public DCAPSTModel(
ISolarGeometry solar,
ISolarRadiation radiation,
ITemperature temperature,
IPathwayParameters pathway,
ICanopyAttributes canopy,
Transpiration trans
)
{
Solar = solar;
Radiation = radiation;
Temperature = temperature;
this.pathway = pathway;
Canopy = canopy;
transpiration = trans;
}
public double GetAnnualAvgTranspiration()
{
return(Transpiration.Sum() / ((float)Counts.Sum() / 365.25));
}
public List <double> GetMonthlyAvgTranspiration()
{
return(Transpiration.Select(x => x / (((double)Counts[Transpiration.IndexOf(x)]) / 365.25 * 12.0)).ToList());
}
public double GetTotalTranspiration()
{
return(Transpiration.Sum());
}
/// <summary>
///
/// </summary>
/// <param name="CP"></param>
/// <param name="PP"></param>
/// <param name="DOY"></param>
/// <param name="latitude"></param>
/// <param name="maxT"></param>
/// <param name="minT"></param>
/// <param name="radn"></param>
/// <param name="rpar"></param>
/// <returns></returns>
public static DCAPSTModel SetUpModel(
ICanopyParameters CP,
IPathwayParameters PP,
int DOY,
double latitude,
double maxT,
double minT,
double radn,
double rpar)
{
// Model the solar geometry
var SG = new SolarGeometry
{
Latitude = latitude.ToRadians(),
DayOfYear = DOY
};
// Model the solar radiation
var SR = new SolarRadiation(SG)
{
Daily = radn,
RPAR = rpar
};
// Model the environmental temperature
var TM = new Temperature(SG)
{
MaxTemperature = maxT,
MinTemperature = minT,
AtmosphericPressure = 1.01325
};
// Model the pathways
var SunlitAc1 = new AssimilationPathway(CP, PP);
var SunlitAc2 = new AssimilationPathway(CP, PP);
var SunlitAj = new AssimilationPathway(CP, PP);
var ShadedAc1 = new AssimilationPathway(CP, PP);
var ShadedAc2 = new AssimilationPathway(CP, PP);
var ShadedAj = new AssimilationPathway(CP, PP);
// Model the canopy
IAssimilation A;
if (CP.Type == CanopyType.C3)
{
A = new AssimilationC3(CP, PP);
}
else if (CP.Type == CanopyType.C4)
{
A = new AssimilationC4(CP, PP);
}
else
{
A = new AssimilationCCM(CP, PP);
}
var sunlit = new AssimilationArea(SunlitAc1, SunlitAc2, SunlitAj, A);
var shaded = new AssimilationArea(ShadedAc1, ShadedAc2, ShadedAj, A);
var CA = new CanopyAttributes(CP, PP, sunlit, shaded);
// Model the transpiration
var WI = new WaterInteraction(TM);
var TR = new TemperatureResponse(CP, PP);
var TS = new Transpiration(CP, PP, WI, TR);
// Model the photosynthesis
var DM = new DCAPSTModel(SG, SR, TM, PP, CA, TS)
{
B = 0.409
};
return(DM);
}
/*!
* Executes the crop sequence calculation.
*
* \author Hunstock
* \date 06.04.2017
*
* \param start The start Date/Time for calculation.
* \param end The end Date/Time for calculation.
* \param [in,out] etArgs The arguments for evaporation, transpiration and irrigation calculation.
* \param [in,out] irrigationAmount The irrigation amounts. Here can be a modified CropSequenceResult passed.
* \param dryRun true to dry run and calculate the irrgation demand, false to real irrigate.
*
* \return A CropSequenceResult, the irrigation demand, formatted for use in MIKE-Basin by DHI-WASY.
*/
public CropSequenceResult runCropSequence(DateTime start, DateTime end, ref ETArgs etArgs, ref CropSequenceResult irrigationAmount, bool dryRun = false)
{
//measure calculation duration
Stopwatch stopWatch = new Stopwatch();
stopWatch.Start();
CropSequenceResult localMbResult = new CropSequenceResult();
if (irrigationAmount == null)
{
irrigationAmount = new CropSequenceResult();
}
IList <CropSequenceValues> csPart = getCropSequence(start);
foreach (CropSequenceValues cs in csPart)
{
String _csIndex = csIndex(cs);
ETArgs tmpArgs = MergeArgs(ref etArgs, cs);
tmpArgs.start = start;
tmpArgs.end = end;
if (tmpArgs.plant == null)
{
Debug.WriteLine("no plant for cropSequence: " + _csIndex + " skipping sequence " + start.ToString());
continue;
}
ETResult tmpResult = null;
if (_results.ContainsKey(_csIndex))
{
tmpResult = _results[_csIndex];
}
if (dryRun)
{
if (tmpResult != null)
{
tmpResult = new ETResult(tmpResult);
tmpResult.autoIrrigation = 0;
tmpResult.autoNetIrrigation = 0;
tmpResult.interceptionAutoIrr = 0;
}
Transpiration.ETCalc(ref tmpArgs, ref tmpResult, dryRun);
}
else
{
if (irrigationAmount.networkIdIrrigationDemand.ContainsKey(_csIndex))
{
//Debug.WriteLine("found irrigation: " + csIndex + ": " + mbResult.networkIdIrrigationDemand[csIndex].ToString());
//FIXME: convert irrigation to schedule and add to tmpArgs
DateTime startMin = new DateTime(Math.Max(tmpArgs.seedDate.Ticks, tmpArgs.start != null ? ((DateTime)tmpArgs.start).Ticks : 0));
DateTime endMax = new DateTime(Math.Min(tmpArgs.harvestDate.Ticks, tmpArgs.end != null ? ((DateTime)tmpArgs.end).Ticks : 0));
TimeSpan scheduleLength = endMax.Subtract(startMin);
DateTime scheduleMid = startMin.AddMinutes(scheduleLength.TotalMinutes / 2);
if (tmpArgs.irrigationSchedule == null)
{
if (cs.irrigationType == null)
{
tmpArgs.irrigationSchedule = new IrrigationSchedule(cs.autoIrrigation.type);
tmpArgs.autoIrr.type = cs.autoIrrigation.type;
}
else
{
tmpArgs.irrigationSchedule = new IrrigationSchedule(cs.irrigationType);
}
tmpArgs.irrigationSchedule.schedule.Add(scheduleMid, irrigationAmount.networkIdIrrigationDemand[_csIndex].irrigationDemand.amount);
}
}
Transpiration.ETCalc(ref tmpArgs, ref tmpResult, dryRun);
_results[_csIndex] = tmpResult;
}
if (localMbResult.networkIdIrrigationDemand.ContainsKey(_csIndex))
{
localMbResult.networkIdIrrigationDemand[_csIndex].irrigationDemand.surfaceWater.amount += tmpResult.autoNetIrrigation;
}
else
{
localMbResult.networkIdIrrigationDemand[_csIndex] = new CropSequenceFieldResult();
localMbResult.networkIdIrrigationDemand[_csIndex].area = cs.area;
localMbResult.networkIdIrrigationDemand[_csIndex].fieldId = cs.fieldId;
localMbResult.networkIdIrrigationDemand[_csIndex].networkId = cs.networkId;
localMbResult.networkIdIrrigationDemand[_csIndex].waterRights = cs.waterRights;
localMbResult.networkIdIrrigationDemand[_csIndex].irrigationDemand = new IrrigationAmount(surfaceWaterAmount: tmpResult.autoNetIrrigation);
}
localMbResult.error += tmpResult.error;
}
stopWatch.Stop();
TimeSpan ts = stopWatch.Elapsed;
// Format and display the TimeSpan value.
String elapsedTime = String.Format("{0:00}:{1:00}:{2:00}.{3:000}",
ts.Hours, ts.Minutes, ts.Seconds,
ts.Milliseconds);
Debug.WriteLine("runCropSequence took " + elapsedTime + " start: " + start.ToString("yyyy-MM-dd") + " end: " + end.ToString("yyyy-MM-dd"));
localMbResult.runtimeMs = stopWatch.ElapsedMilliseconds;
return(localMbResult);
}