/// <summary>
/// Accepts the current simulation state as a valid timepoint.
/// </summary>
protected void Accept()
{
for (var i = 0; i < _acceptBehaviors.Count; i++)
{
_acceptBehaviors[i].Accept(this);
}
Method.Accept(this);
TimeSimulationStatistics.Accepted++;
}
/// <summary>
/// Executes the simulation.
/// </summary>
/// <exception cref="SpiceSharp.CircuitException">{0}: transient terminated".FormatString(Name)</exception>
protected override void Execute()
{
// First do temperature-dependent calculations and IC
base.Execute();
var exportargs = new ExportDataEventArgs(this);
var timeConfig = Configurations.Get <TimeConfiguration>();
// Start our statistics
Statistics.TransientTime.Start();
var startIters = Statistics.Iterations;
var startselapsed = Statistics.SolveTime.Elapsed;
try
{
var newDelta = Math.Min(timeConfig.FinalTime / 50.0, timeConfig.Step) / 10.0;
while (true)
{
// Accept the last evaluated time point
for (var i = 0; i < _acceptBehaviors.Count; i++)
{
_acceptBehaviors[i].Accept(this);
}
Method.Accept(this);
Statistics.Accepted++;
// Export the current timepoint
if (Method.Time >= timeConfig.InitTime)
{
OnExport(exportargs);
}
// Detect the end of the simulation
if (Method.Time >= timeConfig.FinalTime)
{
// Keep our statistics
Statistics.TransientTime.Stop();
Statistics.TransientIterations += Statistics.Iterations - startIters;
Statistics.TransientSolveTime += Statistics.SolveTime.Elapsed - startselapsed;
// Finished!
return;
}
// Continue integration
Method.Continue(this, ref newDelta);
// Find a valid time point
while (true)
{
// Probe the next time point
Method.Probe(this, newDelta);
// Try to solve the new point
var converged = TimeIterate(timeConfig.TranMaxIterations);
Statistics.TimePoints++;
// Did we fail to converge to a solution?
if (!converged)
{
Method.NonConvergence(this, out newDelta);
Statistics.Rejected++;
}
else
{
// If our integration method approves of our solution, continue to the next timepoint
if (Method.Evaluate(this, out newDelta))
{
break;
}
Statistics.Rejected++;
}
}
}
}
catch (CircuitException ex)
{
// Keep our statistics
Statistics.TransientTime.Stop();
Statistics.TransientIterations += Statistics.Iterations - startIters;
Statistics.TransientSolveTime += Statistics.SolveTime.Elapsed - startselapsed;
throw new CircuitException("{0}: transient terminated".FormatString(Name), ex);
}
}