public void GenerateDatas()
{
try
{
Collection.Clear();
Circuit cir = new Circuit();
cir.ReadCircuit("Circuits/RCcharge.net");
Circuit cir2 = (Circuit)cir.Clone();
cir2.Setup.RemoveAt(0);
ACAnalysis ac = new ACAnalysis();
cir2.Setup.Add(ac);
ACSweepSolver.Optimize(cir2);
cir2.Solve();
ACSweepSolver sol = (ACSweepSolver)ac.Solver;
foreach (var res in sol.Voltages)
{
//Console.Write(res.Key.ToString() + "rad/seg");
foreach (var nodo in res.Value)
{
if (nodo.Key == "$N_0001")
//Console.Write(nodo.Key + " " + nodo.Value.ToString() + "V\r\n");
this.Collection.Add(new Point(res.Key, nodo.Value.Real));
}
}
}
catch (Exception ex)
{
throw;
}
}
public void Simulate(string circuitname)
{
TxtStatus.Text = circuitname;
cir = new Circuit();
//cir.ReadCircuit("Circuits/RCL.net");
cir.ReadCircuit(circuitname);
cir2 = (Circuit)cir.Clone();
cir2.Setup.RemoveAt(0);
ACAnalysis ac = new ACAnalysis();
cir2.Setup.Add(ac);
ACSweepSolver.Optimize(cir2);
Refresh();
}
private void Button_Click(object sender, RoutedEventArgs e)
{
model = new ComplexPlainViewModel();
model.ColorCoding = ColorCoding.ByLights;
Circuit cir = new Circuit();
cir.ReadCircuit("Circuits/RCL.net");
cir2 = (Circuit)cir.Clone();
cir2.Setup.RemoveAt(0);
ComplexPlainAnalysis ac1 = new ComplexPlainAnalysis();
cir2.Setup.Add(ac1);
ACSweepSolver.Optimize(cir2);
cir2.Solve();
sol1 = (ComplexPlainSolver)ac1.Solver;
int scalefactor = 5000;
model.MinX = ac1.SigmaMin / scalefactor;
model.MaxX = ac1.SigmaMax / scalefactor;
model.MaxY = ac1.WMax / scalefactor;
model.MinY = ac1.WMin / scalefactor;
model.Columns = ac1.Points;
model.Rows = ac1.Points;
var data = new Point3D[model.Rows, model.Columns];
//public Tuple<Complex32, Complex32>[,] Results { get; set; }
MathNet.Numerics.Complex32 W;
for (int i = 0; i < model.Rows; i++)
for (int j = 0; j < model.Columns; j++)
{
W = sol1.WfromIndexes[new Tuple<int, int>(i, j)];
foreach (var node in sol1.Voltages[W])
{
if (node.Key == "out")
data[i, j] = new Point3D(W.Real /scalefactor,
W.Imaginary /scalefactor,
//node.Value.Magnitude);
2 * Math.Log10(node.Value.Magnitude));
}
}
model.Data = data;
model.UpdateModel(false);
//model.CreateDataArray(ModuleInDB);
DataContext = model;
}
public void Simulate(string circuitname)
{
propgrid.SelectedObject = null;
cir = new Circuit();
cir.ReadCircuit(circuitname);
cir2 = (Circuit)cir.Clone();
cir2.Setup.RemoveAt(0);
if (ac5 == null || cir2.Setup.Count == 0)
{
ac5 = new TransientAnalysis();
ac5.Step = "50n";
ac5.FinalTime = "50u";
cir2.Setup.Add(ac5);
}
TransientSolver sol5 = (TransientSolver)ac5.Solver;
TransientSolver.Optimize(cir2);
Refresh();
lbComponents.ItemsSource = cir.Components;
lbNodes.ItemsSource = cir.Nodes.Values;
}
private void LoadField()
{
Circuit cir = new Circuit();
cir.ReadCircuit("Circuits/RCL.net");
cir2 = (Circuit)cir.Clone();
cir2.Setup.RemoveAt(0);
ComplexPlainAnalysis ac1 = new ComplexPlainAnalysis();
cir2.Setup.Add(ac1);
ACSweepSolver.Optimize(cir2);
cir2.Solve();
sol1 = (ComplexPlainSolver)ac1.Solver;
int Rows = ac1.Points;
int Columns = ac1.Points;
double[,] data = new double[Rows, Columns];
Point[,] gridData = new Point[Rows, Columns];
MathNet.Numerics.Complex32 W;
for (int i = 0; i < Rows; i++)
for (int j = 0; j < Columns; j++)
{
W = sol1.WfromIndexes[new Tuple<int, int>(i, j)];
foreach (var node in sol1.Voltages[W])
{
if (node.Key == "out")
{
data[i, j] = 20 * Math.Log10(node.Value.Magnitude);
//data[i, j] = 180 * node.Value.Phase / Math.PI;
gridData[i, j] = new Point(W.Real, W.Imaginary);
}
}
}
WarpedDataSource2D<double> dataSource = new WarpedDataSource2D<double>(data, gridData);
isolineGraph.DataSource = dataSource;
trackingGraph.DataSource = dataSource;
}
private void Simulate(string FileName)
{
cir = new Circuit();
cir.ReadCircuit(FileName);
cir2 = (Circuit)cir.Clone();
cir2.Setup.RemoveAt(0);
ac1 = new ComplexPlainAnalysis();
cir2.Setup.Add(ac1);
ACSweepSolver.Optimize(cir2);
Update();
lbComponents.ItemsSource = cir.Components;
lbNodes.ItemsSource = cir.Nodes.Values;
//lbComponents.SelectedItem
DataContext = model;
}