public LinearSweep LinSweep(ScanDatabase _database) //Set the parameters for a linear sweep scan
{
LinearSweep linearSweep = new LinearSweep
{
BeginPotential = (float)_database.StartingPotential,
EndPotential = (float)_database.EndingPotential,
Scanrate = (float)_database.ScanRate,
StepPotential = (float)_database.PotentialStep //Add in additional required values once determined
};
return(linearSweep);
}
//Below runs the necessary scan on the APM
public async Task <Method> RunScan()
{
List <ScanDatabase> allDb = await App.Database.GetScanDatabasesAsync();
ScanDatabase _database = await App.Database.GetScanAsync(allDb.Count);
ScanParams instance = new ScanParams();
switch (_database.VoltamType)
{
case "Linear Voltammetry":
LinearSweep linSweep = instance.LinSweep(_database);
linSweep.Ranging.StartCurrentRange = new CurrentRange(5);
linSweep.Ranging.MaximumCurrentRange = new CurrentRange(6);
linSweep.Ranging.MaximumCurrentRange = new CurrentRange(3);
return(linSweep);
case "Cyclic Voltammetry":
CyclicVoltammetry cVoltammetry = instance.CV(_database);
cVoltammetry.Ranging.StartCurrentRange = new CurrentRange(5);
cVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(6);
cVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(3);
return(cVoltammetry);
case "Square Wave Voltammetry":
SquareWave squareWave = instance.SWV(_database);
squareWave.Ranging.StartCurrentRange = new CurrentRange(5);
squareWave.Ranging.MaximumCurrentRange = new CurrentRange(6);
squareWave.Ranging.MaximumCurrentRange = new CurrentRange(3);
return(squareWave);
case "Alternating Current Voltammetry":
ACVoltammetry acVoltammetry = instance.ACV(_database);
acVoltammetry.Ranging.StartCurrentRange = new CurrentRange(5);
acVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(6);
acVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(3);
return(acVoltammetry);
default:
//Add code to notify user that something has gone wrong and needs to be fixed
return(null);
}
}
//Sets the scan parameters
public async Task <Method> RunScan()
{
//Grabs the most recent database to get the required parameters
List <ScanDatabase> allDb = await App.Database.GetScanDatabasesAsync();
ScanDatabase _database = await App.Database.GetScanAsync(allDb.Count);
//Gets an instance of ScanParams
ScanParams instance = new ScanParams();
switch (_database.VoltamType) //Switch which invokes the correct type of scan
{
case "Alternating Current Voltammetry": //Sets an alternating current voltammetric scan
using (ACVoltammetry acVoltammetry = instance.ACV(_database))
{
acVoltammetry.SmoothLevel = 0;
acVoltammetry.Ranging.StartCurrentRange = new CurrentRange(CurrentRanges.cr10uA); //Sets the range that the potentiostat will use to detect the current
acVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100uA);
acVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100nA);
return(acVoltammetry);
}
case "Cyclic Voltammetry": //Sets a cyclic voltammetric scan
using (CyclicVoltammetry cVoltammetry = instance.CV(_database))
{
cVoltammetry.SmoothLevel = 0;
cVoltammetry.Ranging.StartCurrentRange = new CurrentRange(CurrentRanges.cr10uA); //Sets the range that the potentiostat will use to detect the current
cVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100uA);
cVoltammetry.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100nA);
return(cVoltammetry);
}
case "Differential Pulse Voltammetry": //Sets a differential pulse voltammetric scan
using (DifferentialPulse differentialPulse = instance.DPV(_database))
{
differentialPulse.SmoothLevel = 0;
differentialPulse.Ranging.StartCurrentRange = new CurrentRange(CurrentRanges.cr1uA); //Sets the range that the potentiostat will use to detect the current
differentialPulse.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr1uA);
differentialPulse.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr10nA);
return(differentialPulse);
}
case "Linear Voltammetry": //Sets a linear voltammetric scan
using (LinearSweep linSweep = instance.LinSweep(_database))
{
linSweep.SmoothLevel = 0;
linSweep.Ranging.StartCurrentRange = new CurrentRange(CurrentRanges.cr10uA); //Sets the range that the potentiostat will use to detect the current
linSweep.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100uA);
linSweep.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100nA);
return(linSweep);
}
case "Square Wave Voltammetry": //Sets a square wave voltammetric scan
using (SquareWave squareWave = instance.SWV(_database))
{
squareWave.SmoothLevel = 0;
squareWave.Ranging.StartCurrentRange = new CurrentRange(CurrentRanges.cr10uA); //Sets the range that the potentiostat will use to detect the current
squareWave.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100uA);
squareWave.Ranging.MaximumCurrentRange = new CurrentRange(CurrentRanges.cr100nA);
return(squareWave);
}
default:
//Add code to notify user that something has gone wrong and needs to be fixed
return(null);
}
}
private Noise CreateNoiseSimulation(string name, Control statement, ICircuitContext context)
{
Noise noise = null;
// Check parameter count
switch (statement.Parameters.Count)
{
case 0:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "SpiceModel expected for .NOISE", statement.LineInfo));
return(null);
case 1:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "Source expected", statement.LineInfo));
return(null);
case 2:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "Step type expected", statement.LineInfo));
return(null);
case 3:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "Number of points expected", statement.LineInfo));
return(null);
case 4:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "Starting frequency expected", statement.LineInfo));
return(null);
case 5:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "Stopping frequency expected", statement.LineInfo));
return(null);
case 6: break;
case 7: break;
default:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "Too many parameters for .NOISE", statement.LineInfo));
return(null);
}
string type = statement.Parameters.Get(2).Image;
var numberSteps = context.Evaluator.EvaluateDouble(statement.Parameters.Get(3));
var start = context.Evaluator.EvaluateDouble(statement.Parameters.Get(4));
var stop = context.Evaluator.EvaluateDouble(statement.Parameters.Get(5));
Sweep <double> sweep;
switch (type)
{
case "lin": sweep = new LinearSweep(start, stop, (int)numberSteps); break;
case "oct": sweep = new OctaveSweep(start, stop, (int)numberSteps); break;
case "dec": sweep = new DecadeSweep(start, stop, (int)numberSteps); break;
default:
context.Result.Validation.Add(new ValidationEntry(ValidationEntrySource.Reader, ValidationEntryLevel.Warning, "LIN, DEC or OCT expected", statement.LineInfo));
return(null);
}
// The first parameters needs to specify the output voltage
if (statement.Parameters[0] is BracketParameter bracket)
{
if (bracket.Name.ToLower() == "v")
{
switch (bracket.Parameters.Count)
{
// V(A, B) - V(vector)
// V(A) - V(singleParameter)
case 1:
if (bracket.Parameters[0] is VectorParameter v && v.Elements.Count == 2)
{
var output = v.Elements[0].Image;
var reference = v.Elements[1].Image;
var input = statement.Parameters[2].Image;
noise = new Noise(name, output, reference, input, sweep);
}
else if (bracket.Parameters[0] is SingleParameter s)
{
var output = s.Image;
var input = statement.Parameters[1].Image;
noise = new Noise(name, output, input, sweep);
}
break;