private void btnCalculate_Click(object sender, EventArgs e)
{
try
{
var temp = GetTempInCorrectUnits();
var pressure = GetPressureValueInCorrectUnits();
var volume = GetVolumeValueInCorrectUnits();
var physApi = new PhysInterface();
var mass = physApi.ComputeTankMass(temp, pressure, volume);
if (mass != null)
{
var correctedMass = ddMass.ConvertValue(MassUnit.Kilogram, _mActiveMassUnit, (double)mass);
tbMass.Text = correctedMass.ToString();
}
else
{
tbMass.Text = "Error";
}
}
catch (Exception ex)
{
MessageBox.Show("An error occurred when attempting to perform the calculation: " + ex.Message);
}
}
/// <summary>
/// Compute missing parameter via python call
/// </summary>
/// <param name="sender"></param>
/// <param name="e"></param>
private void btnCalculate_Click(object sender, EventArgs e)
{
double?temp = null;
double?pressure = null;
double?density = null;
switch (_mCalculationOption)
{
case CalculationOption.CalculateDensity:
temp = GetTempInCorrectUnits();
pressure = GetPressureValueInCorrectUnits();
break;
case CalculationOption.CalculatePressure:
density = GetDensityInCorrectUnits();
temp = GetTempInCorrectUnits();
break;
case CalculationOption.CalculateTemperature:
density = GetDensityInCorrectUnits();
pressure = GetPressureValueInCorrectUnits();
break;
default:
throw new Exception("Calculation option of " + _mCalculationOption + " unknown.");
}
try
{
var physApi = new PhysInterface();
var result = (double)physApi.ComputeTpd(temp, pressure, density);
var valueToUse = double.NaN;
switch (_mCalculationOption)
{
case CalculationOption.CalculateDensity:
valueToUse =
dd_Density.ConvertValue(DensityUnit.KilogramCubicMeter, _mActiveDensityUnit, result);
break;
case CalculationOption.CalculatePressure:
valueToUse = dd_Pressure.ConvertValue(PressureUnit.Pa, _mActivePressureUnit, result);
break;
case CalculationOption.CalculateTemperature:
valueToUse = dd_Temperature.ConvertValue(TempUnit.Kelvin, _mActiveTempUnit, result);
break;
}
var resultContainer = GetResultContainer();
resultContainer.Text = Parsing.DoubleToString(valueToUse);
}
catch (Exception ex)
{
MessageBox.Show("An error occurred when attempting to perform the calculation: " + ex.Message);
}
}
private void Execute()
{
// Blanket try block to help catch deployed issue Brian encountered
Trace.TraceInformation("Gathering parameters for radiative flux analysis...");
try
{
var ambTemp = QraStateContainer.GetNdValue("SysParam.ExternalTempC", TempUnit.Kelvin);
var ambPressure = QraStateContainer.GetNdValue("SysParam.ExternalPresMPA", PressureUnit.Pa);
var h2Temp = QraStateContainer.GetNdValue("FlameWrapper.T_H2", TempUnit.Kelvin);
var h2Pressure = QraStateContainer.GetNdValue("FlameWrapper.P_H2", PressureUnit.Pa);
var orificeDiam = QraStateContainer.GetNdValue("FlameWrapper.d_orifice", DistanceUnit.Meter);
var leakHeight = QraStateContainer.GetNdValue("FlameWrapper.ReleaseHeight", DistanceUnit.Meter);
_radHeatFluxX =
QraStateContainer.GetNdValueList("FlameWrapper.radiative_heat_flux_point:x", DistanceUnit.Meter);
_radHeatFluxY =
QraStateContainer.GetNdValueList("FlameWrapper.radiative_heat_flux_point:y", DistanceUnit.Meter);
_radHeatFluxZ =
QraStateContainer.GetNdValueList("FlameWrapper.radiative_heat_flux_point:z", DistanceUnit.Meter);
var contourLevels =
QraStateContainer.GetNdValueList("FlameWrapper.contour_levels", UnitlessUnit.Unitless);
var relativeHumidity = QraStateContainer.GetNdValue("FlameWrapper.RH", UnitlessUnit.Unitless);
var notionalNozzleModel = QraStateContainer.GetValue <NozzleModel>("NozzleModel");
var releaseAngle = QraStateContainer.GetNdValue("OpWrapper.ReleaseAngle", AngleUnit.Radians);
var radiativeSourceModel =
QraStateContainer.GetValue <RadiativeSourceModels>("RadiativeSourceModel");
Trace.TraceInformation("Creating PhysInterface for python call");
var physInt = new PhysInterface();
physInt.AnalyzeRadiativeHeatFlux(ambTemp, ambPressure, h2Temp, h2Pressure, orificeDiam, leakHeight,
releaseAngle,
notionalNozzleModel, _radHeatFluxX, _radHeatFluxY, _radHeatFluxZ, relativeHumidity,
radiativeSourceModel,
contourLevels, out _fluxData, out _fluxPlotFilepath, out _tempPlotFilepath);
Trace.TraceInformation("PhysInterface call complete");
}
catch (Exception ex)
{
Trace.TraceError(ex.ToString());
MessageBox.Show(@"Heat flux analysis failed, please try again. Check log for details.");
}
}
private void Execute()
{
var ambPressure = QraStateContainer.GetNdValue("SysParam.ExternalPresMPA", PressureUnit.Pa);
var ambTemp = QraStateContainer.GetNdValue("SysParam.ExternalTempC", TempUnit.Kelvin);
var h2Pressure = QraStateContainer.GetNdValue("FlameWrapper.P_H2", PressureUnit.Pa);
var h2Temp = QraStateContainer.GetNdValue("FlameWrapper.T_H2", TempUnit.Kelvin);
var orificeDiam = QraStateContainer.GetNdValue("FlameWrapper.d_orifice", DistanceUnit.Meter);
var dischargeCoeff = QraStateContainer.GetNdValue("OpWrapper.Cd0", UnitlessUnit.Unitless);
var xMin = QraStateContainer.GetNdValue("PlumeWrapper.XMin", DistanceUnit.Meter);
var xMax = QraStateContainer.GetNdValue("PlumeWrapper.XMax", DistanceUnit.Meter);
var yMin = QraStateContainer.GetNdValue("PlumeWrapper.YMin", DistanceUnit.Meter);
var yMax = QraStateContainer.GetNdValue("PlumeWrapper.YMax", DistanceUnit.Meter);
var contours = QraStateContainer.GetNdValue("PlumeWrapper.Contours", UnitlessUnit.Unitless);
var jetAngle = QraStateContainer.GetNdValue("PlumeWrapper.jet_angle", AngleUnit.Radians);
var plotTitle = QraStateContainer.GetValue <string>("PlumeWrapper.PlotTitle");
var physInt = new PhysInterface();
_plotFilename = physInt.CreatePlumePlot(
ambPressure, ambTemp, h2Pressure, h2Temp, orificeDiam, dischargeCoeff, xMin, xMax, yMin, yMax, contours,
jetAngle, plotTitle);
}
private void Execute()
{
var ambTemp = QraStateContainer.Instance.GetStateDefinedValueObject("SysParam.ExternalTempC")
.GetValue(TempUnit.Kelvin)[0];
var ambPres = QraStateContainer.Instance.GetStateDefinedValueObject("SysParam.ExternalPresMPA")
.GetValue(PressureUnit.Pa)[0];
var h2Temp = QraStateContainer.Instance.GetStateDefinedValueObject("FlameWrapper.T_H2")
.GetValue(TempUnit.Kelvin)[0];
var h2Pres = QraStateContainer.Instance.GetStateDefinedValueObject("FlameWrapper.P_H2")
.GetValue(PressureUnit.Pa)[0];
var orificeDiam = QraStateContainer.Instance.GetStateDefinedValueObject("FlameWrapper.d_orifice")
.GetValue(DistanceUnit.Meter)[0];
var y0 = QraStateContainer.Instance.GetStateDefinedValueObject("FlameWrapper.ReleaseHeight")
.GetValue(DistanceUnit.Meter)[0];
var releaseAngle = QraStateContainer.Instance.GetStateDefinedValueObject("OpWrapper.ReleaseAngle")
.GetValue(AngleUnit.Radians)[0];
var nozzleModel = QraStateContainer.GetValue <NozzleModel>("NozzleModel");
var physInt = new PhysInterface();
_resultImageFilepath = physInt.CreateFlameTemperaturePlot(ambTemp, ambPres, h2Temp, h2Pres, orificeDiam, y0,
releaseAngle, nozzleModel.GetKey());
}
private void Execute()
{
var ambPressure = QraStateContainer.GetNdValue("SysParam.ExternalPresMPA", PressureUnit.Pa);
var ambTemp = QraStateContainer.GetNdValue("SysParam.ExternalTempC", TempUnit.Kelvin);
var h2Pressure = QraStateContainer.GetNdValue("FlameWrapper.P_H2", PressureUnit.Pa);
var h2Temp = QraStateContainer.GetNdValue("FlameWrapper.T_H2", TempUnit.Kelvin);
var orificeDiam = QraStateContainer.GetNdValue("FlameWrapper.d_orifice", DistanceUnit.Meter);
var orificeDischargeCoeff = QraStateContainer.GetNdValue("OpWrapper.Cd0", UnitlessUnit.Unitless);
var tankVolume = QraStateContainer.GetNdValue("OpWrapper.TankVolume", VolumeUnit.CubicMeter);
var releaseDischargeCoeff = QraStateContainer.GetNdValue("OpWrapper.CdR", UnitlessUnit.Unitless);
var releaseArea = QraStateContainer.GetNdValue("OpWrapper.SecondaryArea", AreaUnit.SqMeters);
var releaseHeight = QraStateContainer.GetNdValue("OpWrapper.S0", DistanceUnit.Meter);
var enclosureHeight = QraStateContainer.GetNdValue("OpWrapper.H", DistanceUnit.Meter);
var floorCeilingArea = QraStateContainer.GetNdValue("OpWrapper.FCA", AreaUnit.SqMeters);
var distReleaseToWall = QraStateContainer.GetNdValue("OpWrapper.Xwall", DistanceUnit.Meter);
var ceilVentXArea = QraStateContainer.GetNdValue("OpWrapper.Av_ceil", AreaUnit.SqMeters);
var ceilVentHeight = QraStateContainer.GetNdValue("OpWrapper.CVHF", DistanceUnit.Meter);
var floorVentXArea = QraStateContainer.GetNdValue("OpWrapper.Av_floor", AreaUnit.SqMeters);
var floorVentHeight = QraStateContainer.GetNdValue("OpWrapper.FVHF", DistanceUnit.Meter);
var flowRate =
QraStateContainer.GetNdValue("OpWrapper.VolumeFlowRate", VolumetricFlowUnit.CubicMetersPerSecond);
var releaseAngle = QraStateContainer.GetNdValue("OpWrapper.ReleaseAngle", AngleUnit.Radians);
// Blanket try block to catch odd Win8 VM issue
try
{
Trace.TraceInformation("Primitive overpressure parameters gathered. Extracting advanced...");
_timesToPlot =
QraStateContainer.GetNdValueList("OpWrapper.SecondsToPlot", ElapsingTimeConversionUnit.Second);
// Whether to mark pressures on chart. Gets custom time-pressure objects
NdPressureAtTime[] pressuresAtTimes = { };
if (cbMarkChartWithPTDots.Checked)
{
pressuresAtTimes =
QraStateContainer.GetValue <NdPressureAtTime[]>("OpWrapper.PlotDotsPressureAtTimes");
var numPressures = pressuresAtTimes.Length;
_dotMarkPressures = new double[numPressures];
_dotMarkTimes = new double[numPressures];
for (var i = 0; i < numPressures; i++)
{
_dotMarkPressures[i] = pressuresAtTimes[i].Pressure;
_dotMarkTimes[i] = pressuresAtTimes[i].Time;
}
}
else
{
_dotMarkPressures = new double[0];
_dotMarkTimes = new double[0];
}
// WHether to plot line pressures
var llp = QraStateContainer.GetNdValueList("OPWRAPPER.LIMITLINEPRESSURES", PressureUnit.KPa);
double[] limitLinePressures = { };
if (cbHorizontalLines.Checked)
{
limitLinePressures = llp;
}
var maxSimTime =
QraStateContainer.GetNdValue("OpWrapper.MaxSimTime", ElapsingTimeConversionUnit.Second);
// prep vars to hold results
var numTimes = pressuresAtTimes.Length;
_pressuresPerTime = new double[numTimes];
_depths = new double[numTimes];
_concentrations = new double[numTimes];
Trace.TraceInformation("Initializing PhysInterface...");
var physInt = new PhysInterface();
var status = physInt.ExecuteOverpressureAnalysis(
ambPressure, ambTemp, h2Pressure, h2Temp, orificeDiam, orificeDischargeCoeff, tankVolume,
releaseDischargeCoeff, releaseArea, releaseHeight, enclosureHeight, floorCeilingArea,
distReleaseToWall,
ceilVentXArea, ceilVentHeight, floorVentXArea, floorVentHeight, flowRate, releaseAngle,
_timesToPlot,
_dotMarkPressures, _dotMarkTimes, limitLinePressures, maxSimTime,
out _pressuresPerTime, out _depths, out _concentrations, out _overpressure, out _timeOfOverpressure,
out _pressurePlotFilepath, out _massPlotFilepath, out _layerPlotFilepath,
out _trajectoryPlotFilepath
);
Trace.TraceInformation("PhysInterface call complete. Displaying results..");
}
catch (Exception ex)
{
Trace.TraceError(ex.Message);
}
}