static void ProcessSAR(string inputFileName)
{
// Constants
XElement xDoc = XElement.Load(inputFileName);
double f0 = Convert.ToDouble(xDoc.Element("FDTD").Element("Excitation").Attribute("f0").Value);
var leQuery = from xe in xDoc.Element("ContinuousStructure").Element("Properties").Elements("LumpedElement")
where xe.Attribute("Name").Value.Contains("resist")
select xe;
double r = Convert.ToDouble(leQuery.First().Attribute("R").Value);
// Port calculations
double[] freqs = Utility.LinearSpace(f0 / 2, f0 * 3 / 2, 501);
var lumpedPort = new LumpedPort(0, 1, r, new Vector3D(-10, -1, -1), new Vector3D(10, 1, 1), ENormDir.X, true);
lumpedPort.ReadResults(freqs);
double Pin_f0 = lumpedPort.GetPFdInAt(f0);
Console.WriteLine();
// SAR
string sarFileName = @"SAR.h5";
var sarDump = new Postprocess.SAR(sarFileName);
double totalPower = HDF5.ReadAttribute(sarFileName, @"/FieldData/FD/f0", "power");
Console.WriteLine("Field maximum: {0:e4}", sarDump.MaxValue);
Console.WriteLine("Field maximum location: ({0})", String.Join(",", sarDump.MaxCoordinates.Select(x => String.Format("{0:f2}", x))));
Console.WriteLine("Exporting SAR dump slices to PNG files...");
string filenameSarX = "SAR-X.png";
string filenameSarY = "SAR-Y.png";
string filenameSarZ = "SAR-Z.png";
sarDump.ToPNG(filenameSarX, Postprocess.SAR.ENormDir.X, sarDump.MaxCoordinates[0]);
sarDump.ToPNG(filenameSarY, Postprocess.SAR.ENormDir.Y, sarDump.MaxCoordinates[1]);
sarDump.ToPNG(filenameSarZ, Postprocess.SAR.ENormDir.Z, sarDump.MaxCoordinates[2]);
Console.WriteLine("Exporting SAR to VTK file...");
sarDump.ToVTK(inputFileName);
// NF2FF
Console.WriteLine("Calculating antenna parameters...");
var nf2ff = new Postprocess.NF2FF(f0);
try
{
nf2ff.ReadHDF5Result();
Console.WriteLine("Maximum SAR: {0:f3} W/kg (normalized to 1 W accepted power)", sarDump.MaxValue / Pin_f0);
Console.WriteLine("Accepted power: {0:e4} W", Pin_f0);
Console.WriteLine("Radiated power: {0:e4} W", nf2ff.RadiatedPower);
Console.WriteLine("Absorbed power: {0:e4} W", totalPower);
Console.WriteLine("Power budget: {0:f3} %", 100 * (nf2ff.RadiatedPower + totalPower) / Pin_f0);
Console.WriteLine("Populating manifest file...");
var manifest = AVM.DDP.MetaTBManifest.OpenForUpdate(manifestPath);
// Initialize Metrics list if necessary
if (manifest.Metrics == null)
{
manifest.Metrics = new List <AVM.DDP.MetaTBManifest.Metric>();
}
// Look for existing metric. Create a new one if not found.
string metricName = "SAR_max";
AVM.DDP.MetaTBManifest.Metric metric = manifest.Metrics.FirstOrDefault(m => m.Name.Equals(metricName));
if (metric == null)
{
metric = new AVM.DDP.MetaTBManifest.Metric()
{
Name = metricName
};
manifest.Metrics.Add(metric);
}
// Set metric attributes
metric.DisplayedName = "SAR maximum";
metric.Description = "Maximum Specific Absorption Ratio (SAR) averaged over volumes containing 1 gram of tissue.";
metric.Unit = "W/kg";
metric.Value = String.Format("{0:e4}", sarDump.MaxValue / Pin_f0);
metric.VisualizationArtifacts = new List <AVM.DDP.MetaTBManifest.Artifact>();
metric.VisualizationArtifacts.Add(new AVM.DDP.MetaTBManifest.Artifact()
{
Location = filenameSarX, Tag = "CyPhy2RF::SAR::X"
});
metric.VisualizationArtifacts.Add(new AVM.DDP.MetaTBManifest.Artifact()
{
Location = filenameSarY, Tag = "CyPhy2RF::SAR::Y"
});
metric.VisualizationArtifacts.Add(new AVM.DDP.MetaTBManifest.Artifact()
{
Location = filenameSarZ, Tag = "CyPhy2RF::SAR::Z"
});
manifest.Serialize(manifestPath);
}
catch (Exception e)
{
Console.Error.WriteLine("Error reading far-field results: {0}", e);
}
}
static void ProcessSAR(string inputFileName)
{
// Constants
XElement xDoc = XElement.Load(inputFileName);
double f0 = Convert.ToDouble(xDoc.Element("FDTD").Element("Excitation").Attribute("f0").Value);
var leQuery = from xe in xDoc.Element("ContinuousStructure").Element("Properties").Elements("LumpedElement")
where xe.Attribute("Name").Value.Contains("resist")
select xe;
double r = Convert.ToDouble(leQuery.First().Attribute("R").Value);
// Port calculations
double[] freqs = Utility.LinearSpace(f0 / 2, f0 * 3 / 2, 501);
var lumpedPort = new LumpedPort(0, 1, r, new Vector3D(-10, -1, -1), new Vector3D(10, 1, 1), ENormDir.X, true);
lumpedPort.ReadResults(freqs);
double Pin_f0 = lumpedPort.GetPFdInAt(f0);
Console.WriteLine();
// SAR
string sarFileName = @"SAR.h5";
var sarDump = new Postprocess.SAR(sarFileName);
double totalPower = HDF5.ReadAttribute(sarFileName, @"/FieldData/FD/f0", "power");
Console.WriteLine("Field maximum: {0:e4}", sarDump.MaxValue);
Console.WriteLine("Field maximum location: ({0})", String.Join(",", sarDump.MaxCoordinates.Select(x => String.Format("{0:f2}", x))));
Console.WriteLine("Exporting SAR dump slices to PNG files...");
string filenameSarX = "SAR-X.png";
string filenameSarY = "SAR-Y.png";
string filenameSarZ = "SAR-Z.png";
sarDump.ToPNG(filenameSarX, Postprocess.SAR.ENormDir.X, sarDump.MaxCoordinates[0]);
sarDump.ToPNG(filenameSarY, Postprocess.SAR.ENormDir.Y, sarDump.MaxCoordinates[1]);
sarDump.ToPNG(filenameSarZ, Postprocess.SAR.ENormDir.Z, sarDump.MaxCoordinates[2]);
Console.WriteLine("Exporting SAR to VTK file...");
sarDump.ToVTK(inputFileName);
// NF2FF
Console.WriteLine("Calculating antenna parameters...");
var nf2ff = new Postprocess.NF2FF(f0);
try
{
nf2ff.ReadHDF5Result();
Console.WriteLine("Maximum SAR: {0:f3} W/kg (normalized to 1 W accepted power)", sarDump.MaxValue / Pin_f0);
Console.WriteLine("Accepted power: {0:e4} W", Pin_f0);
Console.WriteLine("Radiated power: {0:e4} W", nf2ff.RadiatedPower);
Console.WriteLine("Absorbed power: {0:e4} W", totalPower);
Console.WriteLine("Power budget: {0:f3} %", 100 * (nf2ff.RadiatedPower + totalPower) / Pin_f0);
Console.WriteLine("Populating manifest file...");
var manifest = AVM.DDP.MetaTBManifest.OpenForUpdate(manifestPath);
// Initialize Metrics list if necessary
if (manifest.Metrics == null)
{
manifest.Metrics = new List<AVM.DDP.MetaTBManifest.Metric>();
}
// Look for existing metric. Create a new one if not found.
string metricName = "SAR_max";
AVM.DDP.MetaTBManifest.Metric metric = manifest.Metrics.FirstOrDefault(m => m.Name.Equals(metricName));
if (metric == null)
{
metric = new AVM.DDP.MetaTBManifest.Metric()
{
Name = metricName
};
manifest.Metrics.Add(metric);
}
// Set metric attributes
metric.DisplayedName = "SAR maximum";
metric.Description = "Maximum Specific Absorption Ratio (SAR) averaged over volumes containing 1 gram of tissue.";
metric.Unit = "W/kg";
metric.Value = String.Format("{0:e4}", sarDump.MaxValue / Pin_f0);
metric.VisualizationArtifacts = new List<AVM.DDP.MetaTBManifest.Artifact>();
metric.VisualizationArtifacts.Add(new AVM.DDP.MetaTBManifest.Artifact() { Location = filenameSarX, Tag = "CyPhy2RF::SAR::X" });
metric.VisualizationArtifacts.Add(new AVM.DDP.MetaTBManifest.Artifact() { Location = filenameSarY, Tag = "CyPhy2RF::SAR::Y" });
metric.VisualizationArtifacts.Add(new AVM.DDP.MetaTBManifest.Artifact() { Location = filenameSarZ, Tag = "CyPhy2RF::SAR::Z" });
manifest.Serialize(manifestPath);
}
catch (Exception e)
{
Console.Error.WriteLine("Error reading far-field results: {0}", e);
}
}
static int ProcessNF2FF(string inputFileName)
{
// Constants
XElement xDoc = XElement.Load(inputFileName);
double f0 = Convert.ToDouble(xDoc.Element("FDTD").Element("Excitation").Attribute("f0").Value);
var leQuery = from xe in xDoc.Element("ContinuousStructure").Element("Properties").Elements("LumpedElement")
where xe.Attribute("Name").Value.Contains("resist")
select xe;
double r = Convert.ToDouble(leQuery.First().Attribute("R").Value);
// Port calculations
double[] freqs = Utility.LinearSpace(f0 / 2, f0 * 3 / 2, 501);
var antennaPort = new LumpedPort(0, 1, r, new Vector3D(-10, -1, -1), new Vector3D(10, 1, 1), ENormDir.X, true);
antennaPort.ReadResults(freqs);
double Pin_f0 = antennaPort.GetPFdInAt(f0);
// NF2FF
var nf2ff = new Postprocess.NF2FF(f0);
try
{
nf2ff.ReadHDF5Result();
nf2ff.ToVTK(fileName: "directivity_pattern.vtk");
Console.WriteLine("Radiated power: {0,15:e4} W", nf2ff.RadiatedPower);
Console.WriteLine("Directivity (max): {0,15:e4} dBi", 10.0 * Math.Log10(nf2ff.Directivity));
var manifest = AVM.DDP.MetaTBManifest.OpenForUpdate(manifestPath);
// Initialize Metrics list if necessary
if (manifest.Metrics == null)
{
manifest.Metrics = new List <AVM.DDP.MetaTBManifest.Metric>();
}
// Look for existing metric. Create a new one if not found.
string metricName = "Directivity";
AVM.DDP.MetaTBManifest.Metric metric = manifest.Metrics.FirstOrDefault(m => m.Name.Equals(metricName));
if (metric == null)
{
metric = new AVM.DDP.MetaTBManifest.Metric()
{
Name = metricName
};
manifest.Metrics.Add(metric);
}
// Set metric attributes
metric.DisplayedName = "Antenna directivity";
metric.Description = "Antenna directivity.";
metric.Unit = "dBi";
metric.Value = String.Format("{0:e4}", 10.0 * Math.Log10(nf2ff.Directivity));
manifest.Serialize(manifestPath);
}
catch (Exception e)
{
Console.Error.WriteLine("Error reading far-field results: {0}", e);
return(5);
}
return(0);
}
static void ProcessNF2FF(string inputFileName)
{
// Constants
XElement xDoc = XElement.Load(inputFileName);
double f0 = Convert.ToDouble(xDoc.Element("FDTD").Element("Excitation").Attribute("f0").Value);
var leQuery = from xe in xDoc.Element("ContinuousStructure").Element("Properties").Elements("LumpedElement")
where xe.Attribute("Name").Value.Contains("resist")
select xe;
double r = Convert.ToDouble(leQuery.First().Attribute("R").Value);
// Port calculations
double[] freqs = Utility.LinearSpace(f0 / 2, f0 * 3 / 2, 501);
var antennaPort = new LumpedPort(0, 1, r, new Vector3D(-10, -1, -1), new Vector3D(10, 1, 1), ENormDir.X, true);
antennaPort.ReadResults(freqs);
double Pin_f0 = antennaPort.GetPFdInAt(f0);
// NF2FF
var nf2ff = new Postprocess.NF2FF(f0);
try
{
nf2ff.ReadHDF5Result();
nf2ff.ToVTK(fileName: "directivity_pattern.vtk");
Console.WriteLine("Radiated power: {0,15:e4} W", nf2ff.RadiatedPower);
Console.WriteLine("Directivity (max): {0,15:e4} dBi", 10.0*Math.Log10(nf2ff.Directivity));
var manifest = AVM.DDP.MetaTBManifest.OpenForUpdate(manifestPath);
// Initialize Metrics list if necessary
if (manifest.Metrics == null)
{
manifest.Metrics = new List<AVM.DDP.MetaTBManifest.Metric>();
}
// Look for existing metric. Create a new one if not found.
string metricName = "Directivity";
AVM.DDP.MetaTBManifest.Metric metric = manifest.Metrics.FirstOrDefault(m => m.Name.Equals(metricName));
if (metric == null)
{
metric = new AVM.DDP.MetaTBManifest.Metric()
{
Name = metricName
};
manifest.Metrics.Add(metric);
}
// Set metric attributes
metric.DisplayedName = "Antenna directivity";
metric.Description = "Antenna directivity.";
metric.Unit = "dBi";
metric.Value = String.Format("{0:e4}", 10.0 * Math.Log10(nf2ff.Directivity));
manifest.Serialize(manifestPath);
}
catch (Exception e)
{
Console.Error.WriteLine("Error reading far-field results: {0}", e);
}
}
public void GenerateSarSimulationInput(string outputDirectory)
{
Compound simulationSpace = new Compound("space");
Compound solidSpace = new Compound("solid-space");
simulationSpace.Add(solidSpace);
solidSpace.Add(endo);
var headPhantom = new CSXCAD.Ara.HeadPhantom();
headPhantom.Transformations.Add(new TRotateX(Math.PI / 2));
headPhantom.Transformations.Add(new TTranslate(32.0, 80.0, -headPhantom.Width / 2 - 7.0)); // TODO: Make endo width/height accessibles
solidSpace.Add(headPhantom);
double airBox = 40;
double envResolution = Math.Round(lambdaMin / 20 / unit);
double maxRatio = 1.5;
RectilinearGrid grid = new BoundingGrid_6x3();
Vector3D dutPosition = new Vector3D(
antenna.AbsoluteTransformation.X,
antenna.AbsoluteTransformation.Y,
antenna.AbsoluteTransformation.Z);
solidSpace.Transformations.Add(new TTranslate(-dutPosition));
grid.Move(-dutPosition);
grid.Add(new Vector3D(0, 0, 0));
grid.ZLines.Add(-(antenna.Parent as CSXCAD.Ara.PCB).Thickness);
grid.Sort();
grid.SmoothMesh(dutResolution, maxRatio);
grid.Add(headPhantom.BoundingBox.P1);
grid.Add(headPhantom.BoundingBox.P2);
grid.SmoothMesh(sarResolution, maxRatio);
grid.AddAirbox(airBox);
grid.SmoothMesh(envResolution, maxRatio);
simulationSpace.Add(new SARBox("SAR", frequency,
new Vector3D(headPhantom.XGridPoints.First(), headPhantom.YGridPoints.First(), headPhantom.ZGridPoints.First()),
new Vector3D(headPhantom.XGridPoints.Last(), headPhantom.YGridPoints.Last(), headPhantom.ZGridPoints.Last())));
simulationSpace.Add(new NF2FFBox("nf2ff",
new Vector3D(grid.XLines.First(), grid.YLines.First(), grid.ZLines.First()),
new Vector3D(grid.XLines.Last(), grid.YLines.Last(), grid.ZLines.Last()),
lambdaMin / 15 / unit));
grid.AddPML(8);
Simulation fdtd = new Simulation();
fdtd.Excitation = new GaussExcitation(frequency, bandwidth);
// Export
XDocument doc = new XDocument(
new XDeclaration("1.0", "utf-8", "yes"),
new XComment("CyPhy generated openEMS simulation file"),
new XElement("openEMS",
fdtd.ToXElement(),
new XElement("ContinuousStructure",
new XAttribute("CoordSystem", 0),
simulationSpace.ToXElement(),
grid.ToXElement()
)
)
);
System.IO.Directory.CreateDirectory(Path.Combine(outputDirectory));
string openEmsInput = Path.Combine(outputDirectory, "openEMS_input.xml");
doc.Save(openEmsInput);
string nf2ffInput = Path.Combine(outputDirectory, "nf2ff_input.xml");
var nf2ff = new Postprocess.NF2FF(frequency);
nf2ff.ToXDocument().Save(nf2ffInput);
File.WriteAllText(Path.Combine(outputDirectory, "run_sar.cmd"), AraRFAnalysis.Properties.Resources.run_sar);
}
public void GenerateFarFieldSimulationInput(string outputDirectory)
{
Compound simulationSpace = new Compound("space");
Compound solidSpace = new Compound("solid-space");
simulationSpace.Add(solidSpace);
Compound dut;
if (excludeEndo == true)
{
dut = endo.GetModule(slotIndex);
}
else
{
dut = endo;
}
solidSpace.Add(dut); // modifies dut parent (!)
double airBox = 40;
double maxRes = Math.Round(lambdaMin / 20 / unit);
double maxRatio = 1.5;
RectilinearGrid grid = new RectilinearGrid();
grid.Add(dut.BoundingBox.P1);
grid.Add(dut.BoundingBox.P2);
Vector3D antennaPosition = new Vector3D(
antenna.AbsoluteTransformation.X,
antenna.AbsoluteTransformation.Y,
antenna.AbsoluteTransformation.Z);
solidSpace.Transformations.Add(new TTranslate(-antennaPosition));
grid.Move(-antennaPosition);
grid.Add(new Vector3D(0, 0, 0));
grid.ZLines.Add(-(antenna.Parent as CSXCAD.Ara.PCB).Thickness);
grid.Sort();
grid.SmoothMesh(dutResolution, maxRatio);
grid.AddAirbox(airBox);
grid.SmoothMesh(maxRes, maxRatio);
simulationSpace.Add(new NF2FFBox("nf2ff",
new Vector3D(grid.XLines.First(), grid.YLines.First(), grid.ZLines.First()),
new Vector3D(grid.XLines.Last(), grid.YLines.Last(), grid.ZLines.Last()),
lambdaMin / 15 / unit));
grid.AddPML(8);
Simulation fdtd = new Simulation();
fdtd.Excitation = new GaussExcitation(frequency, bandwidth);
// Export
XDocument doc = new XDocument(
new XDeclaration("1.0", "utf-8", "yes"),
new XComment("CyPhy generated openEMS simulation file"),
new XElement("openEMS",
fdtd.ToXElement(),
new XElement("ContinuousStructure",
new XAttribute("CoordSystem", 0),
simulationSpace.ToXElement(),
grid.ToXElement()
)
)
);
if (dut is CSXCAD.Ara.Module)
{
dut.Parent = endo;
}
System.IO.Directory.CreateDirectory(outputDirectory);
string openEmsInput = Path.Combine(outputDirectory, "openEMS_input.xml");
doc.Save(openEmsInput);
string nf2ffInput = Path.Combine(outputDirectory, "nf2ff_input.xml");
var nf2ff = new Postprocess.NF2FF(frequency);
nf2ff.ToXDocument().Save(nf2ffInput);
File.WriteAllText(Path.Combine(outputDirectory, "run_farfield.cmd"), AraRFAnalysis.Properties.Resources.run_farfield);
}
public void GenerateSarSimulationInput(string outputDirectory)
{
Compound simulationSpace = new Compound("space");
Compound solidSpace = new Compound("solid-space");
simulationSpace.Add(solidSpace);
solidSpace.Add(endo);
var headPhantom = new CSXCAD.Ara.HeadPhantom();
headPhantom.Transformations.Add(new TRotateX(Math.PI / 2));
headPhantom.Transformations.Add(new TTranslate(32.0, 80.0, -headPhantom.Width / 2 - 7.0)); // TODO: Make endo width/height accessibles
solidSpace.Add(headPhantom);
double airBox = 40;
double envResolution = Math.Round(lambdaMin / 20 / unit);
double maxRatio = 1.5;
RectilinearGrid grid = new BoundingGrid_6x3();
Vector3D dutPosition = new Vector3D(
antenna.AbsoluteTransformation.X,
antenna.AbsoluteTransformation.Y,
antenna.AbsoluteTransformation.Z);
solidSpace.Transformations.Add(new TTranslate(-dutPosition));
grid.Move(-dutPosition);
grid.Add(new Vector3D(0, 0, 0));
grid.ZLines.Add(-(antenna.Parent as CSXCAD.Ara.PCB).Thickness);
grid.Sort();
grid.SmoothMesh(dutResolution, maxRatio);
grid.Add(headPhantom.BoundingBox.P1);
grid.Add(headPhantom.BoundingBox.P2);
grid.SmoothMesh(sarResolution, maxRatio);
grid.AddAirbox(airBox);
grid.SmoothMesh(envResolution, maxRatio);
simulationSpace.Add(new SARBox("SAR", frequency,
new Vector3D(headPhantom.XGridPoints.First(), headPhantom.YGridPoints.First(), headPhantom.ZGridPoints.First()),
new Vector3D(headPhantom.XGridPoints.Last(), headPhantom.YGridPoints.Last(), headPhantom.ZGridPoints.Last())));
simulationSpace.Add(new NF2FFBox("nf2ff",
new Vector3D(grid.XLines.First(), grid.YLines.First(), grid.ZLines.First()),
new Vector3D(grid.XLines.Last(), grid.YLines.Last(), grid.ZLines.Last()),
lambdaMin / 15 / unit));
grid.AddPML(8);
Simulation fdtd = new Simulation();
fdtd.Excitation = new GaussExcitation(frequency, bandwidth);
// Export
XDocument doc = new XDocument(
new XDeclaration("1.0", "utf-8", "yes"),
new XComment("CyPhy generated openEMS simulation file"),
new XElement("openEMS",
fdtd.ToXElement(),
new XElement("ContinuousStructure",
new XAttribute("CoordSystem", 0),
simulationSpace.ToXElement(),
grid.ToXElement()
)
)
);
System.IO.Directory.CreateDirectory(Path.Combine(outputDirectory));
string openEmsInput = Path.Combine(outputDirectory, "openEMS_input.xml");
doc.Save(openEmsInput);
string nf2ffInput = Path.Combine(outputDirectory, "nf2ff_input.xml");
var nf2ff = new Postprocess.NF2FF(frequency);
nf2ff.ToXDocument().Save(nf2ffInput);
File.WriteAllText(Path.Combine(outputDirectory, "run_sar.cmd"), AraRFAnalysis.Properties.Resources.run_sar);
}
public void GenerateFarFieldSimulationInput(string outputDirectory)
{
Compound simulationSpace = new Compound("space");
Compound solidSpace = new Compound("solid-space");
simulationSpace.Add(solidSpace);
Compound dut;
if (excludeEndo == true)
{
dut = endo.GetModule(slotIndex);
}
else
{
dut = endo;
}
solidSpace.Add(dut); // modifies dut parent (!)
double airBox = 40;
double maxRes = Math.Round(lambdaMin / 20 / unit);
double maxRatio = 1.5;
RectilinearGrid grid = new RectilinearGrid();
grid.Add(dut.BoundingBox.P1);
grid.Add(dut.BoundingBox.P2);
Vector3D antennaPosition = new Vector3D(
antenna.AbsoluteTransformation.X,
antenna.AbsoluteTransformation.Y,
antenna.AbsoluteTransformation.Z);
solidSpace.Transformations.Add(new TTranslate(-antennaPosition));
grid.Move(-antennaPosition);
grid.Add(new Vector3D(0, 0, 0));
grid.ZLines.Add(-(antenna.Parent as CSXCAD.Ara.PCB).Thickness);
grid.Sort();
grid.SmoothMesh(dutResolution, maxRatio);
grid.AddAirbox(airBox);
grid.SmoothMesh(maxRes, maxRatio);
simulationSpace.Add(new NF2FFBox("nf2ff",
new Vector3D(grid.XLines.First(), grid.YLines.First(), grid.ZLines.First()),
new Vector3D(grid.XLines.Last(), grid.YLines.Last(), grid.ZLines.Last()),
lambdaMin / 15 / unit));
grid.AddPML(8);
Simulation fdtd = new Simulation();
fdtd.Excitation = new GaussExcitation(frequency, bandwidth);
// Export
XDocument doc = new XDocument(
new XDeclaration("1.0", "utf-8", "yes"),
new XComment("CyPhy generated openEMS simulation file"),
new XElement("openEMS",
fdtd.ToXElement(),
new XElement("ContinuousStructure",
new XAttribute("CoordSystem", 0),
simulationSpace.ToXElement(),
grid.ToXElement()
)
)
);
if (dut is CSXCAD.Ara.Module)
{
dut.Parent = endo;
}
System.IO.Directory.CreateDirectory(outputDirectory);
string openEmsInput = Path.Combine(outputDirectory, "openEMS_input.xml");
doc.Save(openEmsInput);
string nf2ffInput = Path.Combine(outputDirectory, "nf2ff_input.xml");
var nf2ff = new Postprocess.NF2FF(frequency);
nf2ff.ToXDocument().Save(nf2ffInput);
File.WriteAllText(Path.Combine(outputDirectory, "run_farfield.cmd"), AraRFAnalysis.Properties.Resources.run_farfield);
}
