/// <summary>
/// Writes dfs0 files with head observations for the SelectedIntakes
/// Only includes data within the period bounded by Start and End
/// </summary>
/// <param name="OutputPath"></param>
public static void WriteToDfs0(string OutputPath, IIntake Intake, DateTime Start, DateTime End)
{
//Create the TSObject
TSObject _tso = new TSObjectClass();
TSItem _item = new TSItemClass();
_item.DataType = ItemDataType.Type_Float;
_item.ValueType = ItemValueType.Instantaneous;
_item.EumType = 171;
_item.EumUnit = 1;
_item.Name = Intake.ToString();
_tso.Add(_item);
DateTime _previousTimeStep = DateTime.MinValue;
//Select the observations
var SelectedObs = Intake.HeadObservations.ItemsInPeriod(Start, End);
int i = 0;
foreach (var Obs in SelectedObs)
{
//Only add the first measurement of the day
if (Obs.Time != _previousTimeStep)
{
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(i + 1, Obs.Time);
_item.SetDataForTimeStepNr(i + 1, (float)Obs.Value);
}
i++;
}
//Now write the DFS0.
if (_tso.Time.NrTimeSteps != 0)
{
_tso.Connection.FilePath = Path.Combine(OutputPath, Intake.ToString() + ".dfs0");
_tso.Connection.Save();
}
}
/// <summary>
/// Writes a dfs0 with extraction data for each active intake in every plant.
/// Also writes the textfile that can be imported by the well editor.
/// </summary>
/// <param name="OutputPath"></param>
/// <param name="Plants"></param>
/// <param name="Start"></param>
/// <param name="End"></param>
public static void WriteExtractionDFS0(string OutputPath, IEnumerable<Plant> Plants, DateTime Start, DateTime End)
{
//Create the text file to the well editor.
StreamWriter Sw = new StreamWriter(Path.Combine(OutputPath, "WellEditorImport.txt"), false, Encoding.Default);
StreamWriter Sw2 = new StreamWriter(Path.Combine(OutputPath, "WellsWithMissingInfo.txt"), false, Encoding.Default);
//Create the TSObject
TSObject _tso = new TSObjectClass();
string dfs0FileName = Path.Combine(OutputPath, "Extraction.dfs0");
_tso.Connection.FilePath = dfs0FileName;
TSItem _item;
int eumtype = 330;
int eumunit = 3;
TSObject _tsoStat = new TSObjectClass();
_tsoStat.Connection.FilePath = Path.Combine(OutputPath, "ExtractionStat.dfs0");
Dictionary<int, double> Sum = new Dictionary<int, double>();
Dictionary<int, double> SumSurfaceWater = new Dictionary<int, double>();
Dictionary<int, double> SumNotUsed = new Dictionary<int, double>();
int Pcount = 0;
int NumberOfYears = End.Year - Start.Year + 1;
//Dummy year because of mean step accumulated
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(1, new DateTime(Start.Year, 1, 1, 0, 0, 0));
for (int i = 0; i < NumberOfYears; i++)
{
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(i + 2, new DateTime(Start.Year + i, 12, 31, 12, 0, 0));
_tsoStat.Time.AddTimeSteps(1);
_tsoStat.Time.SetTimeForTimeStepNr(i + 1, new DateTime(Start.Year + i, 12, 31, 12, 0, 0));
Sum.Add(i, 0);
SumSurfaceWater.Add(i, 0);
SumNotUsed.Add(i, 0);
}
int itemCount = 1;
double[] fractions = new double[NumberOfYears];
//loop the plants
foreach (Plant P in Plants)
{
double val;
//Create statistics on surface water for all plants
for (int i = 0; i < NumberOfYears; i++)
{
if (P.SurfaceWaterExtrations.TryGetValue(Start.AddYears(i), out val))
SumSurfaceWater[i] += val;
}
//Create statistics for plants without intakes
if (P.PumpingIntakes.Count == 0)
{
//Create statistics on water not assigned
for (int i = 0; i < NumberOfYears; i++)
{
if (P.Extractions.TryGetValue(Start.AddYears(i), out val))
SumNotUsed[i] += val;
}
}
else
{
//Create statistics
for (int i = 0; i < NumberOfYears; i++)
{
if (P.Extractions.TryGetValue(Start.AddYears(i), out val))
Sum[i] += val;
}
Pcount++;
//Calculate the fractions based on how many intakes are active for a particular year.
for (int i = 0; i < NumberOfYears; i++)
{
fractions[i] = 1.0 / P.PumpingIntakes.Count(var => var.Intake.well.UsedForExtraction & var.Start.Year <= Start.Year + i & var.End.Year >= Start.Year + i);
}
//Now loop the intakes
foreach (PumpingIntake PI in P.PumpingIntakes)
{
IIntake I = PI.Intake;
//Is it an extraction well?
if (I.well.UsedForExtraction)
{
//If there is no screen information we cannot use it.
if (I.Screens.Count == 0)
Sw2.WriteLine("Well: " + I.well.ID + "\tIntake: " + I.IDNumber + "\tError: Missing info about screen depth");
else
{
//Build novanaid
string NovanaID = P.IDNumber.ToString() + "_" + I.well.ID.Replace(" ", "") + "_" + I.IDNumber;
//Build and add new item
_item = new TSItemClass();
_item.DataType = ItemDataType.Type_Float;
_item.ValueType = ItemValueType.Mean_Step_Accumulated;
_item.EumType = eumtype;
_item.EumUnit = eumunit;
_item.Name = NovanaID;
_tso.Add(_item);
//Loop the years
for (int i = 0; i < NumberOfYears; i++)
{
//Extractions are not necessarily sorted and the time series may have missing data
var k = P.Extractions.Items.FirstOrDefault(var => var.StartTime.Year == Start.Year + i);
//First year should be printed twice
if (i == 0)
{
if (k != null & PI.Start.Year <= Start.Year + i & PI.End.Year >= Start.Year + i)
_item.SetDataForTimeStepNr(1, (float)(k.Value * fractions[i]));
else
_item.SetDataForTimeStepNr(1, 0F); //Prints 0 if no data available
}
//If data and the intake is active
if (k != null & PI.Start.Year <= Start.Year + i & PI.End.Year >= Start.Year + i)
_item.SetDataForTimeStepNr(i + 2, (float)(k.Value * fractions[i]));
else
_item.SetDataForTimeStepNr(i + 2, 0F); //Prints 0 if no data available
}
//Now add line to text file.
StringBuilder Line = new StringBuilder();
Line.Append(NovanaID + "\t");
Line.Append(I.well.X + "\t");
Line.Append(I.well.Y + "\t");
Line.Append(I.well.Terrain + "\t");
Line.Append("0\t");
Line.Append(P.IDNumber + "\t");
Line.Append(I.Screens.Max(var => var.TopAsKote) + "\t");
Line.Append(I.Screens.Min(var => var.BottomAsKote) + "\t");
Line.Append(1 + "\t");
Line.Append(dfs0FileName + "\t");
Line.Append(itemCount);
Sw.WriteLine(Line.ToString());
itemCount++;
}
}
}
}
}
TSItem SumItem = new TSItemClass();
SumItem.DataType = ItemDataType.Type_Float;
SumItem.ValueType = ItemValueType.Mean_Step_Accumulated;
SumItem.EumType = eumtype;
SumItem.EumUnit = eumunit;
SumItem.Name = "Sum";
_tsoStat.Add(SumItem);
TSItem MeanItem = new TSItemClass();
MeanItem.DataType = ItemDataType.Type_Float;
MeanItem.ValueType = ItemValueType.Mean_Step_Accumulated;
MeanItem.EumType = eumtype;
MeanItem.EumUnit = eumunit;
MeanItem.Name = "Mean";
_tsoStat.Add(MeanItem);
TSItem SumNotUsedItem = new TSItemClass();
SumNotUsedItem.DataType = ItemDataType.Type_Float;
SumNotUsedItem.ValueType = ItemValueType.Mean_Step_Accumulated;
SumNotUsedItem.EumType = eumtype;
SumNotUsedItem.EumUnit = eumunit;
SumNotUsedItem.Name = "SumNotUsed";
_tsoStat.Add(SumNotUsedItem);
TSItem SumSurfaceWaterItem = new TSItemClass();
SumSurfaceWaterItem.DataType = ItemDataType.Type_Float;
SumSurfaceWaterItem.ValueType = ItemValueType.Mean_Step_Accumulated;
SumSurfaceWaterItem.EumType = eumtype;
SumSurfaceWaterItem.EumUnit = eumunit;
SumSurfaceWaterItem.Name = "SumSurfaceWater";
_tsoStat.Add(SumSurfaceWaterItem);
for (int i = 0; i < NumberOfYears; i++)
{
SumItem.SetDataForTimeStepNr(i + 1, (float)Sum[i]);
MeanItem.SetDataForTimeStepNr(i + 1, (float)Sum[i] / Pcount);
SumNotUsedItem.SetDataForTimeStepNr(i + 1, (float)SumNotUsed[i]);
SumSurfaceWaterItem.SetDataForTimeStepNr(i + 1, (float)SumSurfaceWater[i]);
}
_tsoStat.Connection.Save();
_tso.Connection.Save();
Sw.Dispose();
Sw2.Dispose();
}
/// <summary>
/// Writes dfs0 files with head observations for the SelectedIntakes
/// Only includes data within the period bounded by Start and End
/// </summary>
/// <param name="OutputPath"></param>
public static void WriteToDfs0(string OutputPath, IIntake Intake, DateTime Start, DateTime End)
{
//Create the TSObject
TSObject _tso = new TSObjectClass();
TSItem _item = new TSItemClass();
_item.DataType = ItemDataType.Type_Float;
_item.ValueType = ItemValueType.Instantaneous;
_item.EumType = 171;
_item.EumUnit = 1;
_item.Name = Intake.ToString();
_tso.Add(_item);
DateTime _previousTimeStep = DateTime.MinValue;
//Select the observations
var SelectedObs = Intake.HeadObservations.ItemsInPeriod(Start, End);
int i = 0;
foreach(var Obs in SelectedObs)
{
//Only add the first measurement of the day
if (Obs.Time != _previousTimeStep)
{
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(i + 1, Obs.Time);
_item.SetDataForTimeStepNr(i + 1, (float)Obs.Value);
}
i++;
}
//Now write the DFS0.
if (_tso.Time.NrTimeSteps != 0)
{
_tso.Connection.FilePath = Path.Combine(OutputPath, Intake.ToString() + ".dfs0");
_tso.Connection.Save();
}
}
/// <summary>
/// Writes a dfs0 with extraction data for each active intake in every plant.
/// Also writes the textfile that can be imported by the well editor.
/// </summary>
/// <param name="OutputPath"></param>
/// <param name="Plants"></param>
/// <param name="Start"></param>
/// <param name="End"></param>
public static void WriteExtractionDFS0(string OutputPath, IEnumerable <Plant> Plants, DateTime Start, DateTime End)
{
//Create the text file to the well editor.
StreamWriter Sw = new StreamWriter(Path.Combine(OutputPath, "WellEditorImport.txt"), false, Encoding.Default);
StreamWriter Sw2 = new StreamWriter(Path.Combine(OutputPath, "WellsWithMissingInfo.txt"), false, Encoding.Default);
//Create the TSObject
TSObject _tso = new TSObjectClass();
string dfs0FileName = Path.Combine(OutputPath, "Extraction.dfs0");
_tso.Connection.FilePath = dfs0FileName;
TSItem _item;
int eumtype = 330;
int eumunit = 3;
TSObject _tsoStat = new TSObjectClass();
_tsoStat.Connection.FilePath = Path.Combine(OutputPath, "ExtractionStat.dfs0");
Dictionary <int, double> Sum = new Dictionary <int, double>();
Dictionary <int, double> SumSurfaceWater = new Dictionary <int, double>();
Dictionary <int, double> SumNotUsed = new Dictionary <int, double>();
int Pcount = 0;
int NumberOfYears = End.Year - Start.Year + 1;
//Dummy year because of mean step accumulated
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(1, new DateTime(Start.Year, 1, 1, 0, 0, 0));
for (int i = 0; i < NumberOfYears; i++)
{
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(i + 2, new DateTime(Start.Year + i, 12, 31, 12, 0, 0));
_tsoStat.Time.AddTimeSteps(1);
_tsoStat.Time.SetTimeForTimeStepNr(i + 1, new DateTime(Start.Year + i, 12, 31, 12, 0, 0));
Sum.Add(i, 0);
SumSurfaceWater.Add(i, 0);
SumNotUsed.Add(i, 0);
}
int itemCount = 1;
double[] fractions = new double[NumberOfYears];
//loop the plants
foreach (Plant P in Plants)
{
double val;
//Create statistics on surface water for all plants
for (int i = 0; i < NumberOfYears; i++)
{
if (P.SurfaceWaterExtrations.TryGetValue(Start.AddYears(i), out val))
{
SumSurfaceWater[i] += val;
}
}
//Create statistics for plants without intakes
if (P.PumpingIntakes.Count == 0)
{
//Create statistics on water not assigned
for (int i = 0; i < NumberOfYears; i++)
{
if (P.Extractions.TryGetValue(Start.AddYears(i), out val))
{
SumNotUsed[i] += val;
}
}
}
else
{
//Create statistics
for (int i = 0; i < NumberOfYears; i++)
{
if (P.Extractions.TryGetValue(Start.AddYears(i), out val))
{
Sum[i] += val;
}
}
Pcount++;
//Calculate the fractions based on how many intakes are active for a particular year.
for (int i = 0; i < NumberOfYears; i++)
{
fractions[i] = 1.0 / P.PumpingIntakes.Count(var => var.Intake.well.UsedForExtraction & var.Start.Year <= Start.Year + i & var.End.Year >= Start.Year + i);
}
//Now loop the intakes
foreach (PumpingIntake PI in P.PumpingIntakes)
{
IIntake I = PI.Intake;
//Is it an extraction well?
if (I.well.UsedForExtraction)
{
//If there is no screen information we cannot use it.
if (I.Screens.Count == 0)
{
Sw2.WriteLine("Well: " + I.well.ID + "\tIntake: " + I.IDNumber + "\tError: Missing info about screen depth");
}
else
{
//Build novanaid
string NovanaID = P.IDNumber.ToString() + "_" + I.well.ID.Replace(" ", "") + "_" + I.IDNumber;
//Build and add new item
_item = new TSItemClass();
_item.DataType = ItemDataType.Type_Float;
_item.ValueType = ItemValueType.Mean_Step_Accumulated;
_item.EumType = eumtype;
_item.EumUnit = eumunit;
_item.Name = NovanaID;
_tso.Add(_item);
//Loop the years
for (int i = 0; i < NumberOfYears; i++)
{
//Extractions are not necessarily sorted and the time series may have missing data
var k = P.Extractions.Items.FirstOrDefault(var => var.StartTime.Year == Start.Year + i);
//First year should be printed twice
if (i == 0)
{
if (k != null & PI.Start.Year <= Start.Year + i & PI.End.Year >= Start.Year + i)
{
_item.SetDataForTimeStepNr(1, (float)(k.Value * fractions[i]));
}
else
{
_item.SetDataForTimeStepNr(1, 0F); //Prints 0 if no data available
}
}
//If data and the intake is active
if (k != null & PI.Start.Year <= Start.Year + i & PI.End.Year >= Start.Year + i)
{
_item.SetDataForTimeStepNr(i + 2, (float)(k.Value * fractions[i]));
}
else
{
_item.SetDataForTimeStepNr(i + 2, 0F); //Prints 0 if no data available
}
}
//Now add line to text file.
StringBuilder Line = new StringBuilder();
Line.Append(NovanaID + "\t");
Line.Append(I.well.X + "\t");
Line.Append(I.well.Y + "\t");
Line.Append(I.well.Terrain + "\t");
Line.Append("0\t");
Line.Append(P.IDNumber + "\t");
Line.Append(I.Screens.Max(var => var.TopAsKote) + "\t");
Line.Append(I.Screens.Min(var => var.BottomAsKote) + "\t");
Line.Append(1 + "\t");
Line.Append(dfs0FileName + "\t");
Line.Append(itemCount);
Sw.WriteLine(Line.ToString());
itemCount++;
}
}
}
}
}
TSItem SumItem = new TSItemClass();
SumItem.DataType = ItemDataType.Type_Float;
SumItem.ValueType = ItemValueType.Mean_Step_Accumulated;
SumItem.EumType = eumtype;
SumItem.EumUnit = eumunit;
SumItem.Name = "Sum";
_tsoStat.Add(SumItem);
TSItem MeanItem = new TSItemClass();
MeanItem.DataType = ItemDataType.Type_Float;
MeanItem.ValueType = ItemValueType.Mean_Step_Accumulated;
MeanItem.EumType = eumtype;
MeanItem.EumUnit = eumunit;
MeanItem.Name = "Mean";
_tsoStat.Add(MeanItem);
TSItem SumNotUsedItem = new TSItemClass();
SumNotUsedItem.DataType = ItemDataType.Type_Float;
SumNotUsedItem.ValueType = ItemValueType.Mean_Step_Accumulated;
SumNotUsedItem.EumType = eumtype;
SumNotUsedItem.EumUnit = eumunit;
SumNotUsedItem.Name = "SumNotUsed";
_tsoStat.Add(SumNotUsedItem);
TSItem SumSurfaceWaterItem = new TSItemClass();
SumSurfaceWaterItem.DataType = ItemDataType.Type_Float;
SumSurfaceWaterItem.ValueType = ItemValueType.Mean_Step_Accumulated;
SumSurfaceWaterItem.EumType = eumtype;
SumSurfaceWaterItem.EumUnit = eumunit;
SumSurfaceWaterItem.Name = "SumSurfaceWater";
_tsoStat.Add(SumSurfaceWaterItem);
for (int i = 0; i < NumberOfYears; i++)
{
SumItem.SetDataForTimeStepNr(i + 1, (float)Sum[i]);
MeanItem.SetDataForTimeStepNr(i + 1, (float)Sum[i] / Pcount);
SumNotUsedItem.SetDataForTimeStepNr(i + 1, (float)SumNotUsed[i]);
SumSurfaceWaterItem.SetDataForTimeStepNr(i + 1, (float)SumSurfaceWater[i]);
}
_tsoStat.Connection.Save();
_tso.Connection.Save();
Sw.Dispose();
Sw2.Dispose();
}
/// <summary>
/// Writes dfs0 files with head observations for the SelectedIntakes
/// Only includes data within the period bounded by Start and End
/// </summary>
/// <param name="OutputPath"></param>
public static void WriteToDfs0(string OutputPath, IIntake Intake, DateTime Start, DateTime End)
{
//Create the TSObject
TSObject _tso = new TSObjectClass();
TSItem _item = new TSItemClass();
_item.DataType = ItemDataType.Type_Float;
_item.ValueType = ItemValueType.Instantaneous;
_item.EumType = 171;
_item.EumUnit = 1;
_item.Name = Intake.ToString();
_tso.Add(_item);
DateTime _previousTimeStep = DateTime.MinValue;
//Select the observations
List<ObservationEntry> SelectedObs = Intake.Observations.Where(TSE => InBetween(TSE, Start, End)).ToList<ObservationEntry>();
SelectedObs.Sort();
for (int i = 0; i < SelectedObs.Count; i++)
{
//Only add the first measurement of the day
if (SelectedObs[i].Time != _previousTimeStep)
{
_tso.Time.AddTimeSteps(1);
_tso.Time.SetTimeForTimeStepNr(i + 1, SelectedObs[i].Time);
_item.SetDataForTimeStepNr(i + 1, (float)SelectedObs[i].Value);
}
}
//Now write the DFS0.
if (_tso.Time.NrTimeSteps != 0)
{
_tso.Connection.FilePath = Path.Combine(OutputPath, Intake.ToString() + ".dfs0");
_tso.Connection.Save();
}
}
static void Main(string[] args)
{
string TextFileName="";
string dfs0FileName="";
if (args.Length == 0)
{
OpenFileDialog OFD = new OpenFileDialog();
OFD.Title = "Select a text file with discharge data";
if (DialogResult.OK == OFD.ShowDialog())
TextFileName = OFD.FileName;
else
return;
SaveFileDialog SFD = new SaveFileDialog();
SFD.Title = "Select a .dfs0 file or give a new name";
SFD.Filter = "Known file types (*.dfs0)|*.dfs0";
SFD.OverwritePrompt = false;
if (DialogResult.OK == SFD.ShowDialog())
dfs0FileName = SFD.FileName;
else
return;
}
else
{
TextFileName = args[0];
dfs0FileName = args[1];
}
if (args.Length > 2 || !File.Exists(TextFileName))
{
if (DialogResult.Cancel ==
MessageBox.Show("This program needs two file names as input. If the file names contain spaces the filename should be embraced by \"\". \n Are these file names correct:? \n" + TextFileName + "\n" + dfs0FileName, "Two many arguments!", MessageBoxButtons.OKCancel))
return;
}
List<QStation> _stations = new List<QStation>();
//Loop to read the Q-stations.
using (StreamReader SR = new StreamReader(TextFileName, Encoding.Default))
{
string line;
while (!SR.EndOfStream)
{
line = SR.ReadLine();
if (line.Equals("*"))
{
QStation qs = new QStation();
qs.ReadEntryFromText(SR);
_stations.Add(qs);
}
}
}
TSObject _data = new TSObjectClass();
_data.Connection.FilePath = dfs0FileName;
TSItem I = null;
//Append to existing file
if (File.Exists(dfs0FileName))
_data.Connection.Open();
else
{
//Create new .dfs0-file and list of q-stations
using (StreamWriter SW = new StreamWriter(Path.Combine(Path.GetDirectoryName(dfs0FileName), "DetailedTimeSeriesImport.txt"),false,Encoding.Default))
{
int k = 1;
foreach (var qs in _stations)
{
//Build the TSITEMS
I = new TSItemClass();
I.DataType = ItemDataType.Type_Float;
I.ValueType = ItemValueType.Instantaneous;
I.EumType = 2;
I.EumUnit = 1;
//Provide an ITEM name following the convention by Anker
if (qs.DmuMaalerNr != "")
I.Name = qs.DmuMaalerNr;
else
I.Name = qs.DmuStationsNr.ToString();
_data.Add(I);
SW.WriteLine(I.Name + "\t" + qs.UTMX + "\t" + qs.UTMY + "\t" + k);
k++;
}
}
}
// 12 hours have been added in dfs0!
DateTime LastTimeStep = ((DateTime)_data.Time.EndTime).Subtract(new TimeSpan(12,0,0));
int TSCount = _data.Time.NrTimeSteps;
int count;
DateTime CurrentLastTimeStep = LastTimeStep;
bool ItemFound = true;
//Loop the stations from the text-file
foreach (var qs in _stations)
{
qs.Discharge.Sort();
//See if the station has newer data
if (qs.Discharge.Last().Time > LastTimeStep)
{
//Find the ITEM. First by DMUMAALERNR
try
{
I = _data.Item(qs.DmuMaalerNr);
ItemFound = true;
}
catch (ArgumentException E)
{
//Then by DMUSTATIONSNR
try
{
I = _data.Item(qs.DmuStationsNr.ToString());
ItemFound = true;
}
catch (ArgumentException E2)
{
Console.WriteLine("DMU MÅLER Nr: " + qs.DmuMaalerNr + " eller DMU sted nr: " + qs.DmuStationsNr + " blev ikke fundet i dfs0.filen");
ItemFound = false;
}
}
//Write to the item if it exists
if (ItemFound)
{
//Start at the last entry of the original
int index = qs.Discharge.FindIndex(var => var.Time > LastTimeStep);
count = 0;
//Loop all the entries
for (int i = index; i < qs.Discharge.Count; i++)
{
count++;
//Check if it is necessary to add timesteps to the tsobject
if (qs.Discharge[i].Time > CurrentLastTimeStep)
{
CurrentLastTimeStep = qs.Discharge[i].Time;
_data.Time.AddTimeSteps(1);
// 12 hours have been added in dfs0!
_data.Time.SetTimeForTimeStepNr(TSCount + count, qs.Discharge[i].Time.AddHours(12));
}
//Get the index in the time series. We cannot be sure that the times are equidistant in the textfile
int tsn = _data.Time.GetTimeStepNrAfter(qs.Discharge[i].Time);
I.SetDataForTimeStepNr(tsn, (float)qs.Discharge[i].Value);
}
}
}
}
_data.Connection.Save();
}