public Action GetSaveCommand()
{
return(() =>
{
var path = _fileHandler.GetPath(_vProject.ProjectDir);
var d = (SetFieldsAblDictData)_fileHandler.Read(path);
d.xMax = _model.xMax;
d.yMax = _model.yMax;
d.zMax = _model.zMax;
d.logInit = _model.logInit;
d.deltaU = _model.deltaU;
d.deltaV = _model.deltaV;
d.Uperiods = _model.Uperiods;
d.Vperiods = _model.Vperiods;
d.zPeak = _model.zPeak;
d.zInversion = _model.zInversion;
d.widthInversion = _model.widthInversion;
d.Tbottom = _model.Tbottom;
d.Ttop = _model.Ttop;
d.dTdz = _model.dTdz;
d.Ug = _model.Ug;
d.UgDir = _model.UgDir;
d.z0 = _model.z0;
d.kappa = _model.kappa;
d.updateInternalFields = _model.updateInternalFields;
d.updateBoundaryFields = _model.updateBoundaryFields;
_fileHandler.Write(path, d);
_model.AcceptChanges();
});
}
public Action GetSaveCommand()
{
return(() =>
{
var path = _fileHandler.GetPath(_vProject.ProjectDir);
var d = (DecomposeParDictData)_fileHandler.Read(path);
d.numberOfSubdomains = _model.ParallelProcessors;
//TODO: Mesh refinement
_fileHandler.Write(path, d);
_model.AcceptChanges();
});
}
public override void Write(string path, object data)
{
var obj = (TurbulencePropertiesData)data;
var txt = new StringBuilder(TurbulencePropertiesRes.Template);
txt.Replace("({[[simulationType]]})", obj.SimulationType.ToString());
WriteToFile(path, txt.ToString());
if (_fileHandler != null)
{
path = path.Replace("\\constant\\turbulenceProperties", "");
_fileHandler.Write(_fileHandler.GetPath(path),
(obj.SimulationType == TurbulenceModel.RASModel)
? (object)obj.RasProperties
: obj.LesProperties);
}
}
public Action GetSaveCommand()
{
return(() =>
{
foreach (var x in viewTurbineType.TurbineTypes)
{
if (x.ShowInstance != Visibility.Collapsed)
{
x.Save(_vProject.ProjectDir);
}
}
var p = new TurbineArrayPropData()
{
outputControl = viewPropArray.OutputControl,
outputInterval = viewPropArray.OutputInterval
};
foreach (var item in viewPropArray.Turbines)
{
if (item.ShowInstance != Visibility.Collapsed)
{
p.turbine.Add(new TurbineInstance()
{
azimuth = item.Azimuth,
baseLocation = new Vertice(item.BaseLocation.X,
item.BaseLocation.Y,
item.BaseLocation.Z),
turbineType = item.TurbineType,
bladeUpdateType = item.BladeUpdateType,
epsilon = item.Epsilon,
fluidDensity = item.FluidDensity,
nacYaw = item.NacYaw,
numBladePoints = item.NumBladePoints,
pitch = item.Pitch,
pointDistType = item.PointDistType,
pointInterpType = item.PointInterpType,
rotSpeed = item.RotSpeed,
rotationDir = item.RotationDir,
tipRootLossCorrType = item.TipRootLossCorrType
});
}
}
var path = _fileHandler.GetPath(_vProject.ProjectDir);
_fileHandler.Write(path, p);
});
}
public Action GetSaveCommand()
{
return(() =>
{
var path = _fileHandler.GetPath(_vProject.ProjectDir);
var d = (AblPropertiesData)_fileHandler.Read(path);
d.turbineArrayOn = _model.TurbineArrayOn;
d.driveWindOn = _model.DriveWindOn;
d.UWindSpeedDim.ScalarValue = _model.UWindSpeed;
d.UWindDir = _model.UWindDir;
d.HWindDim.ScalarValue = _model.HWind;
d.alpha = _model.Alpha;
d.lowerBoundaryName = _model.LowerBoundaryName;
d.upperBoundaryName = _model.UpperBoundaryName;
d.meanAvgStartTime = _model.MeanAvgStartTime;
d.corrAvgStartTime = _model.CorrAvgStartTime;
d.statisticsOn = _model.StatisticsOn;
d.statisticsFrequency = _model.StatisticsFrequency;
_fileHandler.Write(path, d);
_model.AcceptChanges();
});
}
public Action GetSaveCommand()
{
return(() =>
{
var path = _fileHandler.GetPath(_vProject.ProjectDir);
var d = (ControlDictData)_fileHandler.Read(path);
d.application = _model.Application;
d.startFrom = _model.StartFrom;
d.startTime = _model.StartTime;
d.stopAt = _model.StopAt;
d.endTime = _model.EndTime;
d.deltaT = _model.DeltaT;
d.writeControl = _model.WriteControl;
d.writeInterval = _model.WriteInterval;
d.purgeWrite = _model.PurgeWrite;
d.writeFormat = _model.WriteFormat;
d.writePrecision = _model.WritePrecision;
d.writeCompression = _model.WriteCompression;
d.timeFormat = _model.TimeFormat;
d.timePrecision = _model.TimePrecision;
d.runTimeModifiable = _model.IsRunTimeModifiable
? FlagYesNo.yes
: FlagYesNo.no;
d.adjustTimeStep = _model.AdjustTimeStep
? FlagYesNo.yes
: FlagYesNo.no;
d.maxCo = _model.MaxCo;
d.maxDeltaT = _model.MaxDeltaT;
// Functions
_fileHandler.Write(path, d);
_model.AcceptChanges();
});
}
public Action GetSaveCommand()
{
return(() =>
{
var path = _fileHandler.GetPath(_vProject.ProjectDir);
var d = (TransportPropertiesData)_fileHandler.Read(path);
d.betaM = _model.BetaM;
d.betaSurfaceStress = _model.BetaSurfaceStress;
d.deltaLESCoeff = _model.DeltaLESCoeff;
d.gammM = _model.GammM;
d.LESModel = _model.LESModel;
d.nu = _model.MolecularViscosity;
d.z0 = _model.RoughnessHeight;
d.Cs = _model.SmagorinskyConstant;
d.surfaceStressModel = _model.SurfaceStressModel;
d.q0 = _model.SurfaceTemperatureFlux;
d.TRef = _model.TRef;
d.transportModel = _model.TransportModel;
d.kappa = _model.VonKarmanConstant;
_fileHandler.Write(path, d);
_model.AcceptChanges();
});
}
public Action GetSaveCommand()
{
return(() =>
{
var path = _fileHandler.GetPath(_vProject.ProjectDir);
var d = new FvSchemesData(true);
foreach (var x in schemes.cInterpolation)
{
d.interpolationSchemes.Add(new InterpolationScheme()
{
scheme = x.Scheme,
use_default = (x.Scheme == "default"),
function = x.Function,
interpolation = x.InterpolationType,
view = x.BoundView,
lower_limit = (x.BoundView != BoundView.None) ? x.LowerLimit : 0,
upper_limit = (x.BoundView != BoundView.None) ? x.UpperLimit : 0,
flux = x.Flux,
psi = x.Psi
});
}
foreach (var x in schemes.cSnGrad)
{
d.snGradSchemes.Add(new SurfaceNormalGradientScheme()
{
scheme = x.Scheme,
use_default = (x.Scheme == "default"),
function = x.Function,
type = x.SurfaceNoramGradientType,
psi = x.Psi
});
}
foreach (var x in schemes.cGradient)
{
d.gradSchemes.Add(new GradientScheme()
{
scheme = x.Scheme,
use_default = (x.Scheme == "default"),
function = x.Function,
interpolation = x.InterpolationType,
discretisation = x.DiscretisationType,
limited = x.LimitedType,
psi = x.Psi
});
}
foreach (var x in schemes.cDivergence)
{
d.divSchemes.Add(new DivergenceScheme()
{
scheme = x.Scheme,
use_default = (x.Scheme == "default"),
function = x.Function,
discretisation = x.DiscretisationType,
interpolation = x.InterpolationType,
view = x.BoundView,
lower_limit = (x.BoundView != BoundView.None) ? x.LowerLimit : 0,
upper_limit = (x.BoundView != BoundView.None) ? x.UpperLimit : 0,
psi = x.Psi
});
}
foreach (var x in schemes.cLaplacian)
{
d.laplacianSchemes.Add(new LaplacianScheme()
{
scheme = x.Scheme,
use_default = (x.Scheme == "default"),
function = x.Function,
interpolation = x.InterpolationType,
discretisation = x.DiscretisationType,
snGradScheme = x.SurfaceNoramGradientType,
psi = x.Psi
});
}
foreach (var x in schemes.cTime)
{
d.ddtSchemes.Add(new TimeScheme()
{
scheme = x.Scheme,
use_default = (x.Scheme == "default"),
function = x.Function,
type = x.TimeSchemeType,
psi = x.Psi
});
}
foreach (var x in schemes.cFlux)
{
d.fluxCalculation.Add(new FluxCalculation()
{
flux = x.Flux,
enable = x.Enable
});
}
_fileHandler.Write(path, d);
schemes.AcceptChanges();
});
}
