public void AddPNMObject(PhysicalNetworkModel.ACLineSegment acls, string lineMrid = null)
{
string xml = "<cim:ACLineSegment rdf:ID='_" + acls.mRID + "'>\r\n";
xml += " <cim:IdentifiedObject.name>" + HttpUtility.HtmlEncode(acls.name) + "</cim:IdentifiedObject.name>\r\n";
xml += " <cim:Equipment.aggregate>false</cim:Equipment.aggregate>\r\n";
xml += " <cim:ConductingEquipment.BaseVoltage rdf:resource='#_" + GetBaseVoltageId(acls.BaseVoltage) + "'/>\r\n";
if (lineMrid != null)
{
xml += " <cim:Equipment.EquipmentContainer rdf:resource='#_" + lineMrid + "'/>\r\n";
}
// PF CGMES expect km, but vi got m in GIS, so we need to divede by 1000
xml += " <cim:Conductor.length>" + DoubleToString(acls.length.Value / 1000) + "</cim:Conductor.length>\r\n";
if (acls.b0ch != null)
{
xml += " <cim:ACLineSegment.b0ch>" + DoubleToString(acls.b0ch.Value / 1000000) + "</cim:ACLineSegment.b0ch>\r\n";
}
if (acls.bch != null)
{
xml += " <cim:ACLineSegment.bch>" + DoubleToString(acls.bch.Value / 1000000) + "</cim:ACLineSegment.bch>\r\n";
}
if (acls.g0ch != null)
{
xml += " <cim:ACLineSegment.g0ch>" + DoubleToString(acls.g0ch.Value / 1000000) + "</cim:ACLineSegment.g0ch>\r\n";
}
if (acls.gch != null)
{
xml += " <cim:ACLineSegment.gch>" + DoubleToString(acls.gch.Value / 1000000) + "</cim:ACLineSegment.gch>\r\n";
}
if (acls.r != null)
{
xml += " <cim:ACLineSegment.r>" + DoubleToString(acls.r.Value) + "</cim:ACLineSegment.r>\r\n";
}
if (acls.r0 != null)
{
xml += " <cim:ACLineSegment.r0>" + DoubleToString(acls.r0.Value) + "</cim:ACLineSegment.r0>\r\n";
}
if (acls.x != null)
{
xml += " <cim:ACLineSegment.x>" + DoubleToString(acls.x.Value) + "</cim:ACLineSegment.x>\r\n";
}
if (acls.x0 != null)
{
xml += " <cim:ACLineSegment.x0>" + DoubleToString(acls.x0.Value) + "</cim:ACLineSegment.x0>\r\n";
}
xml += "</cim:ACLineSegment>\r\n\r\n";
_writer.Write(xml);
}
public void TestEQWriterACLineSegment()
{
// Create ACLS
PhysicalNetworkModel.IdentifiedObject acls = new PhysicalNetworkModel.ACLineSegment()
{
mRID = Guid.NewGuid().ToString(),
name = "31-32",
BaseVoltage = 10000,
length = new PhysicalNetworkModel.Length()
{
multiplier = PhysicalNetworkModel.UnitMultiplier.none, unit = PhysicalNetworkModel.UnitSymbol.m, Value = 2500
},
b0ch = new PhysicalNetworkModel.Susceptance()
{
Value = 0
},
bch = new PhysicalNetworkModel.Susceptance()
{
Value = 0.0001440542
},
gch = new PhysicalNetworkModel.Conductance()
{
Value = 0
},
g0ch = new PhysicalNetworkModel.Conductance()
{
Value = 0
},
r = new PhysicalNetworkModel.Resistance()
{
Value = 5.192352
},
r0 = new PhysicalNetworkModel.Resistance {
Value = 5.296199
},
x = new PhysicalNetworkModel.Reactance()
{
Value = 17.16264
},
x0 = new PhysicalNetworkModel.Reactance()
{
Value = 0
}
};
var converter = new EQ_Writer(eqTempFileName, null, null, Guid.NewGuid(), "test");
converter.AddPNMObject((dynamic)acls);
converter.Close();
// Check generated RDF XML document
XDocument doc = XDocument.Load(eqTempFileName);
var test = doc.Descendants();
// Must be in km now
Assert.IsNotNull(doc.Descendants().First(o =>
o.Name.LocalName == "Conductor.length" &&
o.Value == "2.5"
));
Assert.IsNotNull(doc.Descendants().First(o =>
o.Name.LocalName == "ACLineSegment.r" &&
o.Value == "5.192352"
));
}
