/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
List <string> _buildingFiles = new List <string>();
int _val_ = 0;
bool runIt_ = false;
DA.GetDataList(0, _buildingFiles);
DA.GetData(1, ref _val_);
DA.GetData(2, ref runIt_);
// Unwrap variables
var variables = BuildingOutputTypeMapping();
if (runIt_)
{
DataTree <string> valueTree = new DataTree <string>();
DataTree <string> dateTree = new DataTree <string>();
DataTree <string> timeTree = new DataTree <string>();
DataTree <BuldingDatVariable> variableNameTree = new DataTree <BuldingDatVariable>();
// Warning!
if (_val_ >= variables.Count)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "Variable is out of range, check description of the input.");
return;
}
//TO DO: Generic class for csv method
for (int i = 0; i < _buildingFiles.Count; i++)
{
GHD.GH_Path pth = new GHD.GH_Path(i);
valueTree.AddRange(ReceptorOutput.GetValueFromCsv(_buildingFiles[i], (int)variables[_val_]), pth);
dateTree.AddRange(ReceptorOutput.GetValueFromCsv(_buildingFiles[i], (int)BuldingDatVariable.Date), pth);
timeTree.AddRange(ReceptorOutput.GetValueFromCsv(_buildingFiles[i], (int)BuldingDatVariable.Time), pth);
variableNameTree.Add(variables[_val_], pth);
}
DA.SetDataTree(0, variableNameTree);
DA.SetDataTree(1, dateTree);
DA.SetDataTree(2, timeTree);
DA.SetDataTree(3, valueTree);
}
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
List <string> _receptorPath = new List <string>();
int _receptorHeightIndex_ = 0;
int _val_ = 0;
bool runIt_ = false;
DA.GetDataList(0, _receptorPath);
DA.GetData(1, ref _receptorHeightIndex_);
DA.GetData(2, ref _val_);
DA.GetData(3, ref runIt_);
// Unwrap variables
var variables = ReceptorOutputTypeMapping(_value);
if (_value == ReceptorFileType.SOIL)
{
Params.Input[1].Name = "_receptorHeightIndex_";
Params.Input[1].NickName = "_receptorHeightIndex_";
Params.Input[1].Description = "Use this index to a get value at different height. Value depends on your model.";
Params.Input[2].Name = "_soilVariable_";
Params.Input[2].NickName = "_soilVariable_";
Params.Input[2].Description = "Connect a number:\n0 = Temperature °C\n1= VolumeWaterContent m3/m-3\n2 = TemperatureDiffusifity *10e6";
Params.Output[0].Description = "Negative height (cm).";
}
else if (_value == ReceptorFileType.FLUX)
{
Params.Input[1].Name = "-";
Params.Input[1].NickName = "-";
Params.Input[1].Description = "-";
_receptorHeightIndex_ = 0;
Params.Output[0].Description = "Height of measure (m).";
Params.Input[2].Name = "_fluxVariable_";
Params.Input[2].NickName = "_fluxVariable_";
Params.Input[2].Description = "Connect a number:\n0 = SurfaceTemperature °C\n" +
"1 = ChangeSurfaceTemperature °C/h\n" +
"2 = SurfaceHumidity g/kg\n" +
"3 = HorizontalWindSpeedaboveSurface m/s\n" +
"4 = VerticalComponentWindSpeedaboveSurfaceZ m/s\n" +
"5 = AirTemperatureofGridPoint °C\n" +
"6 = SensibleHeatFlux W/m²\n" +
"7 = LatentHeatFlux W/m²\n" +
"8 = SoilHeatFlux W/m²\n" +
"9 = MasSExchangeCoefficient m²/s\n" +
"10 = TurbulentExchangeCoefficient m²/s\n" +
"11 = MaxDirectShortwaverRadiation W/m²\n" +
"12 = MaxDiffuseShortwaveRadiation W/m²\n" +
"13 = MaxReflectedShortwaveRadiation W/m²\n" +
"14 = LongwaveRadiationBudgetSrf W/m²";
}
else
{
Params.Input[1].Name = "_receptorHeightIndex_";
Params.Input[1].NickName = "_receptorHeightIndex_";
Params.Input[1].Description = "Use this index to a get value at different height. Value depends on your model..";
Params.Input[2].Name = "_atmosphereVariable_";
Params.Input[2].NickName = "_atmosphereVariable_";
Params.Output[0].Description = "Height of measure (m).";
Params.Input[2].Description = "Connect a number:\n0 = WindSpeed m/s\n" +
"1 = WindDirection °\n" +
"2 = AirTemperature °C\n" +
"3 = DiffTemperature °C/h\n" +
"4 = SpecificHumidity g/kg\n" +
"5 = RelativeHumidity %\n" +
"6 = VerticalExchangeCoefficient m²/s\n" +
"7 = VerticalKmNormed -\n" +
"8 = HorizontalExchangeCoefficient m²/s\n" +
"9 = TurbulentKineticEnergy m²/s²\n" +
"10 = DissipationTKE m³/s²\n" +
"11 = MeanRadiantTemperature °C\n" +
"12 = LeafAreaDensity m²/m³\n" +
"13 = LeafFoliageTemperature °C\n" +
"14 = SensibleHeatFluxFromLeaf W/m²2\n" +
"15 = LatentHeatFluxFromLeaf W/m²2\n" +
"16 = StomataResistance m/s\n" +
"17 = CO2 mg/m³\n" +
"18 = CO2Flux mg/(kg*s)\n" +
"19 = ShortwaveDirectRadiation W/m²\n" +
"20 = ShortwaveDiffuseRadiation W/m²\n" +
"21 = PressurePerturbation Pa\n" +
"22 = MassConcentration mg/m³\n" +
"23 = MechanicalProductionTKE -\n" +
"24 = AirTemperatureChangeLongwave K/h\n" +
"25 = SkyViewFactorBuilding\n -" +
"26 = SkyViewFactorBuildingLeaf -";
}
if (runIt_)
{
DataTree <string> valueTree = new DataTree <string>();
DataTree <string> dateTree = new DataTree <string>();
DataTree <string> timeTree = new DataTree <string>();
// Warning!
if (_val_ >= variables.Count)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "Variable is out of range, check description of the input.");
return;
}
double receptorHeight = 0;
for (int i = 0; i < _receptorPath.Count; i++)
{
IEnumerable <string> files = ReceptorOutput.GetAllReceptorFiles(_receptorPath[i], _value);
List <string> selectedValues = new List <string>();
GHD.GH_Path pth = new GHD.GH_Path(i);
if (_value != ReceptorFileType.FLUX)
{
foreach (string f in files)
{
// Warning
if (_receptorHeightIndex_ >= ReceptorOutput.GetValueFromCsv(f, (int)ReceptorAtmosphereVariable.Z).Count)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "Z Index does not exist.");
return;
}
string val = ReceptorOutput.GetValueFromCsv(f, variables[_val_])[_receptorHeightIndex_];
if (val == SOIL_NULL)
{
val = ZERO;
}
selectedValues.Add(val);
dateTree.Add(ReceptorOutput.GetValueFromCsv(f, (int)ReceptorAtmosphereVariable.Date)[_receptorHeightIndex_], pth);
timeTree.Add(ReceptorOutput.GetValueFromCsv(f, (int)ReceptorAtmosphereVariable.Time)[_receptorHeightIndex_], pth);
receptorHeight = Convert.ToDouble(ReceptorOutput.GetValueFromCsv(f, (int)ReceptorAtmosphereVariable.Z)[_receptorHeightIndex_]);
}
valueTree.AddRange(selectedValues, pth);
}
else
{
foreach (string f in files)
{
valueTree.AddRange(ReceptorOutput.GetValueFromCsv(f, variables[_val_]), pth);
dateTree.AddRange(ReceptorOutput.GetValueFromCsv(f, (int)ReceptorAtmosphereVariable.Date), pth);
timeTree.AddRange(ReceptorOutput.GetValueFromCsv(f, (int)ReceptorAtmosphereVariable.Time), pth);
}
}
}
DA.SetData(0, receptorHeight);
DA.SetDataTree(1, dateTree);
DA.SetDataTree(2, timeTree);
DA.SetDataTree(3, valueTree);
}
}