public void EvaporateTest()
{
IsotopeWater Iw = new IsotopeWater(100);
Iw.SetIsotopeRatio(10);
TimestampSeries ts = new TimestampSeries();
ts.AddSiValue(new DateTime(2000, 1, 1), 5);
ts.AllowExtrapolation = true;
ts.ExtrapolationMethod = ExtrapolationMethods.Linear;
ts.RelaxationFactor = 1;
Iw.EvaporationConcentration = ts;
Iw.Evaporate(1);
double v1 = Iw.GetIsotopeRatio();
Iw.Evaporate(2);
double v2 = Iw.GetIsotopeRatio();
Iw.Evaporate(5);
double v5 = Iw.GetIsotopeRatio();
Iw.Evaporate(90);
double v90 = Iw.GetIsotopeRatio();
Assert.AreEqual(10.101, v1, 0.01);
Assert.AreEqual(10.309, v2, 0.01);
Assert.AreEqual(10.870, v5, 0.01);
Assert.AreEqual(500, Iw.GetIsotopeRatio(), 0.01);
}
public void TestMethod1()
{
Lake Vedsted = LakeFactory.GetLake("Vedsted Sø");
Vedsted.Depth = 5;
Vedsted.WaterLevel = 45.7;
//Create and add precipitation boundary
TimespanSeries Precipitation = new TimespanSeries();
double[] values = new double[] { 108, 83, 73, 52, 61, 86, 99, 101, 75, 108, 85, 101 };
LakeVedsted.AddMonthlyValues(Precipitation, 2007, values);
SinkSourceBoundary Precip = new SinkSourceBoundary(Precipitation);
Precip.ContactGeometry = Vedsted.SurfaceArea;
Vedsted.Sources.Add(Precip);
//Create and add evaporation boundary
TimespanSeries Evaporation = new TimespanSeries();
double[] values2 = new double[] { 4, 11, 34, 66, 110, 118, 122, 103, 61, 26, 7, 1 };
LakeVedsted.AddMonthlyValues(Evaporation, 2007, values2);
EvaporationRateBoundary eva = new EvaporationRateBoundary(Evaporation);
eva.ContactGeometry = Vedsted.SurfaceArea;
Vedsted.EvaporationBoundaries.Add(eva);
//Create and add a discharge boundary
TimestampSeries Discharge = new TimestampSeries();
Discharge.AddSiValue(new DateTime(2007, 3, 12), 6986 / TimeSpan.FromDays(365).TotalSeconds);
Discharge.AddSiValue(new DateTime(2007, 4, 3), 5894 / TimeSpan.FromDays(365).TotalSeconds);
Discharge.AddSiValue(new DateTime(2007, 4, 25), 1205 / TimeSpan.FromDays(365).TotalSeconds);
Discharge.RelaxationFactor = 1;
Discharge.AllowExtrapolation = true;
Assert.AreEqual(Discharge.GetValue(new DateTime(2007, 4, 25)), Discharge.GetValue(new DateTime(2007, 6, 25)), 0.0000001);
SinkSourceBoundary Kilde = new SinkSourceBoundary(Discharge);
Vedsted.Sources.Add(Kilde);
//Add a groundwater boundary
GroundWaterBoundary gwb = new GroundWaterBoundary(Vedsted, 1e-5, 1, 46, (XYPolygon)Vedsted.Geometry);
DateTime Start = new DateTime(2007, 1, 1);
//Add the chemicals
Chemical cl = ChemicalFactory.Instance.GetChemical(ChemicalNames.Cl);
//Tell the lake to log the chemicals
Vedsted.Output.LogChemicalConcentration(ChemicalFactory.Instance.GetChemical(ChemicalNames.IsotopeFraction));
Vedsted.Output.LogChemicalConcentration(cl);
IsotopeWater Iw = new IsotopeWater(1);
Iw.SetIsotopeRatio(10);
Iw.AddChemical(cl, 0.1);
Precip.WaterSample = Iw.DeepClone();
//Evaporate some of the water to get realistic initial conditions
Iw.Evaporate(Iw.Volume / 2);
Vedsted.SetState("Initial", Start, Iw.DeepClone());
Kilde.WaterSample = Iw.DeepClone();
Iw.Evaporate(Iw.Volume / 2);
gwb.WaterSample = Iw.DeepClone();
//Add to an engine
Model Engine = new Model();
Engine.Name = "Vedsted-opsætning";
Engine._waterBodies.Add(Vedsted);
//Set initial state
Engine.SetState("Initial", Start, new WaterPacket(1));
Engine.Save(@"c:\temp\setup.xml");
}
public DemoViewModel(string Name, XYPolygon SurfaceArea, TimespanSeries Evaporation, TimespanSeries Precipitation)
{
Calibration = 1;
_lake = new Lake(Name, SurfaceArea);
_lake.Depth = 5;
_lake.WaterLevel = 45.7;
//Create and add precipitation boundary
SinkSourceBoundary Precip = new SinkSourceBoundary(Precipitation);
Precip.ContactGeometry = _lake.SurfaceArea;
_lake.Sources.Add(Precip);
//Create and add evaporation boundary
EvaporationRateBoundary eva = new EvaporationRateBoundary(Evaporation);
eva.ContactGeometry = _lake.SurfaceArea;
_lake.EvaporationBoundaries.Add(eva);
//Create and add a discharge boundary
Discharge = new TimestampSeries();
Discharge.AddSiValue(new DateTime(2007, 3, 12), 6986 / TimeSpan.FromDays(365).TotalSeconds);
Discharge.AddSiValue(new DateTime(2007, 4, 3), 5894 / TimeSpan.FromDays(365).TotalSeconds);
Discharge.AddSiValue(new DateTime(2007, 4, 25), 1205 / TimeSpan.FromDays(365).TotalSeconds);
Discharge.RelaxationFactor = 1;
Discharge.AllowExtrapolation = true;
Discharge.Name = "Inflow";
SinkSourceBoundary Kilde = new SinkSourceBoundary(Discharge);
_lake.Sources.Add(Kilde);
//Add a groundwater boundary
GroundWaterBoundary gwb = new GroundWaterBoundary(_lake, 1e-7, 1, 46, (XYPolygon)_lake.Geometry);
_lake.GroundwaterBoundaries.Add(gwb);
DateTime Start = new DateTime(2007, 1, 1);
//Add to an engine
Engine = new Model();
Engine._waterBodies.Add(_lake);
//Set initial state
Engine.SetState("Initial", Start, new WaterPacket(1));
//Add the chemicals
Chemical cl = ChemicalFactory.Instance.GetChemical(ChemicalNames.Cl);
//Tell the lake to log the chemicals
_lake.Output.LogChemicalConcentration(ChemicalFactory.Instance.GetChemical(ChemicalNames.IsotopeFraction));
_lake.Output.LogChemicalConcentration(cl);
IsotopeWater Iw = new IsotopeWater(1);
Iw.SetIsotopeRatio(0.2);
Iw.AddChemical(cl, 0.1);
Precip.WaterSample = Iw.DeepClone();
//Evaporate some of the water to get realistic initial conditions
Iw.Evaporate(Iw.Volume / 2);
_lake.SetState("Initial", Start, Iw.DeepClone(_lake.Volume));
Kilde.WaterSample = Iw.DeepClone();
Iw.Evaporate(Iw.Volume / 2);
gwb.WaterSample = Iw.DeepClone();
}