public void GetIndexTest()
{
Model mshe = new Model(@"..\..\..\TestData\TestModelDemo.she");
int Column;
int Row;
Assert.IsTrue(mshe.GridInfo.TryGetIndex(11,11,out Column, out Row));
Assert.AreEqual(1, Column);
Assert.AreEqual(1, Row);
Assert.IsTrue(mshe.GridInfo.TryGetIndex(19, 19, out Column, out Row));
Assert.AreEqual(1, Column);
Assert.AreEqual(1, Row);
mshe.Dispose();
DFS3 heads = new DFS3(@"..\..\..\TestData\TestModelDemo.she - Result Files\TestModelDemo_3DSZ.dfs3");
Assert.AreEqual(1, heads.GetColumnIndex(11));
Assert.AreEqual(2, heads.GetColumnIndex(19));
heads.Dispose();
}
public void ConstructTest()
{
string file1 =@"..\..\..\TestData\omr4_jag_3DSZ.dfs3";
string file2 =@"..\..\..\TestData\omr4_jag_3DSZ_copy.dfs3";
File.Copy(file1, file2,true);
_dfs = new DFS3(file1);
_dfsWrite = new DFS3(file2);
}
private void Initialize(string PreProcessed3dSzFile, string PreProcessed2dSzFile)
{
//Open File with 3D data
if (System.IO.File.Exists(PreProcessed3dSzFile))
{
_PreProcessed_3DSZ = new DFS3(PreProcessed3dSzFile);
//Generate 3D properties
for (int i = 0; i < _PreProcessed_3DSZ.Items.Length; i++)
{
switch (_PreProcessed_3DSZ.Items[i].Name)
{
case "Horizontal conductivity in the saturated zone":
_horizontalConductivity = new DataSetsFromDFS3(_PreProcessed_3DSZ, i + 1);
break;
case "Vertical conductivity in the saturated zone":
_verticalConductivity = new DataSetsFromDFS3(_PreProcessed_3DSZ, i + 1);
break;
case "Transmissivity in the saturated zone":
_transmissivity = new DataSetsFromDFS3(_PreProcessed_3DSZ, i + 1);
break;
case "Specific yield in the saturated zone":
_specificYield = new DataSetsFromDFS3(_PreProcessed_3DSZ, i + 1);
break;
case "Specific storage in the saturated zone":
_specificStorage = new DataSetsFromDFS3(_PreProcessed_3DSZ, i + 1);
break;
case "Initial potential heads in the saturated zone":
_initialHeads = new DataSetsFromDFS3(_PreProcessed_3DSZ, i + 1);
break;
default: //Unknown item
break;
}
}
}
//Open File with 2D data
_prePro2D = new DFS2(PreProcessed2dSzFile);
//Generate 2D properties by looping the items
for (int i = 0; i < _prePro2D.Items.Length; i++)
{
switch (_prePro2D.Items[i].Name)
{
case "Net Rainfall Fraction":
_netRainFallFraction = new DataSetsFromDFS2(_prePro2D, i +1);
break;
case "Infiltration Fraction":
_infiltrationFraction = new DataSetsFromDFS2(_prePro2D, i +1);
break;
default: //Unknown item
break;
}
}
//Now construct the grid from the open files
_grid = new MikeSheGridInfo(_PreProcessed_3DSZ, _prePro2D);
}
public void TestMethod1()
{
DFS3 df = new DFS3(@"C:\Users\Jacob\Documents\MIKE Zero Projects\SHEPar1.she - Result Files\SHEPar1_3DSZflow.dfs3");
for (int i = 0; i < 30; i++)
{
var mat = df.GetData(i, 1);
mat[0][1, 1] = -0.5;
mat[1][1, 1] = -0.5;
df.SetData(i, 1, mat);
}
df.Dispose();
}
void v_SimulationFinished(object sender, EventArgs e)
{
Model mshe = sender as Model;
var dfs = DfsFileFactory.OpenFile(mshe.Files.SZ3DFileName);
double[] percentiles = new double[]{0.1};
string filename =Path.Combine(mshe.Files.ResultsDirectory, "SZ3D_percentiles.dfs3");
var dfsout = DfsFileFactory.CreateFile(filename, percentiles.Count());
dfsout.CopyFromTemplate(dfs);
dfs.Percentile(1, dfsout, percentiles, 80000000);
dfsout.Dispose();
DFS3 dfsout2 = new DFS3(filename);
Console.WriteLine(dfsout2.GetData(0, 1)[10, 10, 0]);
dfsout2.Dispose();
RunNext(mshe);
}
public static DFSBase OpenFile(string FileName)
{
string FileType = Path.GetExtension(FileName).ToLower();
DFSBase dfs;
switch (FileType)
{
case ".dfs0":
dfs = new DFS0(FileName);
break;
case ".dfs2":
dfs = new DFS2(FileName);
break;
case ".dfs3":
dfs = new DFS3(FileName);
break;
default:
throw new Exception("Unsupported file format: " + FileType);
}
return dfs;
}
public ExtractData(string FileName, string Dfs3FileName)
{
mShe = new Model(FileName);
DFS3 dfs = new DFS3(Dfs3FileName);
List<List<double>> wells = new List<List<double>>();
foreach (var W in mShe.ExtractionWells)
{
wells.Add(new List<double>());
}
for (int i = 0; i < dfs.NumberOfTimeSteps; i++ )
{
for (int j = 0; j < mShe.ExtractionWells.Count; j++)
{
var w = mShe.ExtractionWells[j];
wells[j].Add(dfs.GetData(i, 1)[w.Row, w.Column, w.Layer]);
}
}
}
public static DFSBase CreateFile(string FileName, int NumberOfItems)
{
string FileType = Path.GetExtension(FileName).ToLower();
DFSBase dfs;
switch (FileType)
{
case ".dfs0":
dfs = new DFS0(FileName, NumberOfItems);
break;
case ".dfs2":
dfs = new DFS2(FileName, NumberOfItems);
break;
case ".dfs3":
dfs = new DFS3(FileName, NumberOfItems);
break;
default:
throw new Exception("Unsupported file format: " + FileType);
}
return(dfs);
}
public void TimeMinTest()
{
new XElement("GridOperations");
XElement Op = new XElement("GridOperation", new XAttribute("Type", "TimeMin"),
new XElement("DFSFileName", TestDataPath + @"TestModel.she - Result Files\TestModel_3DSZflow.dfs3"),
new XElement("Items", ""),
new XElement("TimeInterval", "Year"),
new XElement("DFSOutputFileName", TestDataPath + @"TestModel.she - Result Files\YearlyMin.dfs3")
);
GridFunctions.TimeMin(Op);
DFS3 dfs = new DFS3(TestDataPath + @"TestModel.she - Result Files\YearlyMin.dfs3");
Assert.AreEqual(1, dfs.NumberOfTimeSteps);
Assert.AreEqual(5, dfs.NumberOfItems);
Assert.AreEqual(-1.601641e-007, dfs.GetData(0, 1)[24, 7, 0], 1e-10);
Assert.AreEqual(-100.7973, dfs.GetData(0, 3)[18, 11, 0], 1e-2);
dfs.Dispose();
}
public void TimeSummationTest()
{
new XElement("GridOperations");
XElement Op = new XElement("GridOperation", new XAttribute("Type", "TimeSummation"),
new XElement("DFSFileName", TestDataPath + @"TestModel.she - Result Files\TestModel_3DSZflow.dfs3"),
new XElement("Items", ""),
new XElement("TimeInterval", "Year"),
new XElement("DFSOutputFileName", TestDataPath + @"TestModel.she - Result Files\YearlySum.dfs3")
);
GridFunctions.TimeSummation(Op);
DFS3 dfs = new DFS3(TestDataPath + @"TestModel.she - Result Files\YearlySum.dfs3");
Assert.AreEqual(1, dfs.NumberOfTimeSteps);
Assert.AreEqual(5, dfs.NumberOfItems);
Assert.AreEqual(-6.925168e-007, dfs.GetData(0, 1)[25, 6, 0], 1e-10);
Assert.AreEqual(-3.86626e-005, dfs.GetData(0, 4)[21, 16, 0], 1e-8);
dfs.Dispose();
}
private void MakePlots()
{
if (!PlotsMade) //Only do this once
{
Model mShe = new Model(SheFileName);
DFS3 dfs = new DFS3(Dfs3FileName);
Item dfsI = dfs.Items[ItemNumber - 1];
string BaseFileName = System.IO.Path.ChangeExtension(Dfs3FileName, "");
int[] TimeSteps = Dfs3plotdfs0.MainWindow.ParseString(TimeStepsAsString, 0, dfs.NumberOfTimeSteps - 1);
int[] Layers = Dfs3plotdfs0.MainWindow.ParseString(LayersAsString, 0, dfs.NumberOfLayers - 1);
//Set graph headers
Header.Content = dfsI.Name;
Unit.Content = dfsI.EumQuantity.UnitAbbreviation;
//Give plot the same scale as the dfs grid
plotter.Width = plotter.Height * ((double)dfs.NumberOfColumns) / (double)dfs.NumberOfRows;
//Plot the extraction wells
EnumerableDataSource<MikeSheWell> ds = new EnumerableDataSource<MikeSheWell>(mShe.ExtractionWells);
ds.SetXMapping(var => var.X);
ds.SetYMapping(var => var.Y);
var point = new Microsoft.Research.DynamicDataDisplay.PointMarkers.CirclePointMarker();
point.Size = 10;
point.Pen = new Pen(Brushes.Black, 3);
plotter.AddLineGraph(ds, null, point, null);
//Now loop, first on time steps then on layers
foreach (int T in TimeSteps)
{
foreach (int L in Layers)
{
Header2.Content = "Time: " + dfs.TimeSteps[T].ToShortDateString() + ", Layer: " + L;
var M = dfs.GetData(T, ItemNumber)[L];
NaiveColorMap nc = new NaiveColorMap();
M.Transpose(); //Need to transpose
nc.Data = M.ToArray();
M.Transpose(); //Transpose back as this is a reference to data held in the buffer
nc.Palette = Microsoft.Research.DynamicDataDisplay.Common.Palettes.UniformLinearPalettes.RedGreenBluePalette;
var bmp = nc.BuildImage();
image.Source = bmp;
//Set the color scale
paletteControl.Palette = nc.Palette;
paletteControl.Range = nc.Data.GetMinMax();
//Set the size
var visible = new Microsoft.Research.DynamicDataDisplay.DataRect(dfs.XOrigin, dfs.YOrigin, dfs.GridSize*dfs.NumberOfColumns, dfs.GridSize * dfs.NumberOfRows);
ViewportPanel.SetViewportBounds(image, visible);
plotter.Visible = visible;
//Write the bitmap
this.UpdateLayout();
string fname = BaseFileName + "TimeStep_" +T + "_Layer_" + L;
Dfs3plotdfs0.MainWindow.SaveScreen(this, fname + ".jpg", (int)ActualWidth, (int)ActualHeight);
//Now write the ascii grid
using (StreamWriter sw = new StreamWriter(fname + ".asc"))
{
sw.Write(dfs.GetASCIIGrid(T, ItemNumber, L));
}
}
}
}
}
static void Main(string[] args)
{
string DFS3FileName = args.FirstOrDefault(var => Path.GetExtension(var).Equals(".dfs3"));
var SheFiles = args.Where(var => Path.GetExtension(var).Equals(".she"));
if (DFS3FileName == null)
{
OpenFileDialog ofd = new OpenFileDialog();
ofd.Filter = "Known file types (*.dfs3)|*.dfs3"; //Only open .dfs2-files
ofd.Title = "Select a .dfs2-file with grid codes marking the areas where timeseries should be aggregated";
if (ofd.ShowDialog() == DialogResult.OK)
DFS3FileName = ofd.FileName;
else
return;
}
if (SheFiles.Count() == 0)
{
OpenFileDialog ofd = new OpenFileDialog();
ofd.Filter = "Known file types (*.she)|*.she"; //Only open .asc-files
ofd.Title = "Select the she-files with the scenarios";
ofd.Multiselect = true;
if (ofd.ShowDialog() == DialogResult.OK)
SheFiles = ofd.FileNames;
else
return;
}
DFS3 GridFile = new DFS3(DFS3FileName);
foreach (var file in SheFiles)
{
Model M = new Model(file);
ITSObject timeseries = new TSObjectClass();
timeseries.Time.AddTimeSteps(M.Results.PhreaticHead.TimeSteps.Count());
for (int t = 0; t < M.Results.PhreaticHead.TimeSteps.Count(); t++)
{
for (int k=0;k<GridFile.NumberOfLayers;k++)
{
Dictionary<int,List<double>> AggregatedValues = new Dictionary<int,List<double>>();
for (int i =0;i< GridFile.NumberOfRows;i++)
{
for (int j=0;j<GridFile.NumberOfColumns;j++)
{
int gridcode = (int)GridFile.GetData(0,1)[i,j,k];
List<double> Values;
if(!AggregatedValues.TryGetValue(gridcode, out Values))
{
Values = new List<double>();
AggregatedValues.Add(gridcode,Values);
}
Values.Add(M.Results.PhreaticHead.TimeData(t)[i,j,k]);
}
}
foreach(var kvp in AggregatedValues)
{
}
}
timeseries.Time.SetTimeForTimeStepNr(t,M.Results.PhreaticHead.TimeSteps[t]);
timeseries.Item(0).SetDataForTimeStepNr(t,
}
}
}
public DataSetsFromDFS3(DFS3 dfsFile, int ItemNumber)
{
_dataFile = dfsFile;
_itemNumber = ItemNumber;
}
/// <summary>
/// Sums layers from a DFS3 into a DFS2
/// </summary>
/// <param name="OperationData"></param>
public static void LayerSummation(XElement OperationData)
{
string Dfs3File = OperationData.Element("DFS3FileName").Value;
string DFS2OutPut = OperationData.Element("DFS2OutputFileName").Value;
DFS3.MaxEntriesInBuffer = 1;
DFS2.MaxEntriesInBuffer = 1;
DFS3 input = new DFS3(Dfs3File);
var Items = ParseString(OperationData.Element("Items").Value, 1, input.Items.Count());
var Layers = ParseString(OperationData.Element("Layers").Value, 0, input.NumberOfLayers - 1);
DenseMatrix Sumdata = new DenseMatrix(input.NumberOfRows, input.NumberOfColumns);
//Create the output file and copy info from input file
DFS2 output = new DFS2(DFS2OutPut, Items.Count());
output.CopyFromTemplate(input);
int l = 0;
//Create the items
foreach (int j in Items)
{
int i = j - 1;
output.Items[l].EumItem = input.Items[i].EumItem;
output.Items[l].EumUnit = input.Items[i].EumUnit;
output.Items[l].Name = input.Items[i].Name;
l++;
}
for (int i = 0; i < input.NumberOfTimeSteps; i++)
{
foreach (int j in Items)
{
IMatrix3d data = input.GetData(i, j);
Sumdata = data[Layers[0]];
for (int k = 1; k < Layers.Count(); k++)
{
Sumdata = Sumdata + data[Layers[k]];
}
RecreateDeleteValues(data[Layers[0]], Sumdata, input.DeleteValue);
output.SetData(i, j, Sumdata);
}
}
input.Dispose();
output.Dispose();
}
public static void InsertPointValues(XElement OperationData)
{
string filename = OperationData.Element("DFSFileName").Value;
int Item = OperationData.Element("Item") == null ? 1 : int.Parse(OperationData.Element("Item").Value);
bool ClearValues = OperationData.Element("ClearValues") == null ? true: bool.Parse(OperationData.Element("ClearValues").Value);
List<Tuple<double, double, int, int, double>> points = new List<Tuple<double, double, int, int, double>>();
foreach (var p in OperationData.Element("Points").Elements())
{
Tuple<double, double, int, int, double> point = new Tuple<double, double, int, int, double>(
p.Element("X") == null ? -1 : double.Parse(p.Element("X").Value),
p.Element("Y") == null ? -1 : double.Parse(p.Element("Y").Value),
p.Element("Z") == null ? 0 : int.Parse(p.Element("Z").Value),
p.Element("TimeStep") == null ? 0 : int.Parse(p.Element("TimeStep").Value),
double.Parse(p.Element("Value").Value));
points.Add(point);
}
if (Path.GetExtension(filename).EndsWith("0"))
{
using (DFS0 dfs = new DFS0(filename))
{
if (ClearValues)
{
for (int i = 0; i < dfs.NumberOfTimeSteps; i++)
{
dfs.SetData(i, Item, 0);
}
}
foreach (var p in points)
{
dfs.SetData(p.Item4, Item, p.Item5);
}
}
}
else if (Path.GetExtension(filename).EndsWith("2"))
{
using (DFS2 dfs = new DFS2(filename))
{
if (ClearValues)
{
for (int i = 0; i < dfs.NumberOfTimeSteps; i++)
{
dfs.SetData(i, Item, new DenseMatrix(dfs.NumberOfRows, dfs.NumberOfColumns));
}
}
foreach (var p in points)
{
var data = dfs.GetData(p.Item4, Item);
int column = dfs.GetColumnIndex(p.Item1);
int row = dfs.GetRowIndex(p.Item2);
if (column >= 0 & row >= 0)
data[row, column] = p.Item5;
dfs.SetData(p.Item4, Item, data);
}
}
}
else if (Path.GetExtension(filename).EndsWith("3"))
{
using (DFS3 dfs = new DFS3(filename))
{
if (ClearValues)
{
for (int i = 0; i < dfs.NumberOfTimeSteps; i++)
{
dfs.SetData(i, Item, new Matrix3d(dfs.NumberOfRows, dfs.NumberOfColumns, dfs.NumberOfLayers));
}
}
foreach (var p in points)
{
var data = dfs.GetData(p.Item4, Item);
int column = dfs.GetColumnIndex(p.Item1);
int row = dfs.GetRowIndex(p.Item2);
if (column >= 0 & row >= 0)
data[row, column, p.Item3] = p.Item5;
dfs.SetData(p.Item4, Item, data);
}
}
}
}
private void Initialize3DSZFlow(string sz3dFlowFile)
{
DFS3 SZ3DFlow = new DFS3(sz3dFlowFile);
if (SZ3DFlow != null)
{
for (int i = 0; i < SZ3DFlow.Items.Length; i++)
{
switch (SZ3DFlow.Items[i].Name)
{
case "groundwater flow in x-direction":
_xflow = new DataSetsFromDFS3(SZ3DFlow, i + 1);
break;
case "groundwater flow in y-direction":
_yflow = new DataSetsFromDFS3(SZ3DFlow, i + 1);
break;
case "groundwater flow in z-direction":
_zflow = new DataSetsFromDFS3(SZ3DFlow, i + 1);
break;
case "groundwater extraction":
_groundWaterExtraction = new DataSetsFromDFS3(SZ3DFlow, i + 1);
break;
case "SZ exchange flow with river":
_sZExchangeFlowWithRiver = new DataSetsFromDFS3(SZ3DFlow, i + 1);
break;
case "SZ drainage flow from point":
_sZDrainageFlow = new DataSetsFromDFS3(SZ3DFlow, i + 1);
break;
default:
break;
}
}
}
}
public void TimeMaxTest()
{
new XElement("GridOperations");
XElement Op = new XElement("GridOperation", new XAttribute("Type", "TimeMax"),
new XElement("DFSFileName", TestDataPath + @"TestModel.she - Result Files\TestModel_3DSZflow.dfs3"),
new XElement("Items", ""),
new XElement("TimeInterval", "Year"),
new XElement("DFSOutputFileName", TestDataPath + @"TestModel.she - Result Files\YearlyMax.dfs3")
);
GridFunctions.TimeMax(Op);
DFS3 dfs = new DFS3(TestDataPath + @"TestModel.she - Result Files\YearlyMax.dfs3");
Assert.AreEqual(1, dfs.NumberOfTimeSteps);
Assert.AreEqual(2.000215e-005, dfs.GetData(0, 1)[19, 14, 0], 1e-7);
Assert.AreEqual(2.527396e-007, dfs.GetData(0, 4)[21, 17, 0],1e-9);
dfs.Dispose();
}
public DataSetsFromDFS3(DFS3 dfsFile, int ItemNumber)
{
_dataFile = dfsFile;
_itemNumber = ItemNumber;
}
private void MakePlots()
{
if (!PlotsMade) //Only do this once
{
Model mShe = new Model(SheFileName);
DFS3 dfs = new DFS3(Dfs3FileName);
Item dfsI = dfs.Items[ItemNumber - 1];
List<TimestampSeries> well_Concentration = new List<TimestampSeries>();
int[] TimeSteps = ParseString(TimeStepsAsString, 0, dfs.NumberOfTimeSteps - 1);
int[] WellNumbers = ParseString(WellsAsString, 0, mShe.ExtractionWells.Count - 1);
List<MikeSheWell> wells = new List<MikeSheWell>();
foreach (int j in WellNumbers)
wells.Add(mShe.ExtractionWells[j]);
foreach (int i in TimeSteps)
{
int k = 0;
foreach (var w in wells)
{
if (i == TimeSteps[0])
well_Concentration.Add(new TimestampSeries(w.ID, new Unit(dfsI.EumQuantity.UnitAbbreviation, 1, 0)));
well_Concentration[k].Items.Add(new TimestampValue(dfs.TimeSteps[i], (dfs.GetData(i, ItemNumber)[w.Row, w.Column, w.Layer])));
k++;
}
}
//Sets the upper title
Header.Content = dfsI.Name;
//Sets the title of the y-axis
var ytitle = new VerticalAxisTitle();
ytitle.Content = dfsI.EumQuantity.ItemDescription + " [" + dfsI.EumQuantity.UnitAbbreviation + "]";
TheChart.Children.Add(ytitle);
int l = 0;
//Loop the wells for plotting
foreach (var w in wells)
{
if (g != null)
{
TheChart.Children.Remove(g);
TheChart.FitToView();
}
var axis = new Microsoft.Research.DynamicDataDisplay.Charts.HorizontalDateTimeAxis();
TheChart.MainHorizontalAxis = axis;
TheChart.MainVerticalAxis = new Microsoft.Research.DynamicDataDisplay.Charts.VerticalAxis();
//set the data source
EnumerableDataSource<TimestampValue> ds = new EnumerableDataSource<TimestampValue>(well_Concentration[l].Items);
ds.SetXMapping(var => axis.ConvertToDouble(var.Time));
ds.SetYMapping(var => var.Value);
//create the graph
g = TheChart.AddLineGraph(ds, new Pen(Brushes.Black, 3), new PenDescription(w.ID));
//create a filename
outfile = System.IO.Path.Combine(System.IO.Path.GetDirectoryName(Dfs3FileName), "Well_No" + "_" + WellNumbers[l].ToString() + "_" + dfsI.EumQuantity.ItemDescription);
//now save to file
this.UpdateLayout();
MainWindow.SaveScreen(this, outfile + ".jpg", (int)ActualWidth, (int)ActualHeight);
//Now create the dfs0-file
using (DFS0 dfs0 = new DFS0(outfile + ".dfs0", 1))
{
dfs0.FirstItem.Name = dfsI.Name;
dfs0.FirstItem.EumItem = dfsI.EumItem;
dfs0.FirstItem.EumUnit = dfsI.EumUnit;
dfs0.FirstItem.ValueType = dfsI.ValueType;
int t = 0;
foreach (var v in well_Concentration[l].Items)
{
dfs0.InsertTimeStep(v.Time);
dfs0.SetData(t, 1, v.Value);
t++;
}
}
//Now create the text-file
using (StreamWriter sw = new StreamWriter(outfile + ".txt", false))
{
foreach (var v in well_Concentration[l].Items)
{
sw.WriteLine(v.Time + "; " + v.Value);
}
}
l++;
}
mShe.Dispose();
dfs.Dispose();
PlotsMade = true;
}
}
/// <summary>
/// Opens the necessary dfs-files and sets up the references to the properties
/// </summary>
/// <param name="fileNames"></param>
private void Initialize3DSZ(string sz3dFile)
{
SZ3D = new DFS3(sz3dFile);
if (SZ3D != null)
{
DeleteValue = SZ3D.DeleteValue;
for (int i = 0; i < SZ3D.Items.Length; i++)
{
if (SZ3D.Items[i].Name.Equals(HeadElevationString, StringComparison.OrdinalIgnoreCase))
{
_heads = new DataSetsFromDFS3(SZ3D, i + 1);
//Also create the phreatic heads;
_phreaticHead = new PhreaticPotential(_heads, _grid, SZ3D.DeleteValue);
}
}
}
}
public void CreateFile()
{
DFS3 df = new DFS3("test.dfs3", 1);
df.NumberOfColumns = 5;
df.NumberOfRows = 7;
df.NumberOfLayers = 3;
df.XOrigin = 9000;
df.YOrigin = 6000;
df.Orientation = 1;
df.GridSize = 15;
df.TimeOfFirstTimestep = DateTime.Now;
df.TimeStep = TimeSpan.FromHours(2);
df.FirstItem.Name = "SGS Kriged dyn. corr.precip";
df.FirstItem.EumItem = eumItem.eumIPrecipitationRate;
df.FirstItem.EumUnit = eumUnit.eumUmillimeterPerDay;
Matrix3d m3 = new Matrix3d(df.NumberOfRows, df.NumberOfColumns, df.NumberOfLayers);
m3[0] = new DenseMatrix(df.NumberOfRows, df.NumberOfColumns);
m3[1] = new DenseMatrix(df.NumberOfRows, df.NumberOfColumns, 3);
m3[2] = new DenseMatrix(df.NumberOfRows, df.NumberOfColumns, 2);
m3[3, 4,0] = 25;
df.SetData(0,1,m3);
m3[3, 4, 0] = 24;
m3[3, 4, 1] = 100;
m3[3, 4, 2] = 110;
df.SetData(1,1,m3);
df.Dispose();
df = new DFS3("test.dfs3");
Assert.AreEqual(eumItem.eumIPrecipitationRate, df.FirstItem.EumItem);
Matrix m2 = df.GetData(0, 1)[0];
Assert.AreEqual(25, m2[3, 4]);
}