
{
}
if (!(cimObject is Location) && !(cimObject is VoltageLevel && ((VoltageLevel)cimObject).BaseVoltage < 400))
{
if (cimObject is ACLineSegment)
{
var acls = cimObject as ACLineSegment;
var lines = lineContext.GetLines().Where(l => l.Children.Exists(c => c.Equipment == acls)).ToList();
if (lines.Count == 1)
{
var line = lines[0];
eqWriter.AddPNMObject(acls, lineToGuid[line]);
}
else
{
eqWriter.AddPNMObject((dynamic)cimObject);
}
}
else
{
// Don't add things that goes into asset and protectionn file
if (!(
(cimObject is PhysicalNetworkModel.Asset) ||
(cimObject is PhysicalNetworkModel.AssetInfo) ||
(cimObject is PhysicalNetworkModel.ProductAssetModel) ||
(cimObject is PhysicalNetworkModel.Manufacturer) ||
(cimObject is CurrentTransformerExt) ||
(cimObject is PotentialTransformer) ||
(cimObject is ProtectionEquipmentExt)
))
{
eqWriter.AddPNMObject((dynamic)cimObject);
}
}
}
if (cimObject is PowerSystemResource)
{
var psrObj = cimObject as PowerSystemResource;
if (psrObj.Location != null && psrObj.Location.@ref != null && psrObj.PSRType != "InternalCable")
{
var loc = _context.GetObject <PhysicalNetworkModel.LocationExt>(psrObj.Location.@ref);
glWriter.AddLocation(Guid.Parse(psrObj.mRID), loc);
}
if (psrObj.Assets != null && psrObj.Assets.@ref != null)
{
assetToEqRefs.Add(psrObj.Assets.@ref, psrObj.mRID);
}
}
}
//////////////////////
// do the asset object
foreach (var cimObject in _context.GetAllObjects())
{
if (cimObject is PhysicalNetworkModel.Asset)
{
if (assetToEqRefs.ContainsKey(cimObject.mRID))
{
var eqMrid = assetToEqRefs[cimObject.mRID];
aiWriter.AddPNMObject((dynamic)cimObject, eqMrid);
}
}
if (cimObject is PhysicalNetworkModel.AssetInfo)
{
aiWriter.AddPNMObject((dynamic)cimObject);
}
if (cimObject is PhysicalNetworkModel.ProductAssetModel)
{
aiWriter.AddPNMObject((dynamic)cimObject);
}
if (cimObject is PhysicalNetworkModel.Manufacturer)
{
aiWriter.AddPNMObject((dynamic)cimObject);
}
}
//////////////////////
// do the projection object
foreach (var cimObject in _context.GetAllObjects())
{
if (cimObject is PhysicalNetworkModel.ProtectionEquipment)
{
peWriter.AddPNMObject((dynamic)cimObject);
}
if (cimObject is PhysicalNetworkModel.PotentialTransformer)
{
peWriter.AddPNMObject((dynamic)cimObject);
}
if (cimObject is PhysicalNetworkModel.CurrentTransformer)
{
peWriter.AddPNMObject((dynamic)cimObject);
}
}
eqWriter.Close();
glWriter.Close();
aiWriter.Close();
peWriter.Close();
string startPath = outputFolder + "\\files";
string zipPath = outputFolder + "\\" + archiveName + ".zip";
File.Delete(zipPath);
ZipFile.CreateFromDirectory(startPath, zipPath);
}
public IEnumerable <IdentifiedObject> Transform(CimContext context, IEnumerable <IdentifiedObject> inputParam)
{
FeederInfoContext feederContext = new FeederInfoContext(context);
feederContext.CreateFeederObjects();
List <IdentifiedObject> input = inputParam.ToList();
HashSet <PhysicalNetworkModel.IdentifiedObject> dropList = new HashSet <IdentifiedObject>();
List <PhysicalNetworkModel.IdentifiedObject> addList = new List <IdentifiedObject>();
// AssetInfo to Asset ref dictionary
Dictionary <string, string> assetInfoToAssetRef = new Dictionary <string, string>();
foreach (var inputCimObject in input)
{
if (inputCimObject is PhysicalNetworkModel.Asset)
{
var asset = inputCimObject as PhysicalNetworkModel.Asset;
if (asset.AssetInfo != null && !assetInfoToAssetRef.ContainsKey(asset.AssetInfo.@ref))
{
assetInfoToAssetRef.Add(asset.AssetInfo.@ref, asset.mRID);
}
}
}
// Asset to Equipment ref dictionary
Dictionary <string, string> assetToEquipmentRef = new Dictionary <string, string>();
foreach (var inputCimObject in input)
{
if (inputCimObject is PhysicalNetworkModel.PowerSystemResource)
{
var psr = inputCimObject as PhysicalNetworkModel.PowerSystemResource;
if (psr.Assets != null)
{
assetToEquipmentRef.Add(psr.Assets.@ref, psr.mRID);
}
}
}
// Set busbar names to station + voltagelevel + bay
foreach (var inputCimObject in input)
{
if (inputCimObject is BusbarSection)
{
var bus = inputCimObject as BusbarSection;
var st = bus.GetSubstation(true, context);
bus.name = st.name + "_" + GetVoltageLevelStr(bus.BaseVoltage) + "_" + bus.name;
var feederInfo = feederContext.GeConductingEquipmentFeederInfo(bus);
if (feederInfo != null && feederInfo.Feeders != null && feederInfo.Feeders.Count > 0)
{
var feeder = feederInfo.Feeders[0];
if (feeder.ConnectionPoint.Substation != null)
{
bus.description = feeder.ConnectionPoint.Substation.name;
}
}
}
}
// Set feeder name on junction connectivity nodes between cables
foreach (var inputCimObject in input)
{
if (inputCimObject is ConnectivityNode)
{
var cn = inputCimObject as ConnectivityNode;
if (cn.mRID == "c540b203-e442-7027-824c-bc561b3de47d")
{
}
var cnEqs = context.GetConnections(cn);
if (cnEqs.Count > 0)
{
if (cnEqs.All(e => e.ConductingEquipment is ACLineSegment))
{
var eq = cnEqs.First().ConductingEquipment;
var feederInfo = feederContext.GeConductingEquipmentFeederInfo(eq);
if (feederInfo != null && feederInfo.Feeders != null && feederInfo.Feeders.Count > 0)
{
var feeder = feederInfo.Feeders[0];
if (feeder.ConnectionPoint.Substation != null)
{
cn.description = feeder.ConnectionPoint.Substation.name;
}
}
}
}
}
}
// Set peterson coil name to station + gis name + min og max
foreach (var inputCimObject in input)
{
if (inputCimObject is PetersenCoil)
{
var coil = inputCimObject as PetersenCoil;
var st = coil.GetSubstation(true, context);
if (coil.Asset != null && coil.Asset.AssetInfo != null && coil.Asset.AssetInfo.@ref != null)
{
var coilInfo = context.GetObject <PetersenCoilInfoExt>(coil.Asset.AssetInfo.@ref);
coil.name = st.name + " " + coil.name;
if (coilInfo != null && coilInfo.minimumCurrent != null && coilInfo.maximumCurrent != null)
{
coil.name += " " + (int)coilInfo?.minimumCurrent?.Value + "-" + (int)coilInfo?.maximumCurrent?.Value;
}
else
{
Logger.Log(LogLevel.Warning, "Slukkepole på station: " + st.name + " mangler værdier.");
}
}
else
{
coil.name = st.name + " " + coil.name + " 0-0";
}
}
}
// Set reactor coil (linear shunt compensator) to station + gis name + min og max
foreach (var inputCimObject in input)
{
if (inputCimObject is LinearShuntCompensator)
{
var coil = inputCimObject as LinearShuntCompensator;
var st = coil.GetSubstation(true, context);
if (coil.Asset != null && coil.Asset.AssetInfo != null && coil.Asset.AssetInfo.@ref != null)
{
var coilInfo = context.GetObject <LinearShuntCompensatorInfoExt>(coil.Asset.AssetInfo.@ref);
coil.name = st.name + " " + coil.name;
if (coilInfo != null && coilInfo.minimumReactivePower != null && coilInfo.maximumReactivePower != null)
{
coil.name += " " + (int)coilInfo?.minimumReactivePower?.Value + "-" + (int)coilInfo?.maximumReactivePower?.Value;
}
else
{
Logger.Log(LogLevel.Warning, "Reaktorspole på station: " + st.name + " mangler værdier.");
}
}
else
{
coil.name = st.name + " " + coil.name + " 0-0";
}
}
}
// Remove injection > 50 kV
foreach (var inputCimObject in input)
{
if (inputCimObject is ExternalNetworkInjection)
{
var inj = inputCimObject as ExternalNetworkInjection;
if (inj.BaseVoltage > 50000)
{
dropList.Add(inj);
var injConnections = context.GetConnections(inj);
foreach (var injCon in injConnections)
{
dropList.Add(injCon.Terminal);
}
}
}
}
// Fix and check objects
foreach (var inputCimObject in input)
{
// Remove switch gear busbar asset model information (because PF complain about missing type, and Konstant/Thue says he don't want types into PF for now
if (inputCimObject is BusbarSectionInfo)
{
BusbarSectionInfo bsi = inputCimObject as BusbarSectionInfo;
bsi.AssetModel = null;
var assetMrid = assetInfoToAssetRef[inputCimObject.mRID];
var asset = context.GetObject <PhysicalNetworkModel.Asset>(assetMrid);
asset.type = null;
asset.name = null;
asset.AssetModel = null;
}
// Remove asset manufacture information on busbars and switches
if (inputCimObject is BusbarSection || inputCimObject is Switch)
{
ConductingEquipment ci = inputCimObject as ConductingEquipment;
var asset = context.GetObject <PhysicalNetworkModel.Asset>(ci.Assets.@ref);
asset.type = null;
asset.name = null;
asset.AssetModel = null;
}
// Remove measurment current transformer and cts sitting on voltage level < 60 kV
if (inputCimObject is CurrentTransformer && !((CurrentTransformer)inputCimObject).PSRType.ToLower().Contains("kundemaaling"))
{
var ct = inputCimObject as CurrentTransformer;
bool ctIsDropped = false;
try
{
var ctTerminal = context.GetObject <Terminal>(ct.Terminal.@ref);
var ctEq = context.GetObject <ConductingEquipment>(ctTerminal.ConductingEquipment.@ref);
if (ctEq.BaseVoltage < 60000)
{
dropList.Add(ct);
ctIsDropped = true;
}
}
catch (ArgumentException ex)
{
dropList.Add(ct);
ctIsDropped = true;
}
// Move CT to line end, transformer end
var st = ct.GetSubstation(true, context);
foreach (var eq in st.GetEquipments(context))
{
// If component inside same bay as ct
if (eq is ConductingEquipment && eq.EquipmentContainer.@ref == ct.EquipmentContainer.@ref)
{
var ci = eq as ConductingEquipment;
var ciConnections = context.GetConnections(ci);
foreach (var ciConnection in ciConnections)
{
var ciNeighbors = context.GetConnections(ciConnection.ConnectivityNode).Where(c => c.ConductingEquipment != ci).ToList();
if (ciNeighbors.Any(c => c.ConductingEquipment is ACLineSegment))
{
ct.Terminal.@ref = ciConnection.Terminal.mRID;
}
else if (ciNeighbors.Any(c => c.ConductingEquipment is PowerTransformer))
{
ct.Terminal.@ref = ciConnection.Terminal.mRID;
}
else if (ciNeighbors.Count == 0)
{
ct.Terminal.@ref = ciConnection.Terminal.mRID;
}
}
}
}
}
// Check that current transformer infos has currents
if (inputCimObject is CurrentTransformerInfoExt)
{
var ctInfo = inputCimObject as CurrentTransformerInfoExt;
var assetMrid = assetInfoToAssetRef[ctInfo.mRID];
var eqMrid = assetToEquipmentRef[assetMrid];
var ct = context.GetObject <CurrentTransformerExt>(eqMrid);
var ctAsset = context.GetObject <PhysicalNetworkModel.Asset>(assetMrid);
if (ct.PSRType != null && ct.PSRType == "StromTransformer")
{
// Make sure primary and secondary current is set, because otherwise PF import fails
if (ctInfo.primaryCurrent == null)
{
var stName = ct.GetSubstation(true, context).name;
var bayName = ct.GetBay(true, context).name;
Logger.Log(LogLevel.Warning, "CT Missing primary current. Will not be transfered to PF: " + stName + " " + bayName);
ctInfo.primaryCurrent = new CurrentFlow()
{
Value = 0, unit = UnitSymbol.A
};
dropList.Add(ct);
dropList.Add(ctAsset);
dropList.Add(ctInfo);
}
if (ctInfo.secondaryCurrent == null)
{
var stName = ct.GetSubstation(true, context).name;
var bayName = ct.GetBay(true, context).name;
Logger.Log(LogLevel.Warning, "CT Missing secondary current: " + stName + " " + bayName);
ctInfo.secondaryCurrent = new CurrentFlow()
{
Value = 0, unit = UnitSymbol.A
};
}
}
else
{
dropList.Add(ct);
dropList.Add(ctAsset);
dropList.Add(ctInfo);
}
}
// Remove potential transformers sitting on voltage level < 60 kV
if (inputCimObject is PotentialTransformer)
{
var pt = inputCimObject as PotentialTransformer;
// If terminal point to object we don't have including - i.e. some 400 volt component - don't bother with the CT
if (context.GetAllObjects().Exists(o => o.mRID == pt.Terminal.@ref))
{
var ptTerminal = context.GetObject <Terminal>(pt.Terminal.@ref);
var ptEq = context.GetObject <ConductingEquipment>(ptTerminal.ConductingEquipment.@ref);
if (ptEq.BaseVoltage < 60000)
{
dropList.Add(pt);
}
}
else
{
dropList.Add(pt);
}
}
// Check that potential transformer info has voltages
if (inputCimObject is PotentialTransformerInfoExt)
{
var vtInfo = inputCimObject as PotentialTransformerInfoExt;
var assetMrid = assetInfoToAssetRef[vtInfo.mRID];
var eqMrid = assetToEquipmentRef[assetMrid];
var vtAsset = context.GetObject <PhysicalNetworkModel.Asset>(assetMrid);
var vt = context.GetObject <PotentialTransformer>(eqMrid);
var vtSt = vt.GetSubstation(true, context);
// Make sure primary and secondary voltage is set, because otherwise PF import fails
if (vtInfo.primaryVoltage == null)
{
vtInfo.primaryVoltage = new Voltage()
{
Value = 0, unit = UnitSymbol.V
};
var stName = vt.GetSubstation(true, context).name;
var bayName = vt.GetBay(true, context).name;
Logger.Log(LogLevel.Warning, "VT Missing primary voltage. VT will not be transfered to PF." + stName + " " + bayName);
dropList.Add(vt);
dropList.Add(vtAsset);
dropList.Add(vtInfo);
}
else if (vtInfo.secondaryVoltage == null)
{
vtInfo.secondaryVoltage = new Voltage()
{
Value = 0, unit = UnitSymbol.V
};
var stName = vt.GetSubstation(true, context).name;
var bayName = vt.GetBay(true, context).name;
Logger.Log(LogLevel.Warning, "VT Missing secondary voltage. VI will not be transfered to PF." + stName + " " + bayName);
dropList.Add(vt);
dropList.Add(vtAsset);
dropList.Add(vtInfo);
}
}
// Set relay names to station + bay
if (inputCimObject is ProtectionEquipment)
{
var relay = inputCimObject as ProtectionEquipment;
// get relay station and bay via the switch it is connected to
if (relay.ProtectedSwitches != null && relay.ProtectedSwitches.Length > 0)
{
try
{
var peSw = context.GetObject <PowerSystemResource>(relay.ProtectedSwitches[0].@ref);
var bay = peSw.GetBay(true, context);
var st = peSw.GetSubstation(true, context);
relay.name = st.name + " " + bay.name;
}
catch (Exception ex)
{
Logger.Log(LogLevel.Warning, "Cannot find switch: " + relay.ProtectedSwitches[0].@ref + " connected to replay: " + inputCimObject.mRID);
}
}
else
{
dropList.Add(inputCimObject);
}
}
// Set electrical values on internal substation cables to 0
if (inputCimObject is ACLineSegment)
{
var acls = inputCimObject as ACLineSegment;
if (acls.PSRType == "InternalCable")
{
// Set name to internal cable
acls.name = "Internal Cable";
// Set length to 1 meter
acls.length.Value = 1;
// Set value to zero
acls.r = new Resistance()
{
Value = 0
};
acls.r0 = new Resistance()
{
Value = 0
};
acls.x = new Reactance()
{
Value = 0
};
acls.x0 = new Reactance()
{
Value = 0
};
acls.bch = new Susceptance()
{
Value = 0
};
acls.b0ch = new Susceptance()
{
Value = 0
};
acls.gch = new Conductance()
{
Value = 0
};
acls.g0ch = new Conductance()
{
Value = 0
};
}
}
// Sæt transformer vikling navn og r,x,b,g værdier på vikling 2 til 0
if (inputCimObject is PowerTransformerEndExt)
{
var ptEnd = inputCimObject as PowerTransformerEndExt;
var pt = context.GetObject <PowerTransformer>(ptEnd.PowerTransformer.@ref);
ptEnd.name = pt.Substation.name + "_" + pt.name + "_T" + ptEnd.endNumber;
/* Don't calculate r,x,b,g anymore.
* if (ptEnd.endNumber == "1")
* {
* ptEnd.b0 = new Susceptance() { Value = 0 };
* ptEnd.g0 = new Conductance() { Value = 0 };
*
* if (ptEnd.ratedU == null ||
* ptEnd.ratedS == null ||
* ptEnd.excitingCurrentZero == null ||
* ptEnd.loss == null ||
* ptEnd.lossZero == null ||
* ptEnd.uk == null)
* {
* // FIX: burde måske logge fejl, men PF skal nok brokke sig
* }
* else
* {
* // Beregn r: loss * (ratedU / ratedS * 1000)^2
* ptEnd.r = new Resistance() { Value = ptEnd.loss.Value * Math.Pow((ptEnd.ratedU.Value / (ptEnd.ratedS.Value * 1000)), 2) };
*
* // Beregn g: (LossZero / ratedU^2)
* double g = ptEnd.lossZero.Value / Math.Pow(ptEnd.ratedU.Value, 2);
* ptEnd.g = new Conductance() { Value = g };
*
* // Beregn YOC: (excitingCurrentZero*ratedS)/(100 * (ratedU^2))
* double yoc = (ptEnd.excitingCurrentZero.Value * (ptEnd.ratedS.Value * 1000)) / (100 * Math.Pow(ptEnd.ratedU.Value, 2));
*
* // Beregn b: SQRT(YOC^2-g^2)
* ptEnd.b = new Susceptance()
* {
* Value = Math.Sqrt(Math.Pow(yoc, 2) - Math.Pow(g, 2))
* };
*
* // Beregn Zk: (uk*ratedU^2)/(100*ratedS)
* double zk = (ptEnd.uk.Value * Math.Pow(ptEnd.ratedU.Value, 2)) / (100 * (ptEnd.ratedS.Value * 1000));
*
* // Beregn x: SQRT(Zk^2-r^2)
* ptEnd.x = new Reactance()
* {
* Value = Math.Sqrt(
* Math.Pow(zk, 2) - Math.Pow(ptEnd.r.Value, 2)
* )
* };
* }
* }
*/
if (ptEnd.endNumber == "2")
{
// Set value to zero
ptEnd.r = new Resistance()
{
Value = 0
};
ptEnd.r0 = new Resistance()
{
Value = 0
};
ptEnd.x = new Reactance()
{
Value = 0
};
ptEnd.x0 = new Reactance()
{
Value = 0
};
ptEnd.b = new Susceptance()
{
Value = 0
};
ptEnd.b0 = new Susceptance()
{
Value = 0
};
ptEnd.g = new Conductance()
{
Value = 0
};
ptEnd.g0 = new Conductance()
{
Value = 0
};
}
}
// Remove 'TRF' from transformer name
if (inputCimObject is PowerTransformer)
{
inputCimObject.name = inputCimObject.name.Replace("TRF", "");
}
// Ensure bay name is max 32 charaters
if (inputCimObject is IdentifiedObject && inputCimObject.name != null && inputCimObject.name.Length > 32)
{
inputCimObject.name = inputCimObject.name.Substring(0, 32);
}
// Set name of disconnectors to ADSK
if (inputCimObject is Disconnector)
{
inputCimObject.name = "ADSK";
}
// Set name of disconnectors to ADSK
if (inputCimObject is Fuse)
{
inputCimObject.name = "SIKRING";
}
// Ensure connectivity nodes / busbars have proper names.
// Needed by Konstant to support short circuit result extracts etc. PF uses the name of the node/busbar in reports.
// Also needed to support time series import (Jakob busbar naming)
if (inputCimObject is ConnectivityNode)
{
var cn = inputCimObject as ConnectivityNode;
if (cn.mRID == "1663a3a8-a706-726a-8de5-7f57e2f9e68b")
{
}
if (cn.name == null || cn.name.Length == 0)
{
var cnNeighbors = cn.GetNeighborConductingEquipments(context);
var pt = cnNeighbors.Find(o => o is PowerTransformer) as PowerTransformer;
var bus = cnNeighbors.Find(o => o is BusbarSection);
if (pt != null)
{
var stVoltageLevels = context.GetSubstationVoltageLevels(pt.Substation);
var ptConnections = context.GetConnections(pt);
var ptTerminal = ptConnections.First(c => c.ConnectivityNode == cn);
var ptEnds = pt.GetEnds(context);
var ptEnd = ptEnds.Find(e => e.Terminal.@ref == ptTerminal.Terminal.mRID);
double ptEndVoltageLevel = ptEnd.BaseVoltage;
if (pt.name != null)
{
// HACK SHOULD BE CLEANED UP
// Terminal actual exist in source, but get trown away in filter, because nothing connected to it
if (!ptConnections.Exists(c => c.Terminal.sequenceNumber == "2"))
{
Logger.Log(LogLevel.Info, "Station: " + pt.Substation.name + " Trafo: " + pt.name + " mangler secondær skinne. Vil bliver oprettet");
var ptLvCn = new ConnectivityNode()
{
mRID = Guid.NewGuid().ToString(), name = pt.GetSubstation(true, context).name + "_" + GetVoltageLevelStr(400) + "_" + pt.name.Replace("TRF", "")
};
addList.Add(ptLvCn);
if (stVoltageLevels.Exists(o => o.BaseVoltage == 400))
{
var vl = stVoltageLevels.First(o => o.BaseVoltage == 400);
_mappingContext.ConnectivityNodeToVoltageLevel.Add(ptLvCn, vl);
}
else
{
var vl = new DAX.CIM.PhysicalNetworkModel.VoltageLevel()
{
mRID = Guid.NewGuid().ToString(),
name = "0,4 kV",
EquipmentContainer1 = new VoltageLevelEquipmentContainer()
{
@ref = pt.Substation.mRID
},
BaseVoltage = 400
};
addList.Add(vl);
stVoltageLevels.Add(vl);
_mappingContext.ConnectivityNodeToVoltageLevel.Add(ptLvCn, vl);
}
var ptLvTerminal = new Terminal()
{
mRID = Guid.NewGuid().ToString(),
phases = PhaseCode.ABCN,
phasesSpecified = true,
sequenceNumber = "2",
ConnectivityNode = new TerminalConnectivityNode()
{
@ref = ptLvCn.mRID
},
ConductingEquipment = new TerminalConductingEquipment {
@ref = pt.mRID
}
};
var ptEnd2 = context.GetPowerTransformerEnds(pt).First(p => p.endNumber == "2");
ptEnd2.Terminal = new TransformerEndTerminal()
{
@ref = ptLvTerminal.mRID
};
addList.Add(ptLvTerminal);
}
}
// IF the PT END CN is connected to a conducting equipment
if (cnNeighbors.Exists(o => !(o is PowerTransformer) && o.BaseVoltage > 0.0))
{
ptEndVoltageLevel = cnNeighbors.First(o => !(o is PowerTransformer) && o.BaseVoltage > 0.0).BaseVoltage;
if (stVoltageLevels.Exists(o => o.BaseVoltage == ptEndVoltageLevel))
{
var vl = stVoltageLevels.First(o => o.BaseVoltage == ptEndVoltageLevel);
_mappingContext.ConnectivityNodeToVoltageLevel.Add(cn, vl);
}
}
// IF the PT END CN is *not* connected to anything
else
{
// Set CN to PT END voltage level
var vl = stVoltageLevels.First(o => o.BaseVoltage == ptEndVoltageLevel);
_mappingContext.ConnectivityNodeToVoltageLevel.Add(cn, vl);
// If 60 kV transformer secondary side
if (ptEndVoltageLevel < 20000 && ptEndVoltageLevel > 5000)
{
if (ptEnds.Exists(e => e.BaseVoltage == 60000))
{
EnergyConsumer ec = new EnergyConsumer()
{
mRID = GUIDHelper.CreateDerivedGuid(Guid.Parse(pt.mRID), 1001, true).ToString(),
name = pt.GetSubstation(true, context).name + "_" + GetVoltageLevelStr(ptEndVoltageLevel) + "_" + pt.name.Replace("TRF", ""),
EquipmentContainer = new EquipmentEquipmentContainer()
{
@ref = vl.mRID
},
BaseVoltage = vl.BaseVoltage
};
Terminal ecTerm = new Terminal()
{
mRID = GUIDHelper.CreateDerivedGuid(Guid.Parse(pt.mRID), 1002, true).ToString(),
name = ec.name + "_T1",
ConductingEquipment = new TerminalConductingEquipment()
{
@ref = ec.mRID
},
ConnectivityNode = new TerminalConnectivityNode()
{
@ref = cn.mRID
}
};
addList.Add(ec);
addList.Add(ecTerm);
}
}
}
cn.name = pt.GetSubstation(true, context).name + "_" + GetVoltageLevelStr(ptEndVoltageLevel) + "_" + pt.name.Replace("TRF", "");
/*
* // Hvis trafo deler node med skinne, eller node er 400 volt, så brug jakob navngivning
* if (bus != null || ptEndVoltageLevel == 400)
* cn.name = pt.GetSubstation(true, context).name + "_" + GetVoltageLevelStr(ptEndVoltageLevel) + "_" + pt.name.Replace("TRF", "");
* else
* cn.name = "CN";
*/
}
else if (bus != null && bus.name != null)
{
cn.name = bus.name;
cn.description = bus.description;
}
else
{
var bay = cn.GetBay(false, context);
if (bay != null)
{
if (cnNeighbors.Count == 1 || cnNeighbors.Exists(n => !(n is Switch)))
{
cn.name = bay.name + " ENDE";
}
else
{
cn.name = bay.name;
}
}
else
{
cn.name = "CN";
}
}
}
}
}
// return objects, except the one dropped
foreach (var inputObj in input)
{
if (!dropList.Contains(inputObj))
{
yield return(inputObj);
}
}
// yield added objects,
foreach (var inputObj in addList)
{
yield return(inputObj);
}
}
public void TestEngumEQWriter()
{
bool includeAll = false;
var mappingContext = new MappingContext();
var converter = new PNM2PowerFactoryCimConverter(_context.GetAllObjects(),
new List <IPreProcessor> {
new ACLSMerger(mappingContext),
new KonstantPowerFactoryDataPrepareAndFix(mappingContext)
});
var outputCimObjects = converter.GetCimObjects().ToList();
// We need to reinitialize context, because converter has modified objects
_context = CimContext.Create(outputCimObjects);
var eqWriter = new EQ_Writer(eqTempFileName, _context, mappingContext, Guid.Parse("48acc999-f45c-475a-b61c-09e7d1001fc1"), "Engum");
var glWriter = new GL_Writer(glTempFileName);
HashSet <PhysicalNetworkModel.ConnectivityNode> cnAlreadyWritten = new HashSet <PhysicalNetworkModel.ConnectivityNode>();
foreach (var cimObject in _context.GetAllObjects())
{
if ((cimObject is PhysicalNetworkModel.ConductingEquipment && ((PhysicalNetworkModel.ConductingEquipment)cimObject).BaseVoltage > 5000) ||
!(cimObject is PhysicalNetworkModel.ConductingEquipment) ||
cimObject is PhysicalNetworkModel.PowerTransformer
)
{
if (
cimObject is PhysicalNetworkModel.ACLineSegment ||
cimObject is PhysicalNetworkModel.BusbarSection ||
cimObject is PhysicalNetworkModel.LoadBreakSwitch ||
cimObject is PhysicalNetworkModel.Breaker ||
cimObject is PhysicalNetworkModel.Disconnector ||
cimObject is PhysicalNetworkModel.Fuse ||
cimObject is PhysicalNetworkModel.Terminal ||
(cimObject is PhysicalNetworkModel.ConnectivityNode && cimObject.IsInsideSubstation()) ||
cimObject is PhysicalNetworkModel.Substation ||
cimObject is PhysicalNetworkModel.VoltageLevel ||
cimObject is PhysicalNetworkModel.Bay ||
cimObject is PhysicalNetworkModel.PowerTransformer ||
cimObject is PhysicalNetworkModel.PowerTransformerEnd
)
{
// Add substations
if (cimObject is PhysicalNetworkModel.Substation && (cimObject.name == "BRB" || cimObject.name == "30904" || includeAll))
{
var st = cimObject as PhysicalNetworkModel.Substation;
if (st.PSRType == "PrimarySubstation" || st.PSRType == "SecondarySubstation" || st.PSRType == "Junction")
{
eqWriter.AddPNMObject((dynamic)cimObject);
// Add location
var loc = _context.GetObject <PhysicalNetworkModel.LocationExt>(st.Location.@ref);
glWriter.AddLocation(Guid.Parse(st.mRID), loc);
}
}
// Add voltage levels
if (cimObject is PhysicalNetworkModel.VoltageLevel && (cimObject.GetSubstation().name == "BRB" || cimObject.GetSubstation().name == "30904" || includeAll))
{
eqWriter.AddPNMObject((dynamic)cimObject);
}
// Power transformer
if (cimObject is PhysicalNetworkModel.PowerTransformer && (cimObject.GetSubstation().name == "BRB" || cimObject.GetSubstation().name == "30904" || includeAll))
{
eqWriter.AddPNMObject((dynamic)cimObject);
// Add terminals
var ci = cimObject as PhysicalNetworkModel.ConductingEquipment;
foreach (var tc in _context.GetConnections(ci))
{
tc.Terminal.phases = PhysicalNetworkModel.PhaseCode.ABCN;
tc.Terminal.name = ci.name + "_T" + tc.Terminal.sequenceNumber;
eqWriter.AddPNMObject((dynamic)tc.Terminal);
}
}
// Power transformer end
if (cimObject is PhysicalNetworkModel.PowerTransformerEnd && (cimObject.GetSubstation().name == "BRB" || cimObject.GetSubstation().name == "30904" || includeAll))
{
PhysicalNetworkModel.PowerTransformerEnd ptend = cimObject as PhysicalNetworkModel.PowerTransformerEnd;
ptend.r = new PhysicalNetworkModel.Resistance()
{
Value = 0.1
};
ptend.r0 = new PhysicalNetworkModel.Resistance()
{
Value = 0.2
};
ptend.x = new PhysicalNetworkModel.Reactance()
{
Value = 0.3
};
//ptend.x0 = new PhysicalNetworkModel.Reactance() { Value = 0.4 };
ptend.b = new PhysicalNetworkModel.Susceptance {
Value = 0.5
};
ptend.b0 = new PhysicalNetworkModel.Susceptance {
Value = 0.6
};
ptend.g = new PhysicalNetworkModel.Conductance {
Value = 0.7
};
ptend.g0 = new PhysicalNetworkModel.Conductance {
Value = 0.8
};
ptend.rground = new PhysicalNetworkModel.Resistance {
Value = 0.9
};
ptend.xground = new PhysicalNetworkModel.Reactance {
Value = 0.91
};
ptend.phaseAngleClock = "11";
ptend.grounded = false;
eqWriter.AddPNMObject((dynamic)cimObject);
}
// Add bays
if (cimObject is PhysicalNetworkModel.Bay && (cimObject.GetSubstation().name == "BRB" || cimObject.GetSubstation().name == "30904" || includeAll))
{
eqWriter.AddPNMObject((dynamic)cimObject);
}
// Add ACLS
if (cimObject is PhysicalNetworkModel.ACLineSegment && cimObject.name != null && (cimObject.name.Contains("BRB-30904") || includeAll))
{
eqWriter.AddPNMObject((dynamic)cimObject);
// Add terminals
var ci = cimObject as PhysicalNetworkModel.ConductingEquipment;
foreach (var tc in _context.GetConnections(ci))
{
eqWriter.AddPNMObject((dynamic)tc.Terminal);
}
// Add location
if (ci.PSRType != "InternalCable")
{
var loc = _context.GetObject <PhysicalNetworkModel.LocationExt>(ci.Location.@ref);
glWriter.AddLocation(Guid.Parse(ci.mRID), loc);
}
}
// Add stuff inside substation
if (!(cimObject is PhysicalNetworkModel.PowerTransformer) && cimObject.IsInsideSubstation() && (cimObject.GetSubstation().name == "BRB" || cimObject.GetSubstation().name == "30904" || includeAll))
{
// fix busbar voltage level ref
if (cimObject is PhysicalNetworkModel.BusbarSection)
{
var busbar = cimObject as PhysicalNetworkModel.BusbarSection;
busbar.EquipmentContainer.@ref = busbar.GetSubstation().GetVoltageLevel(busbar.BaseVoltage).mRID;
}
eqWriter.AddPNMObject((dynamic)cimObject);
if (cimObject is PhysicalNetworkModel.ConductingEquipment)
{
var ci = cimObject as PhysicalNetworkModel.ConductingEquipment;
foreach (var tc in _context.GetConnections(ci))
{
eqWriter.AddPNMObject((dynamic)tc.Terminal);
if (!cnAlreadyWritten.Contains(tc.ConnectivityNode))
{
eqWriter.AddPNMObject((dynamic)tc.ConnectivityNode);
}
cnAlreadyWritten.Add(tc.ConnectivityNode);
}
}
}
}
}
}
// Add peterson coil
var coil = new PhysicalNetworkModel.PetersenCoil();
var priTrafo = outputCimObjects.Find(o => o is PhysicalNetworkModel.PowerTransformer && o.GetSubstation().name == "BRB");
var coilSt = priTrafo.GetSubstation();
coil.mRID = Guid.NewGuid().ToString();
coil.name = "Test coil";
coil.BaseVoltage = 10000;
coil.EquipmentContainer = new PhysicalNetworkModel.EquipmentEquipmentContainer()
{
@ref = coilSt.GetVoltageLevel(10000).mRID
};
coil.mode = PhysicalNetworkModel.PetersenCoilModeKind.@fixed;
coil.nominalU = new PhysicalNetworkModel.Voltage()
{
Value = 10000
};
coil.positionCurrent = new PhysicalNetworkModel.CurrentFlow()
{
Value = 99.99
};
coil.offsetCurrent = new PhysicalNetworkModel.CurrentFlow {
Value = 9.99
};
coil.r = new PhysicalNetworkModel.Resistance()
{
Value = 9.99
};
coil.xGroundMin = new PhysicalNetworkModel.Reactance {
Value = 0.99
};
coil.xGroundMax = new PhysicalNetworkModel.Reactance {
Value = 9.99
};
coil.xGroundNominal = new PhysicalNetworkModel.Reactance {
Value = 4.99
};
var trafoCons = _context.GetConnections(priTrafo);
var secTer = trafoCons.Find(o => o.Terminal.sequenceNumber == "1");
var coilTer = new PhysicalNetworkModel.Terminal();
coilTer.mRID = Guid.NewGuid().ToString();
coilTer.ConductingEquipment = new PhysicalNetworkModel.TerminalConductingEquipment()
{
@ref = coil.mRID
};
coilTer.ConnectivityNode = new PhysicalNetworkModel.TerminalConnectivityNode()
{
@ref = secTer.ConnectivityNode.mRID
};
coilTer.phases = PhysicalNetworkModel.PhaseCode.N;
eqWriter.AddPNMObject(coil);
eqWriter.AddPNMObject(coilTer);
eqWriter.Close();
glWriter.Close();
string startPath = folder + "\\files";
string zipPath = folder + "\\export.zip";
File.Delete(zipPath);
ZipFile.CreateFromDirectory(startPath, zipPath);
}