public int MathInsert(MathModel model)
{
int mathId = 0;
using (SqlConnection conn = new SqlConnection(ConfigurationManager.ConnectionStrings["DefaultConnection"].ConnectionString))
{
conn.Open();
using (SqlCommand cmd = new SqlCommand("dbo.UsersMath_Insert", conn))
{
cmd.CommandType = System.Data.CommandType.StoredProcedure;
cmd.Parameters.AddWithValue("@UserId", model.UserId);
cmd.Parameters.AddWithValue("@Easy", model.Easy);
cmd.Parameters.AddWithValue("@Medium", model.Medium);
cmd.Parameters.AddWithValue("@Hard", model.Hard);
SqlParameter parm = new SqlParameter("@Id", SqlDbType.Int);
parm.Direction = ParameterDirection.Output;
cmd.Parameters.Add(parm);
cmd.ExecuteNonQuery();
mathId = (int)cmd.Parameters["@Id"].Value;
};
conn.Close();
}
return(mathId);
}
public void TestFuncX8_A16_EV6_928()
{
double x = 8;
double a = 16;
double ExpectedValue = 6.928;
Assert.AreEqual(ExpectedValue, Math.Round(MathModel.GetFunc(x, a), 3));
}
public ActionResult SimpleMath()
{
ViewBag.title = "Simple Math";
MathModel m = new MathModel();
m.Result = 0;
return(View(m));
}
public void TestFuncX16_A16_EV0()
{
double x = 16;
double a = 16;
double ExpectedValue = 0;
Assert.AreEqual(ExpectedValue, Math.Round(MathModel.GetFunc(x, a), 3));
}
public void TestFuncX20_A16_EVNaN()
{
double x = 20;
double a = 16;
double ExpectedValue = double.NaN;
Assert.AreEqual(ExpectedValue, Math.Round(MathModel.GetFunc(x, a), 3));
}
public void Insert(MathModel mathModel)
{
_experiments.Add(nameof(MathModel.SynthesizedModelInLpFormat), mathModel.SynthesizedModelInLpFormat);
_experiments.Add(nameof(MathModel.ReferenceModelInLpFormat), mathModel.ReferenceModelInLpFormat);
_mathModels.Add(nameof(MathModel.SynthesizedModelInLpFormat), mathModel.SynthesizedModelInLpFormat);
_mathModels.Add(nameof(MathModel.ReferenceModelInLpFormat), mathModel.ReferenceModelInLpFormat);
}
public void Log(MathModel mathModel)
{
_logBuilder.AppendLine("================= REFERENCE MODEL ==================");
_logBuilder.AppendLine(mathModel.ReferenceModelInLpFormat);
_logBuilder.AppendLine("====================================================");
_logBuilder.AppendLine("================ SYNTHESIZED MODEL =================");
_logBuilder.AppendLine(mathModel.SynthesizedModelInLpFormat);
_logBuilder.AppendLine("====================================================");
}
private static void GetArguements(NodeClass node)
{
while (true)
{
Console.WriteLine("Enter a <http port> <1st Number> <2nd Number> Or to get all services write `GETALL` command");
string commandString = Console.ReadLine();
if (commandString == Command.EXIT)
{
break;
}
if (commandString == Command.GETALL)
{
GetAllServices(node);
continue;
}
string[] command = commandString.Split(" ");
if (command.Length != 3)
{
continue;
}
string communicatePort = GetPortOfService(node, command[0]);
Console.WriteLine($"#{communicatePort}#");
if (String.IsNullOrEmpty(communicatePort))
{
Console.WriteLine($"Not found communicate port for {command[0]}: ({communicatePort})");
continue;
}
MathModel mathModel = new MathModel
{
Value1 = Int32.Parse(command[1]),
Value2 = Int32.Parse(command[2])
};
string serializedMathModel = JsonConvert.SerializeObject(mathModel);
string url = $"http://127.0.0.1:{communicatePort}/api/values";
StringContent stringContent = CreateStringContent(serializedMathModel);
using (HttpClient httpClient = new HttpClient())
{
httpClient.DefaultRequestHeaders.Accept.Add(new MediaTypeWithQualityHeaderValue("text/plain"));
using (HttpResponseMessage response = httpClient.PostAsync(url, stringContent).Result)
using (HttpContent content = response.Content)
{
Console.WriteLine(content.ReadAsStringAsync().Result);
}
}
}
}
public IActionResult Index()
{
MathModel mm = new MathModel();
mm.Cities = new List <string>()
{
"Warszawa", "Praga", "Moskwa", "Madryt"
};
return(View(mm));
}
public Math(MathModel model, ExecutionEngine logic)
{
this.create = () =>
{
var left = logic.Operators.CreateFrom(model.Left);
var right = logic.Operators.CreateFrom(model.Right, left.Expression.Type);
return(Expression.MakeBinary(model.Operation, left.Expression, right.Expression));
};
}
[HttpPost] // POST Request
public ActionResult SimpleMath(MathModel model)
{
ViewBag.title = "Simple Math";
if (ModelState.IsValid)
{
decimal v1 = model.FirstNumber; // Input Text
decimal v2 = model.SecondNumber; // Input Text
model.Result = v1 + v2; // Output
}
return(View(model)); // Returing here
}
public IActionResult Index(MathModel mm)
{
// if (ModelState.IsValid) {
mm.Result = mm.A + mm.B;
return(View(mm));
// }
// else {
// return View(mm);
// }
}
public void Calc_IncompleteMathModelException()
{
//arrange
MathModel model = new MathModel();
uint stepCount = 10;
model.Expressions.Add(new MathModelExpression("s = t * v"));
model.Expressions.Add(new MathModelExpression("t = 1"));
Assert.ThrowsException <IncompleteMathModelException>(() => calculator.Calc(model, stepCount));
}
public HttpResponseMessage MathInsert(MathModel model)
{
try
{
MathService svc = new MathService();
ItemResponse <int> resp = new ItemResponse <int>();
resp.Item = svc.MathInsert(model);
return(Request.CreateResponse(HttpStatusCode.OK, resp));
}
catch (Exception e)
{
return(Request.CreateErrorResponse(HttpStatusCode.BadRequest, e.Message));
}
}
public void Calc_TrivialSolution()
{
//arrange
MathModel model = new MathModel();
uint stepCount = 10;
model.Expressions.Add(new MathModelExpression("s = t * v"));
model.Expressions.Add(new MathModelExpression("t = 1"));
model.Expressions.Add(new MathModelExpression("v = 0"));
var resutls = calculator.Calc(model, stepCount);
Assert.AreEqual(Convert.ToInt32(stepCount + 1), resutls["s"].Count, "Each step should result in an entry. Additional to the start value there will be n + 1 entries.");
Assert.IsTrue(resutls["s"].All(entry => entry.Equals(0)), "Each result item must be calculated correctly.");
}
public IActionResult Index([Bind("addAnswer", "subAnswer", "divAnswer", "multiplyAnswer", "multipleNumbAnswer", "piAnswer", "sumAnswer")] MathModel mathobj)
{
addNumbers(mathobj.addAnswer, mathobjpublic.mulNumb1, mathobjpublic.mulNumb2);
subNumbers(mathobj.subAnswer, mathobjpublic.subNumb1, mathobjpublic.subNumb2);
divNumbers(mathobj.divAnswer, mathobjpublic.divNumb1, mathobjpublic.divNumb2);
multiplyNumbers(mathobj.multiplyAnswer, mathobjpublic.addNumb1, mathobjpublic.addNumb2);
//multipleNumbers(mathobj.multipleNumbAnswer);
int [] array = RemoveCommasFromStringOfNumbers(mathobj.multipleNumbAnswer);
CheckOddAndEvenNumbers(array);
piSymbol(mathobj.piAnswer.ToLower(), mathobjpublic.piCorrect.ToLower());
sumSymbol(mathobj.sumAnswer.ToLower(), mathobjpublic.sumCorrect.ToLower());
ViewBag.score = score;
return(View("Results"));
}
private ModelParams modParams; //Parametry modelu
//------
public Solver(ModelParams modParams, MathModel model)
{
this.model = model;
this.modParams = modParams;
//---
this.hc = 0.00001;
this.varSize = modParams.Size;
this.vars1 = new double[varSize];
this.vars2 = new double[varSize];
this.derivSys = new double[varSize];
this.vecSys = new double[varSize];
//copy initial conditions array to vars1 and vars2 arrays
for (int i = 0; i < varSize; i++)
{
vars1[i] = modParams.InitCondit[i];
vars2[i] = modParams.InitCondit[i];
}
}
public Visualization PreparePlots(IList <Point> testPoints, MathModel mathModel)
{
var positiveTestPoints = testPoints.Where(tp => tp.ClassificationType == ClassificationType.Positive).ToList();
var negativeTestPoints = testPoints.Where(tp => tp.ClassificationType == ClassificationType.Negative).ToList();
AddNextPlot("Reference model - Test points", _plotWidth, _plotHeight, _yAxisMin, _yAxisMax, _xAxisMin, _xAxisMax);
AddPoints(positiveTestPoints, OxyColors.Green);
AddPoints(negativeTestPoints, OxyColors.DarkRed);
AddConstraints(mathModel.ReferenceModel, OxyPalettes.Rainbow, xMin: mathModel.Domains[0].LowerLimit,
xMax: mathModel.Domains[0].UpperLimit);
AddNextPlot("Synthesized model - Test points", _plotWidth, _plotHeight, _yAxisMin, _yAxisMax, _xAxisMin, _xAxisMax);
AddPoints(positiveTestPoints, OxyColors.Green);
AddPoints(negativeTestPoints, OxyColors.DarkRed);
AddConstraints(mathModel.SynthesizedModel, OxyPalettes.Rainbow, xMin: mathModel.Domains[0].LowerLimit,
xMax: mathModel.Domains[0].UpperLimit);
return(this);
}
public void Calc_LinearEquation()
{
//arrange
MathModel model = new MathModel();
uint stepCount = 10;
model.Expressions.Add(new MathModelExpression("s = t * v"));
model.Expressions.Add(new MathModelExpression("t = t + dt"));
model.Expressions.Add(new MathModelExpression("v = 1"));
model.Expressions.Add(new MathModelExpression("t = 0"));
model.Expressions.Add(new MathModelExpression("dt = 1"));
//act
var resutls = calculator.Calc(model, stepCount);
//assert
Assert.AreEqual(Convert.ToInt32(stepCount + 1), resutls["s"].Count, "Each step should result in an entry. Additional to the start value there will be n + 1 entries.");
Assert.IsTrue(resutls["s"].All(entry => !entry.Equals(double.NaN) && !entry.Equals(double.NaN)), "Each result item must be valid.");
}
//public IList<Constraint> GetSynthesizedModel()
//{
// return SynthesizedModel;
//}
//public IList<Constraint> GetReferenceModel()
//{
// return Benchmark.Constraints;
//}
public virtual MathModel SynthesizeModel(Point[] trainingPoints)
{
var offspringPopulationSize = ExperimentParameters.OffspringPopulationSize;
var numberOfGenerations = ExperimentParameters.NumberOfGenerations;
Evaluator.PositivePoints = trainingPoints.Where(tp => tp.ClassificationType == ClassificationType.Positive).ToArray();
Evaluator.NegativePoints = trainingPoints.Where(tp => tp.ClassificationType == ClassificationType.Negative).ToArray();
BasePopulation = PopulationGenerator.GeneratePopulation(ExperimentParameters);
for (var i = 0; i < offspringPopulationSize; i++)
{
OffspringPopulation[i] = new Solution(ExperimentParameters);
}
InitialPopulation = BasePopulation.DeepCopyByExpressionTree();
Stoper.Restart();
for (var i = 0; i < numberOfGenerations; i++)
{
Evolve(offspringPopulationSize);
}
Stoper.Stop();
Statistics.TotalEvolutionTime = Stoper.Elapsed;
Statistics.MeanSingleGenerationEvolutionTime = TimeSpan.FromTicks(Statistics.TotalEvolutionTime.Ticks / numberOfGenerations);
Stoper.Restart();
SynthesizedModel = RedundantConstriantsRemover.ApplyProcessing(BasePopulation.First().GetConstraints(ExperimentParameters));
Stoper.Stop();
Statistics.RedundantConstraintsRemovingTime = Stoper.Elapsed;
Statistics.TotalSynthesisTime = Statistics.TotalEvolutionTime + Stoper.Elapsed;
Stoper.Reset();
MathModel = new MathModel(SynthesizedModel, Benchmark);
return(MathModel);
}
public void Calc_MultipleUsage()
{
//arrange
MathModel model = new MathModel();
uint stepCount = 1;
model.Expressions.Add(new MathModelExpression("s = t * v"));
model.Expressions.Add(new MathModelExpression("t = 2"));
model.Expressions.Add(new MathModelExpression("v = 1"));
var results = calculator.Calc(model, stepCount);
Assert.AreEqual(Convert.ToInt32(stepCount + 1), results["s"].Count, "Each step should result in an entry. Additional to the start value there will be n + 1 entries.");
Assert.IsTrue(results["s"].All(entry => entry.Equals(2)), "Each result item must be calculated correctly.");
MathModel model2 = new MathModel();
uint stepCount2 = 1;
model2.Expressions.Add(new MathModelExpression("s = t * v"));
model2.Expressions.Add(new MathModelExpression("t = 2"));
model2.Expressions.Add(new MathModelExpression("v = 5"));
var results2 = calculator.Calc(model2, stepCount2);
Assert.AreEqual(Convert.ToInt32(stepCount2 + 1), results["s"].Count, "Calling the calculator twice with different step count should led to the use of the new count only.");
Assert.IsTrue(results2["s"].All(entry => entry.Equals(10)), "Each result item must be calculated correctly, when the calculator got a new math model. (All global paramater should be reset.)");
MathModel model3 = new MathModel();
uint stepCount3 = 1;
model3.Expressions.Add(new MathModelExpression("s = t * v"));
model3.Expressions.Add(new MathModelExpression("t = 0"));
model3.Expressions.Add(new MathModelExpression("v = 0"));
var results3 = calculator.Calc(model3, stepCount3);
Assert.AreEqual(Convert.ToInt32(stepCount3 + 1), results["s"].Count, "Calling the calculator with new step count should always lead to the usage of the latest counter.");
Assert.IsTrue(results3["s"].All(entry => entry.Equals(0)), "Each result item must be calculated correctly, when the calculator got another new math model. (All global paramater should be reset.)");
}
public async Task Calc()
{
Runned = true;
var model = new MathModel();
ResultData = await model.Process(_inputViewModel.InputData);
Runned = false;
}
public MathModel SynthesizeModel(Point[] trainingPoints)
{
var means = trainingPoints.Means();
var standardDeviations = trainingPoints.StandardDeviations(means);
if (Parameters.UseDataNormalization)
{
trainingPoints = _pointsNormalizer.ApplyProcessing(trainingPoints);
NormalizedTrainingPoints = trainingPoints.DeepCopyByExpressionTree();
}
var evolutionEnginesFactory = new EnginesFactory();
var evolutionEngine = evolutionEnginesFactory.Create(Parameters.EvolutionParameters);
var positiveTrainingPoints = trainingPoints.Where(tp => tp.ClassificationType == ClassificationType.Positive).ToArray();
var negativeTrainingPoints = trainingPoints.Where(tp => tp.ClassificationType == ClassificationType.Negative).ToArray();
var evaluator = new Evaluator(positiveTrainingPoints, negativeTrainingPoints, _constraintsBuilder);
//HACK TODO
//var numberOfConstraintsCoefficients = Parameters.MaximumNumberOfConstraints * (Parameters.NumberOfDimensions + 1);
//var constraintsCoefficients = new List<double>(numberOfConstraintsCoefficients);
//var benchmarkConstraintsIndexer = 0;
//for (var i = 0; i < Parameters.MaximumNumberOfConstraints; i++)
//{
// if (benchmarkConstraintsIndexer >= Benchmark.Constraints.Length)
// benchmarkConstraintsIndexer = 0;
// constraintsCoefficients.AddRange(Benchmark.Constraints[benchmarkConstraintsIndexer].Terms.Select(t => t.Coefficient));
// constraintsCoefficients.Add(Benchmark.Constraints[benchmarkConstraintsIndexer++].LimitingValue);
//}
//PopulationGeneratorBase.ObjectCoefficients = constraintsCoefficients.ToArray();
//
Solution bestSolution;
if (Parameters.UseSeeding)
{
var singleConstraintModel = Parameters.TypeOfBenchmark == BenchmarkType.Balln && Parameters.AllowQuadraticTerms
? Benchmark.Constraints.Take(1).DeepCopyByExpressionTree().ToArray()
: new[] { new LinearConstraint(Benchmark.Constraints.First().Terms.Where(t => t.Type == TermType.Linear).ToArray(), 0) };
var singleConstraintBuilder = new ConstraintsBuilder(singleConstraintModel);
var singleConstraintEvaluator = new Evaluator(positiveTrainingPoints, negativeTrainingPoints, singleConstraintBuilder);
var seedingProcessor = new SeedingProcessor(singleConstraintEvaluator, _constraintsBuilder, positiveTrainingPoints);
bestSolution = evolutionEngine.RunEvolution(evaluator, seedingProcessor);
}
else
{
bestSolution = evolutionEngine.RunEvolution(evaluator);
}
CoreEvolutionSteps = evolutionEngine.EvolutionSteps;
Statistics.EvolutionStatistics = evolutionEngine.Statistics;
var synthesizedConstraints = _constraintsBuilder.BuildConstraints(bestSolution);
if (Parameters.UseDataNormalization)
{
NormalizedSynthesizedConstraints = synthesizedConstraints.DeepCopyByExpressionTree();
_constaintsDenormalizer = new StandardScoreConstraintsDenormalizer(means, standardDeviations);
synthesizedConstraints = _constaintsDenormalizer.ApplyProcessing(synthesizedConstraints);
}
if (Parameters.TrackEvolutionSteps)
{
var evolutionStepsAsSolutions = evolutionEngine.EvolutionStepsSimple.ToList();
foreach (var evolutionStepsAsSolution in evolutionStepsAsSolutions)
{
var evolutionStep = _constraintsBuilder.BuildConstraints(evolutionStepsAsSolution);
if (Parameters.UseDataNormalization)
{
NormalizedEvolutionSteps.Add(evolutionStep.DeepCopyByExpressionTree());
evolutionStep = _constaintsDenormalizer.ApplyProcessing(evolutionStep);
}
EvolutionSteps.Add(evolutionStep);
}
}
if (Parameters.UseRedundantConstraintsRemoving)
{
_stoper.Restart();
synthesizedConstraints = _redundantConstraintsRemover.ApplyProcessing(synthesizedConstraints);
_stoper.Stop();
Statistics.RedundantConstraintsRemovingTime = _stoper.Elapsed;
}
MathModel = new MathModel(synthesizedConstraints, Benchmark);
Statistics.NumberOfConstraints = synthesizedConstraints.Length;
Statistics.MeanAngle = Parameters.TypeOfBenchmark != BenchmarkType.Balln ? _meanAngleCalculator.Calculate(synthesizedConstraints, Benchmark.Constraints) : double.NaN;
return(MathModel);
}
public ActionResult DrawWaveforms(Parameters param)
{
//solver results
//0 |1 |2 |3 |4 |5 |6 |7 |8 |9 |10 |11 |12 |13 |14 |15 |16
//time|Isu|Isv|Isw|Iru|Irv|Irw|Omega|Alfa|Usu|Usv|Usw|Uru|Urv|Urv|Text|Telem
//-------
DataTable dTableIU;
DataTable dTableOmegaTorque;
DataView dViewIU;
DataView dViewOmegaTorque;
DataColumn column;
DataRow row;
ModelParams modelParams = new ModelParams();
parametersPassing(param, modelParams);
MathModel mathModel = new MathModel(modelParams, modelParams.TimeStart, modelParams.InitCondit);
Solver solver = new Solver(modelParams, mathModel);
solver.SolverStart(modelParams);
//currents and voltages chart
dTableIU = new DataTable();
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Time";
dTableIU.Columns.Add(column);
//______________________
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Iu";
dTableIU.Columns.Add(column);
//_______________________
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Iv";
dTableIU.Columns.Add(column);
//_______________________
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Iw";
dTableIU.Columns.Add(column);
//________________________
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Uuv";
dTableIU.Columns.Add(column);
// Adding rows
double Ki = 1; // or Math.Sqrt(3)
double Ku = 1; // or 0.25
for (int i = 0; i < modelParams.PtsResults; i++)
{
row = dTableIU.NewRow();
row["Time"] = solver.Results[i, 0];
row["Iu"] = solver.Results[i, 1] * Ki;
row["Iv"] = solver.Results[i, 2] * Ki;
row["Iw"] = solver.Results[i, 3] * Ki;
row["Uuv"] = solver.Results[i, 9] * Ku;
dTableIU.Rows.Add(row);
}
dViewIU = new DataView(dTableIU);
Chart chartIU = new Chart();
chartIU.Width = 1050;
chartIU.Height = 700;
chartIU.Series.Clear();
chartIU.Titles.Clear();
chartIU.Titles.Add("Currents and voltages waveforms");
chartIU.DataBindTable(dViewIU, "Time");
chartIU.ChartAreas.Add(new ChartArea("Current"));
chartIU.ChartAreas.Add(new ChartArea("Voltage"));
chartIU.ChartAreas["Voltage"].AxisY.Title = "Uuv[V]";
chartIU.ChartAreas["Current"].AxisY.Title = "Stator currents [A]";
chartIU.Series["Uuv"].ChartType = SeriesChartType.Line;
chartIU.Series["Iu"].ChartType = System.Web.UI.DataVisualization.Charting.SeriesChartType.Line;
chartIU.Series["Iv"].ChartType = System.Web.UI.DataVisualization.Charting.SeriesChartType.Line;
chartIU.Series["Iw"].ChartType = System.Web.UI.DataVisualization.Charting.SeriesChartType.Line;
chartIU.Series["Uuv"].ChartArea = "Voltage";
chartIU.Series["Iu"].ChartArea = "Current";
chartIU.Series["Iv"].ChartArea = "Current";
chartIU.Series["Iw"].ChartArea = "Current";
chartIU.ChartAreas[0].AxisX.Minimum = 0;
chartIU.ChartAreas[1].AxisX.Minimum = 0;
//________________________________________________________________________________________________
chartIU.Titles[0].Font = new System.Drawing.Font(
"Times New Roman", 16F, System.Drawing.FontStyle.Bold);
chartIU.Titles[0].ForeColor = System.Drawing.Color.FromArgb(250, 0, 0);
//***********************************************************
//Speed and torque
dTableOmegaTorque = new DataTable();
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Time";
dTableOmegaTorque.Columns.Add(column);
//___________________________
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Omega";
dTableOmegaTorque.Columns.Add(column);
//___________________________
column = new DataColumn();
column.DataType = Type.GetType("System.Double");
column.ColumnName = "Torque";
dTableOmegaTorque.Columns.Add(column);
//___________________________
double Kt = 2;
//adding rows
for (int i = 0; i < modelParams.PtsResults; i++)
{
row = dTableOmegaTorque.NewRow();
row["Time"] = solver.Results[i, 0];
row["Omega"] = solver.Results[i, 7];
row["Torque"] = solver.Results[i, 16] * Kt;
dTableOmegaTorque.Rows.Add(row);
}
dViewOmegaTorque = new DataView(dTableOmegaTorque);
Chart chartOmegaTorque = new Chart();
chartOmegaTorque.Width = 1050;
chartOmegaTorque.Height = 700;
dViewOmegaTorque = new DataView(dTableOmegaTorque);
chartOmegaTorque.ChartAreas.Add("Waveforms");
chartOmegaTorque.DataBindTable(dViewOmegaTorque, "Time");
chartOmegaTorque.Series["Omega"].ChartType = System.Web.UI.DataVisualization.Charting.SeriesChartType.Line;
chartOmegaTorque.Series["Torque"].ChartType = System.Web.UI.DataVisualization.Charting.SeriesChartType.Line;
chartOmegaTorque.ChartAreas["Waveforms"].AxisX.Minimum = 0.0;
chartOmegaTorque.ChartAreas["Waveforms"].AxisX.Maximum = (double)solver.Results[modelParams.PtsResults - 1, 0];
chartOmegaTorque.ChartAreas["Waveforms"].AxisX.LabelStyle.Format = "{#0.000}";
chartOmegaTorque.Width = 1050;
chartOmegaTorque.Height = 400;
// Legend and title
chartOmegaTorque.ChartAreas["Waveforms"].AxisY.Title = "Omega and Torque";
chartOmegaTorque.Legends.Add(new Legend("Legend"));
chartOmegaTorque.Legends["Legend"].DockedToChartArea = "Waveforms";
chartOmegaTorque.Series["Omega"].Legend = "Legend";
chartOmegaTorque.Series["Omega"].IsVisibleInLegend = true;
chartOmegaTorque.Series["Omega"].LegendText = "Omega [rad/s]";
chartOmegaTorque.Series["Torque"].LegendText = "Torque*2 [Nm]";
chartOmegaTorque.Legends["Legend"].Alignment = StringAlignment.Center;
// ------------- Creating chart list ------------
var chartList = new List <Chart> {
chartIU, chartOmegaTorque
};
var imageList = ChartsToImages(chartList);
// ----- Final size of image and bonding charts into one .bmp file
var size = new Size();
foreach (var image in imageList)
{
if (image.Width > size.Width)
{
size.Width = image.Width;
}
size.Height += image.Height;
}
var finalImage = new Bitmap(size.Width, size.Height);
using (var gfx = Graphics.FromImage(finalImage))
{
var y = 0;
foreach (var image in imageList)
{
gfx.DrawImage(image, 0, y);
y += image.Height;
}
}
MemoryStream finalms = new MemoryStream();
finalImage.Save(finalms, System.Drawing.Imaging.ImageFormat.Png);
for (int i = 0; i < 8; i++)
{
modelParams.InitCondit[i] = 0;
}
return(File(finalms.GetBuffer(), "image/png"));
}
protected void btnOblicz_Click(object sender, EventArgs e)
{
bool bVal1 = Double.TryParse(txtTmin.Text, out tmin);
bool bVal2 = Double.TryParse(txtTmax.Text, out tmax);
bool bVal4 = Double.TryParse(txtUa.Text, out Ua);
bool bVal5 = Double.TryParse(txtRa_ext.Text, out Ra_ext);
bool bVal6 = Double.TryParse(txtRf_ext.Text, out Rf_ext);
bool bVal7 = Double.TryParse(txtMa_ext.Text, out Ma_ext);
bool bVal8 = Double.TryParse(txtMf_ext.Text, out Mf_ext);
bool bVal9 = Double.TryParse(txtJr_ext.Text, out Jr_ext);
bool bVal10 = Double.TryParse(txtDr_ext.Text, out Dr_ext);
bool bVal11 = Double.TryParse(txtText.Text, out Text);
bool bVal12 = Double.TryParse(txtText_t1.Text, out Text_t1);
bool bVal13 = Double.TryParse(txtText_t2.Text, out Text_t2);
//Chart1.Visible = true;
//Chart4.Visible = true;
//---
modelParams = new ModelParams();
//modelParams.TimeStart = tmin;
modelParams.TimeStop = tmax;
modelParams.Uarma = Ua;
modelParams.Uflux = Uf;
modelParams.Raext = Ra_ext;
modelParams.Rfext = Rf_ext;
modelParams.Maext = Ma_ext * 0.001; //przeliczenie jednostek do µF i mH
modelParams.Mfext = Mf_ext * 0.001; //przeliczenie jednostek do µF i mH
modelParams.Jrext = Jr_ext;
modelParams.Drext = Dr_ext;
//ustawianie parametrow momentu zewnetrznego
modelParams.Textern = Text;
modelParams.Textern_t1 = Text_t1;
modelParams.Textern_t2 = Text_t2;
//----
flag = false;
size = Convert.ToInt32(tmax / delta); //liczenie ilości próbek
modelParams.PtsResults = size;
//------------Sprawdzenie poprawności wprowadzania danych - walidacja-------------
if (tmin >= tmax || tmax > 5 || tmin < 0 || !bVal1 || !bVal2)
{
validation.Visible = true;
labErrorMessage_time.Visible = true;
labErrorMessage_time.Text = "Wartości parametrów t<sub>min</sub> oraz t<sub>max</sub> zostały wprowadzone błędnie ";
txtTmin.BackColor = System.Drawing.Color.Red;
txtTmax.BackColor = System.Drawing.Color.Red;
flag = true;
}
/* Sprawdzenie poprawności napięć*/
if (!bVal4 || Ua < 0)
{
validation.Visible = true;
labErrorMessage_Voltage.Visible = true;
labErrorMessage_Voltage.Text = "Błędnie wprowadzona wartość napięcia twornika";
txtUa.BackColor = System.Drawing.Color.Red;
flag = true;
}
/* Sprawdzenie poprawności parametrów obwodu*/
if (!bVal5 || Ra_ext < 0)
{
validation.Visible = true;
labErrorMessage_Reza.Visible = true;
labErrorMessage_Reza.Text = "Błędnie wprowadzona wartość rezystancji obwodu twornika";
txtRa_ext.BackColor = System.Drawing.Color.Red;
flag = true;
}
if (!bVal6 || Rf_ext < 0)
{
validation.Visible = true;
labErrorMessage_Rezf.Visible = true;
labErrorMessage_Rezf.Text = "Błędnie wprowadzona wartość rezystancji obwodu wzbudzenia";
txtRf_ext.BackColor = System.Drawing.Color.Red;
flag = true;
}
if (!bVal7 || Ma_ext < 0)
{
validation.Visible = true;
labErrorMessage_Inda.Visible = true;
labErrorMessage_Inda.Text = "Błędnie wprowadzona wartość indukcyjności obwodu twornika";
txtMa_ext.BackColor = System.Drawing.Color.Red;
flag = true;
}
if (!bVal8 || Mf_ext < 0)
{
validation.Visible = true;
labErrorMessage_Indf.Visible = true;
labErrorMessage_Indf.Text = "Błędnie wprowadzona wartość indukcyjności obwodu wzbudzenia";
txtMf_ext.BackColor = System.Drawing.Color.Red;
flag = true;
}
/********sprawdzenie momentu bezwładności oraz współczynnika tłumienia********/
if (!bVal9 || Jr_ext < 0 || Jr_ext > 1)
{
validation.Visible = true;
labErrorMessage_Jr.Visible = true;
labErrorMessage_Jr.Text = "Wprowadzono niepoprawną wartość momentu bezwładności";
txtJr_ext.BackColor = System.Drawing.Color.Red;
flag = true;
}
if (!bVal10 || Dr_ext < 0 || Dr_ext > 1)
{
validation.Visible = true;
labErrorMessage_Dr.Visible = true;
labErrorMessage_Dr.Text = "Wprowadzono niepoprawną wartość współczynnika tłumienia";
txtDr_ext.BackColor = System.Drawing.Color.Red;
flag = true;
}
/*Sprawdzenie warunku momentu*/
if (Text_t1 > Text_t2 || Text_t2 > tmax || Text_t1 < 0 || Text_t1 < 0 || Text_t2 < 0 || !bVal12 || !bVal13 || !bVal11)
{
validation.Visible = true;
labErrorMessage_Text.Visible = true;
labErrorMessage_Text.Text = "Błędne wartości parametrów Text<sub>t1</sub>, Text<sub>t2</sub> oraz Text";
txtText.BackColor = System.Drawing.Color.Red;
txtText_t1.BackColor = System.Drawing.Color.Red;
txtText_t2.BackColor = System.Drawing.Color.Red;
flag = true;
}
/*pętla*/
if (flag == true)
{
return;
}
else
{
labErrorMessage.Visible = true;
labErrorMessage.Text = "Dane zostały wprowadzone poprawnie";
Chart1.Visible = true;
}
this.mathModel = new MathModel(modelParams, modelParams.TimeStart, modelParams.InitCondit);
this.solver = new Solver(modelParams, mathModel);
//---
solver.SolverStart(modelParams);
double[,] wyniki = solver.Results;
//-- pierwsza tabela danych do wykresu 1
table1 = new DataTable();
//--
DataColumn column1;
DataRow row1;
//--
column1 = new DataColumn();
column1.DataType = Type.GetType("System.Double");
column1.ColumnName = "Torque";
table1.Columns.Add(column1);
//=--
//column = new DataColumn();
//column.DataType = Type.GetType("System.Double");
//column.ColumnName = "Voltage";
//table.Columns.Add(column);
//=--
column1 = new DataColumn();
column1.DataType = Type.GetType("System.Double");
column1.ColumnName = "Omega";
table1.Columns.Add(column1);
//=--
//column1 = new DataColumn();
//column1.DataType = Type.GetType("System.Double");
//column1.ColumnName = "Uf";
//table1.Columns.Add(column1);
//=--
//column1 = new DataColumn();
//column1.DataType = Type.GetType("System.Double");
//column1.ColumnName = "Ics";
//table1.Columns.Add(column1);
//----- tabela do drugiego wykresu
//table2 = new DataTable();
//DataColumn column2;
//DataRow row2;
//--
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Time";
//table2.Columns.Add(column2);
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Uas";
//table2.Columns.Add(column2);
////=--
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Ubs";
//table2.Columns.Add(column2);
////=--
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Ucs";
//table2.Columns.Add(column2);
//-------tabela do trzeciego wykresu
//table3 = new DataTable();
//DataColumn column3;
//DataRow row3;
//--
//column3 = new DataColumn();
//column3.DataType = Type.GetType("System.Double");
//column3.ColumnName = "Time";
//table3.Columns.Add(column3);
//column3 = new DataColumn();
//column3.DataType = Type.GetType("System.Double");
//column3.ColumnName = "Iar";
//table3.Columns.Add(column3);
////=--
//column3 = new DataColumn();
//column3.DataType = Type.GetType("System.Double");
//column3.ColumnName = "Ibr";
//table3.Columns.Add(column3);
////=--
//column3 = new DataColumn();
//column3.DataType = Type.GetType("System.Double");
//column3.ColumnName = "Icr";
//table3.Columns.Add(column3);
//-------tabela do czwartego wykresu
//table2 = new DataTable();
//DataColumn column2;
//DataRow row2;
//--
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Time";
//table2.Columns.Add(column2);
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "ω";
//table2.Columns.Add(column2);
//=--
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Text";
//table2.Columns.Add(column2);
//=--
//column2 = new DataColumn();
//column2.DataType = Type.GetType("System.Double");
//column2.ColumnName = "Telem";
//table2.Columns.Add(column2);
//----------------
int size_tmin = Convert.ToInt32(tmin / delta);
//labErrorMessage.Text = "jest to ilosc " + (int)size;
for (int i = 0; i <= size; i++)
{
row1 = table1.NewRow();
row1["Torque"] = wyniki[i, 7];
row1["Omega"] = wyniki[i, 3]; //
//row1["Uf"] = wyniki[i, 6]; //
//row1["Ics"] = wyniki[i, 3]; //
table1.Rows.Add(row1);
//row2 = table2.NewRow();
//row2["Time"] = wyniki[i, 0];
//row2["Uas"] = wyniki[i, 9]; //
//row2["Ubs"] = wyniki[i, 10]; //
//row2["Ucs"] = wyniki[i, 11]; //
//table2.Rows.Add(row2);
//row3 = table3.NewRow();
//row3["Time"] = wyniki[i, 0];
//row3["Iar"] = wyniki[i, 4]; //
//row3["Ibr"] = wyniki[i, 5]; //
//row3["Icr"] = wyniki[i, 6]; //
//table3.Rows.Add(row3);
//row2 = table2.NewRow();
//row2["Time"] = wyniki[i, 0];
//row2["ω"] = wyniki[i, 3]; //
//row2["Text"] = wyniki[i, 5]; //
//row2["Telem"] = wyniki[i, 6]; //
//table2.Rows.Add(row2);
}
//table1.Rows.RemoveAt(table1.Rows.Count - 1);
dView1 = new DataView(table1);
//--
Chart1.Series.Clear();
Chart1.ChartAreas.Add("Wykres01");
//--
Chart1.DataBindTable(dView1, "Torque");
Chart1.Width = 900;
Chart1.Height = 750;
//Chart3.Series["Voltage"].ChartType = SeriesChartType.Line;
Chart1.Series["Omega"].ChartType = SeriesChartType.Spline;
Chart1.Series["Omega"].BorderWidth = 3;//grubosc wykresu
//Chart1.Series["Uf"].ChartType = SeriesChartType.Spline;
//Chart1.Series["Uf"].BorderWidth = 3;//grubosc wykresu
//Chart1.ChartAreas["ChartArea1"].AxisY2.Enabled = AxisEnabled.True;
//Chart1.Series["Uf"].YAxisType = AxisType.Secondary;
//if (chkIcs.Checked)
//{
// Chart1.Visible = true;
// Chart1.Series["Ics"].ChartType = SeriesChartType.Line;
// Chart1.Series["Ics"].BorderWidth = 3;//grubosc wykresu
//}
//Chart1.ChartAreas[0].AxisX.LineWidth = 2;
Chart1.ChartAreas[0].AxisX.Minimum = tmin;
//Chart1.ChartAreas[0].AxisX.Maximum = (double)table.Rows[size]["Time"];
//Chart1.ChartAreas[0].AxisY.Minimum = 0.0;
Chart1.ChartAreas[0].AxisY.ArrowStyle = AxisArrowStyle.Lines;//strzałki wykresu
//Chart1.ChartAreas[0].AxisX.ArrowStyle = AxisArrowStyle.Lines;
Chart1.ChartAreas[0].AxisY2.ArrowStyle = AxisArrowStyle.Lines;
//Chart1.ChartAreas[0].AxisY2.Minimum = 0.0;
//Chart1.ChartAreas[0].AxisY2.Maximum = 2.4;
Chart1.ChartAreas[0].AxisX.LabelStyle.Format = "{#0.###}";
Chart1.ChartAreas[0].AxisX.Title = "Moment obrotowy [Nm]";
Chart1.ChartAreas[0].AxisY.Title = "Omega [rad/s]";
//Chart1.ChartAreas[0].AxisY2.Title = "Uf [V]";
Chart1.ChartAreas[0].AxisX.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
Chart1.ChartAreas[0].AxisY.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
//Chart1.ChartAreas[0].AxisY2.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
//DRUGI WYKRES
//dView2 = new DataView(table2);
////--
//Chart2.Series.Clear();
//Chart2.ChartAreas.Add("Wykres02");
//Chart2.Series.Add("Series2");
////--
//Chart2.DataBindTable(dView2, "Time");
//Chart2.Width = 1200;
//Chart2.Height = 800;
////Chart3.Series["Voltage"].ChartType = SeriesChartType.Line;
//if (chkUas.Checked)
//{
// Chart2.Visible = true;
// Chart2.Series["Uas"].ChartType = SeriesChartType.Line;
// Chart2.Series["Uas"].BorderWidth = 3;//grubosc wykresu
//}
//if (chkUbs.Checked)
//{
// Chart2.Visible = true;
// Chart2.Series["Ubs"].ChartType = SeriesChartType.Line;
// Chart2.Series["Ubs"].BorderWidth = 3;//grubosc wykresu
//}
//if (chkUcs.Checked)
//{
// Chart2.Visible = true;
// Chart2.Series["Ucs"].ChartType = SeriesChartType.Line;
// Chart2.Series["Ucs"].BorderWidth = 3;//grubosc wykresu
//}
////Chart1.ChartAreas[0].AxisX.LineWidth = 2;
//Chart2.ChartAreas[0].AxisX.Minimum = tmin;
////Chart1.ChartAreas[0].AxisX.Maximum = (double)table.Rows[size]["Time"];
////Chart1.ChartAreas[0].AxisY.Minimum = 0.0;
//Chart2.ChartAreas[0].AxisY.ArrowStyle = AxisArrowStyle.Lines;//strzałki wykresu
//Chart2.ChartAreas[0].AxisX.ArrowStyle = AxisArrowStyle.Lines;
//Chart2.ChartAreas[0].AxisY2.Minimum = 0.0;
//Chart2.ChartAreas[0].AxisY2.Maximum = 100.0;
//Chart2.ChartAreas[0].AxisX.LabelStyle.Format = "{#0.###}";
//Chart2.ChartAreas[0].AxisX.Title = "Czas [s]";
//Chart2.ChartAreas[0].AxisY.Title = "Napięcie [U]";
//Chart2.ChartAreas[0].AxisX.TitleFont = new System.Drawing.Font("Calibri", 15F, System.Drawing.FontStyle.Bold);
//Chart2.ChartAreas[0].AxisY.TitleFont = new System.Drawing.Font("Calibri", 15F, System.Drawing.FontStyle.Bold);
//Trzeci WYKRES
//dView3 = new DataView(table3);
////--
//Chart3.Series.Clear();
//Chart3.ChartAreas.Add("Wykres03");
////--
//Chart3.DataBindTable(dView3, "Time");
//Chart3.Width = 1200;
//Chart3.Height = 800;
//if (chkIar.Checked)
//{
// Chart3.Visible = true;
// Chart3.Series["Iar"].ChartType = SeriesChartType.Line;
// Chart3.Series["Iar"].BorderWidth = 3;//grubosc wykresu
//}
//if (chkIbr.Checked)
//{
// Chart3.Visible = true;
// Chart3.Series["Ibr"].ChartType = SeriesChartType.Line;
// Chart3.Series["Ibr"].BorderWidth = 3;//grubosc wykresu
//}
//if (chkIcr.Checked)
//{
// Chart3.Visible = true;
// Chart3.Series["Icr"].ChartType = SeriesChartType.Line;
// Chart3.Series["Icr"].BorderWidth = 3;//grubosc wykresu
//}
////Chart1.ChartAreas[0].AxisX.LineWidth = 2;
//Chart3.ChartAreas[0].AxisX.Minimum = tmin;
////Chart1.ChartAreas[0].AxisX.Maximum = (double)table.Rows[size]["Time"];
////Chart1.ChartAreas[0].AxisY.Minimum = 0.0;
//Chart3.ChartAreas[0].AxisY.ArrowStyle = AxisArrowStyle.Lines;//strzałki wykresu
//Chart3.ChartAreas[0].AxisX.ArrowStyle = AxisArrowStyle.Lines;
//Chart3.ChartAreas[0].AxisY2.Minimum = 0.0;
//Chart3.ChartAreas[0].AxisY2.Maximum = 100.0;
//Chart3.ChartAreas[0].AxisX.LabelStyle.Format = "{#0.###}";
//Chart3.ChartAreas[0].AxisX.Title = "Czas [s]";
//Chart3.ChartAreas[0].AxisY.Title = "Prąd [A]";
//Chart3.ChartAreas[0].AxisX.TitleFont = new System.Drawing.Font("Calibri", 15F, System.Drawing.FontStyle.Bold);
//Chart3.ChartAreas[0].AxisY.TitleFont = new System.Drawing.Font("Calibri", 15F, System.Drawing.FontStyle.Bold);
//Czwarty WYKRES
//dView2 = new DataView(table2);
//--
//Chart2.Series.Clear();
//Chart2.ChartAreas.Add("Wykres04");
//--
//Chart2.DataBindTable(dView2, "Time");
//Chart2.Width = 900;
//Chart2.Height = 750;
//Chart4.Visible = true;
//Chart4.ChartAreas["ChartArea1"].AxisY2.Enabled = AxisEnabled.True;
//Chart4.Series["ω"].ChartType = SeriesChartType.Line;
//Chart4.Series["ω"].BorderWidth = 3;//grubosc wykresu
//Chart4.Series["ω"].YAxisType = AxisType.Secondary;
//Chart2.Series["ω"].ChartType = SeriesChartType.Line;
//Chart2.Series["ω"].BorderWidth = 3;//grubosc wykresu
//Chart2.ChartAreas["ChartArea1"].AxisY2.Enabled = AxisEnabled.True;
//Chart2.Series["ω"].YAxisType = AxisType.Secondary;
//Chart2.Series["Text"].ChartType = SeriesChartType.Line;
//Chart2.Series["Text"].BorderWidth = 3;//grubosc wykresu
//Chart2.Series["Telem"].ChartType = SeriesChartType.Line;
//Chart2.Series["Telem"].BorderWidth = 3;//grubosc wykresu
//Chart1.ChartAreas[0].AxisX.LineWidth = 2;
//Chart2.ChartAreas[0].AxisX.Minimum = tmin;
//Chart1.ChartAreas[0].AxisX.Maximum = (double)table.Rows[size]["Time"];
//Chart1.ChartAreas[0].AxisY.Minimum = 0.0;
//Chart2.ChartAreas[0].AxisY.ArrowStyle = AxisArrowStyle.Lines;//strzałki wykresu
//Chart2.ChartAreas[0].AxisY2.ArrowStyle = AxisArrowStyle.Lines;
//Chart4.ChartAreas[0].AxisX.ArrowStyle = AxisArrowStyle.Lines;
//Chart4.ChartAreas[0].AxisY2.Minimum = 0.0;
//Chart4.ChartAreas[0].AxisY2.Maximum = 110.0;
//Chart2.ChartAreas[0].AxisY2.Title = "prędkość kątowa [rad/s]";
//Chart2.ChartAreas[0].AxisX.LabelStyle.Format = "{#0.###}";
//Chart2.ChartAreas[0].AxisX.Title = "Czas [s]";
//Chart2.ChartAreas[0].AxisY.Title = "Moment [Nm]";
//Chart2.ChartAreas[0].AxisX.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
//Chart2.ChartAreas[0].AxisY.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
//Chart2.ChartAreas[0].AxisY2.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
}
public Visualization PreparePlots(IList <Point> positivePoints, IList <Point> negativePoints, IList <Point> testPoints, MathModel mathModel, IList <IList <Constraint> > evolutionSteps, int numberOfSteps)
{
PreparePlots(positivePoints, negativePoints, mathModel, evolutionSteps, numberOfSteps);
PreparePlots(testPoints, mathModel);
return(this);
}
public MainWindowController(MainWindow parent)
{
mainWindow = parent;
Model = new MathModel();
}
private void HandleMathFact(MathModel message)
{
_mathActor.Tell(message);
}
protected void btnOblicz_Click(object sender, EventArgs e)
{
bool bVal1 = Int32.TryParse(txtTmin.Text, out Tmin);
bool bVal2 = Int32.TryParse(txtTmax.Text, out Tmax);
bool bVal4 = Double.TryParse(txtUt_m.Text, out U_mnoznik);
//Chart1.Visible = true;
//Chart4.Visible = true;
//---
modelParams = new ModelParams();
//modelParams.TimeStart = tmin;
//modelParams.TimeStop = tmax;
modelParams.Uarma = Ua * U_mnoznik;
modelParams.Uflux = Uf;
modelParams.Raext = Ra_ext;
modelParams.Rfext = Rf_ext;
modelParams.Maext = Ma_ext * 0.001; //przeliczenie jednostek do µF i mH
modelParams.Mfext = Mf_ext * 0.001; //przeliczenie jednostek do µF i mH
If = modelParams.Uflux / modelParams.Rfint;
//Ia = (modelParams.Uarma - modelParams.Gaf * If * ω) / modelParams.Raint;
//ω = (modelParams.Uarma - modelParams.Raint * Ia) / (modelParams.Gaf * If);
//modelParams.Jrext = Jr_ext;
modelParams.Drext = Dr_ext;
//Text = modelParams.Drext * ω - modelParams.Gaf * If * Ia;
//ustawianie parametrow momentu zewnetrznego
modelParams.Textern = Text;
modelParams.Textern_t1 = Text_t1;
modelParams.Textern_t2 = Text_t2;
//----
flag = false;
//size = Convert.ToInt32(Tmax / delta); //liczenie ilości próbek ; modelParams.Tstop
//modelParams.PtsResults = size;
size = modelParams.PtsResults;
//------------Sprawdzenie poprawności wprowadzania danych - walidacja-------------
if (Tmin >= Tmax || Tmin < 0 || !bVal1 || !bVal2)
{
validation.Visible = true;
labErrorMessage_Tm.Visible = true;
labErrorMessage_Tm.Text = "Wartości parametrów t<sub>min</sub> oraz t<sub>max</sub> zostały wprowadzone błędnie ";
txtTmin.BackColor = System.Drawing.Color.Red;
txtTmax.BackColor = System.Drawing.Color.Red;
flag = true;
}
/* Sprawdzenie poprawności napięć*/
if (!bVal4 || Ua < 0)
{
validation.Visible = true;
labErrorMessage_Voltage.Visible = true;
labErrorMessage_Voltage.Text = "Błędnie wprowadzona wartość napięcia twornika";
txtUt_m.BackColor = System.Drawing.Color.Red;
flag = true;
}
/*pętla*/
if (flag == true)
{
return;
}
else
{
labErrorMessage.Visible = true;
labErrorMessage.Text = "Dane zostały wprowadzone poprawnie";
Chart1.Visible = true;
}
this.mathModel = new MathModel(modelParams, modelParams.TimeStart, modelParams.InitCondit);
this.solver = new Solver(modelParams, mathModel);
//---
solver.SolverStart(modelParams);
double[,] wyniki = solver.Results;
//-- pierwsza tabela danych do wykresu 1
table1 = new DataTable();
//--
DataColumn column1;
DataRow row1;
//--
column1 = new DataColumn();
column1.DataType = Type.GetType("System.Double");
column1.ColumnName = "Torque";
table1.Columns.Add(column1);
column1 = new DataColumn();
column1.DataType = Type.GetType("System.Double");
column1.ColumnName = "ω";
table1.Columns.Add(column1);
column1 = new DataColumn();
column1.DataType = Type.GetType("System.Double");
column1.ColumnName = "ω przy Uan";
table1.Columns.Add(column1);
//----------------
//int size_tmin = Convert.ToInt32(Tmin / delta);
//labErrorMessage.Text = "jest to ilosc " + (int)size;
double[,] array;
for (int i = Tmin; i <= Tmax; i++)
{
array = new double[Tmax + 1, 3];
array[i, 0] = i;
array[i, 1] = ((modelParams.Uarma / modelParams.Gaf * If) - (modelParams.Raint / Math.Pow(modelParams.Gaf * If, 2)) * i) * 10;
array[i, 2] = ((Ua / modelParams.Gaf * If) - (modelParams.Raint / Math.Pow(modelParams.Gaf * If, 2)) * i) * 10;
row1 = table1.NewRow();
row1["Torque"] = array[i, 0];
row1["ω"] = array[i, 1];
row1["ω przy Uan"] = array[i, 2];
table1.Rows.Add(row1);
}
//--
dView1 = new DataView(table1);
//--
Chart1.Series.Clear();
Chart1.ChartAreas.Add("Wykres01");
//--
Chart1.DataBindTable(dView1, "Torque");
Chart1.Width = 900;
Chart1.Height = 750;
Chart1.Series["ω"].ChartType = SeriesChartType.Line;
Chart1.Series["ω"].BorderWidth = 3; //grubosc wykresu
Chart1.Series["ω przy Uan"].ChartType = SeriesChartType.Line;
Chart1.Series["ω przy Uan"].BorderWidth = 3; //grubosc wykresu
//if (chkIcs.Checked)
//{
// Chart1.Visible = true;
// Chart1.Series["Ics"].ChartType = SeriesChartType.Line;
// Chart1.Series["Ics"].BorderWidth = 3;//grubosc wykresu
//}
//Chart1.ChartAreas[0].AxisX.LineWidth = 2;
Chart1.ChartAreas[0].AxisX.Minimum = 0;
//Chart1.ChartAreas[0].AxisX.Maximum = (double)table1.Rows[size]["Torque"];
//Chart1.ChartAreas[0].AxisY.Minimum = 0.0;
Chart1.ChartAreas[0].AxisY.ArrowStyle = AxisArrowStyle.Lines;//strzałki wykresu
//Chart1.ChartAreas[0].AxisX.ArrowStyle = AxisArrowStyle.Lines;
Chart1.ChartAreas[0].AxisX.LabelStyle.Format = "{#0.###}";
Chart1.ChartAreas[0].AxisX.Title = "Text [Nm]";
Chart1.ChartAreas[0].AxisY.Title = "ω [rad/s]";
Chart1.ChartAreas[0].AxisX.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
Chart1.ChartAreas[0].AxisY.TitleFont = new System.Drawing.Font("Calibri", 11F, System.Drawing.FontStyle.Bold);
}
public override void ViewDidLoad()
{
base.ViewDidLoad();
// Perform any additional setup after loading the view, typically from a nib.
mathModel = new MathModel();
}
public void Calc_ArgumentNullExceptions()
{
MathModel nullModel = null;
Assert.ThrowsException <ArgumentNullException>(() => calculator.Calc(nullModel, 10));
}
