private void Start()
    {
        Debug.Log("Launch Wolfram Kernel.");
        if (KernelPath == "")
        {
            kernelLink = MathLinkFactory.CreateKernelLink();
        }
        else
        {
            kernelLink = MathLinkFactory.CreateKernelLink(new string[] { "-linkmode", "launch", "-linkname", KernelPath + " -wstp" });
        }
        if (kernelLink != null)
        {
            kernelLink.WaitAndDiscardAnswer();
            if (!TestKernel())
            {
                goto Fail;
            }
            else
            {
                goto Success;
            }
        }

Fail:
        Debug.LogError("Fail to launch Wolfam Kernel.");
        return;

Success:
        DontDestroyOnLoad(gameObject);
        return;
    }
Exemple #2
0
        private MathematicaKernel()
        {
            string path = ConfigurationManager.AppSettings["MathKernelPath"];

            if (string.IsNullOrEmpty(path))
            {
                m_kernel = MathLinkFactory.CreateKernelLink();
            }
            else
            {
                string[] args = new string[] { "-linkmode", "launch", "-linkname", "" };
                args[3]  = "\"" + path + "\"";
                m_kernel = MathLinkFactory.CreateKernelLink(args);
            }


            m_math = new MathKernel(m_kernel);
            m_math.AutoCloseLink   = true;
            m_math.CaptureGraphics = false;
            m_math.CaptureMessages = true;
            m_math.CapturePrint    = false;
            m_math.HandleEvents    = true;
            m_math.Input           = null;
            m_math.LinkArguments   = null;
            m_math.PageWidth       = byte.MaxValue;
            m_math.ResultFormat    = MathKernel.ResultFormatType.OutputForm;
            m_math.UseFrontEnd     = true;
            m_math.Compute("Needs[\"HypothesisTesting`\"];");
        }
Exemple #3
0
 private void startToolStripMenuItem_Click(object sender, EventArgs e)
 {
     if (count != 0 || firstIndicator == true)
     {
         t.Start();
     }
     else
     {
         frmWorking fw2 = new frmWorking();
         fw2.Show();
         fw2.Refresh();
         ml = MathLinkFactory.CreateKernelLink();
         ml.WaitAndDiscardAnswer();
         //load the prepared package
         ml.Evaluate(@"<<C:\ChaosWheel\ChaosWheel2.m");
         //ml.Evaluate(path);
         ml.WaitAndDiscardAnswer();
         string input = string.Format("ChaosWheel2[{0},{1},{2},{3},{4},{5},{6},{7},{8}]", paras.R, paras.Sigma, paras.Rho, paras.K, paras.QInflow, paras.Qc, paras.Numb, paras.Tlength, paras.Omega);
         ml.Evaluate(input); // went for 45 seconds on time interval of 10
         ml.WaitForAnswer();
         datalist   = (double[, ])ml.GetArray(typeof(double), 2);
         numrows    = datalist.GetLength(0);
         numcolumns = datalist.GetLength(1);
         fw2.Close();
         t.Start();
     }
 }
Exemple #4
0
        public WolframLink()
        {
            string mlArgs = "";

#if WIN
            mlArgs = "-linkmode launch -linkname \"C:\\\\Program Files\\\\Wolfram Research\\\\Mathematica\\\\12.0\\\\MathKernel.exe\"";
#elif LINUX
            mlArgs = "-linkmode launch -linkname \"/opt/Wolfram/WolframEngine/12.1/Executables/MathKernel\"";
#endif

            IKernelLink ml = MathLinkFactory.CreateKernelLink(mlArgs);
            ml.WaitAndDiscardAnswer();

            _mathKernel = new MathKernel
            {
                AutoCloseLink      = true,
                CaptureGraphics    = true,
                CaptureMessages    = true,
                CapturePrint       = true,
                GraphicsFormat     = "Metafile",
                GraphicsHeight     = 0,
                GraphicsResolution = 80,
                GraphicsWidth      = 0,
                HandleEvents       = true,
                Input         = null,
                Link          = ml,
                LinkArguments = null,
                PageWidth     = 0,
                ResultFormat  = MathKernel.ResultFormatType.OutputForm,
                UseFrontEnd   = false,
            };
        }
Exemple #5
0
        static void getChemistry3dModel(string nameOfModel, string moleculeName)
        {
            IKernelLink ml = MathLinkFactory.CreateKernelLink();

            ml.WaitAndDiscardAnswer();
            //ml.Evaluate("gr1 = Plot3D[-(cos(x) + cos(y) + cos(z))=0, {x, -5, 5}, {y, -5, 5}, Mesh -> None]");
            ml.Evaluate("gr1 = ChemicalData[\"Caffeine\", \"MoleculePlot\"]");
            ml.WaitAndDiscardAnswer();

            //ml.Evaluate("Export[\"3DPlot.obj\",  gr1]");

            if (!Directory.Exists("C:\\hackNY\\"))
            {
                Directory.CreateDirectory("C:\\hackNY\\");
            }
            ml.Evaluate(string.Format("Export[\"C:\\hackNY\\{0}.obj\",  gr1]", nameOfModel));
            ml.WaitAndDiscardAnswer();
            Console.WriteLine("hope it worked");

            string keyName            = string.Format("C:\\hackNY\\{0}", nameOfModel);
            string modelWithExtension = nameOfModel + ".obj";

            Upload_object(modelWithExtension, "C:\\hackNY\\" + modelWithExtension);
            Upload_object(modelWithExtension + ".mtl", "C:\\hackNY\\" + modelWithExtension + ".mtl");
        }
Exemple #6
0
    public static void Main(String[] args)
    {
        String[] mathArgs = { @"-linkname",
                              @"C:\Program Files\Wolfram Research\Mathematica\11.0\MathKernel.exe -mathlink" };

        Console.WriteLine(mathArgs.ToString());

        // This launches the Mathematica kernel:
        IKernelLink ml = MathLinkFactory.CreateKernelLink(mathArgs);

        // Discard the initial InputNamePacket the kernel will send when launched.
        ml.WaitAndDiscardAnswer();

        // Now compute 2+2 in several different ways.

        // The easiest way. Send the computation as a string and get the result in a single call:
        string result = ml.EvaluateToOutputForm("2+2", 0);

        Console.WriteLine("2 + 2 = " + result);

        // Use Evaluate() instead of EvaluateToXXX() if you want to read the result as a native type
        // instead of a string.
        ml.Evaluate("2+2");
        ml.WaitForAnswer();
        int intResult = ml.GetInteger();

        Console.WriteLine("2 + 2 = " + intResult);

        // You can also get down to the metal by using methods from IMathLink:
        ml.PutFunction("EvaluatePacket", 1);
        ml.PutFunction("Plus", 2);
        ml.Put(2);
        ml.Put(2);
        ml.EndPacket();
        ml.WaitForAnswer();
        intResult = ml.GetInteger();
        Console.WriteLine("2 + 2 = " + intResult);

        // Always Close link when done:
        ml.Close();

        // Wait for user to close window.
        Console.WriteLine("Press Return to exit...");
        Console.Read();
    }
Exemple #7
0
        public void Initialize()
        {
            mathematicaLink = MathLinkFactory.
                              CreateKernelLink();
            mathematicaLink.WaitAndDiscardAnswer();

            var netPath = Path.Combine(
                TemporaryPath, "InstrumentRecognizer",
                "net.wlnet");

            if (!File.Exists(netPath))
            {
                Directory.CreateDirectory(Path.GetDirectoryName(netPath));
                File.Copy("net.wlnet", netPath, true);
            }
            mathematicaLink.Evaluate($"net = Import[\"{netPath.Replace('\\', '/')}\"];");
            mathematicaLink.WaitAndDiscardAnswer();
        }
        public static IUnityContainer CreateContainer()
        {
            IKernelLink mathEngine = null;

            try
            {
                MathLinkFactory.CreateKernelLink();
            }
            catch (Exception e)
            {
                throw new Exception("WolframMathematica wasn't found on machine.", e);
            }

            IUnityContainer container = new UnityContainer()
                                        .RegisterInstance(mathEngine)
                                        .RegisterType <IMinimizationStrategy, X2MinimizationStrategy>("X2")
                                        .RegisterType <IMinimizationStrategy, LeastSquaresMinimizationStrategy>("LeastSquares");

            return(container);
        }
Exemple #9
0
        private void CreateKernel()
        {
            try
            {
                if (KernelArgs is null || KernelArgs.Length == 0) //Optional param KernelArgs default launch settings
                {
                    KernelArgs = new[] { @"-linkmode", @"launch", @"-linkname", KernelPath };
                }

                Console.WriteLine(Resources.Application_CreateKernel_Creating_Kernel);
                Kernel = MathLinkFactory.CreateKernelLink(KernelArgs);
                Kernel.WaitAndDiscardAnswer();

                SetupTypeDict();

                if (EnableObjectReferences)
                {
                    Console.WriteLine(Resources.Application_CreateKernel_Enabling_Object_References_);
                    var needNetLinkExpr = new Expr(Wolfram.NETLink.ExpressionType.Function, @"Needs");
                    needNetLinkExpr = new Expr(needNetLinkExpr, @"NETLink`");
                    Kernel.Evaluate(needNetLinkExpr);
                    Kernel.WaitAndDiscardAnswer();
                    Kernel.EnableObjectReferences();
                    Kernel.WaitAndDiscardAnswer();
                    Kernel.Evaluate(@"InstallNET[];");
                    Kernel.WaitAndDiscardAnswer();
                    if (Kernel.LastError != null)
                    {
                        throw Kernel.LastError;
                    }
                }

                DoneInitializing = true;
                Console.WriteLine(Resources.Application_CreateKernel_Kernel_created);
            }
            catch (Exception eq)
            {
                throw new CustomException(Resources.Application_CreateKernel_FailException, eq);
            }
        }
        public static IKernelLink GetKernel()
        {
            if (kernelLink == null)
            {
                String args = "-linkmode launch -linkname \""
                              + Environs.FileSystem.Paths["mathPath"] + "\"";
                if ((String)Environs.Info["mlArgs"] != null)
                {
                    args = (String)Environs.Info["mlArgs"];
                }
                try
                {
                    kernelLink = MathLinkFactory.CreateKernelLink(args);
                    kernelLink.WaitAndDiscardAnswer();
                }
                catch (MathLinkException)
                {
                    Console.WriteLine("Failed to open the link to Mathematica");
                }
            }

            return(kernelLink);
        }
Exemple #11
0
        public List <Vector> MathDraw(string kappa, string range)
        {
            IKernelLink   ml          = null;
            List <Vector> outputCurve = new List <Vector>();

            try
            {
                ml = MathLinkFactory.CreateKernelLink(mlArgs);
                ml.WaitAndDiscardAnswer();
                ml.Evaluate("k[t_]=" + kappa);
                ml.WaitAndDiscardAnswer();
                ml.Evaluate("range = " + range);
                ml.WaitAndDiscardAnswer();
                ml.Evaluate("Needs[\"DrawCurve`\"]");
                ml.WaitAndDiscardAnswer();
                ml.Evaluate("DrawCurve[k,range]");
                ml.WaitForAnswer();
                double[,] CurveArray = (double[, ])ml.GetArray(typeof(double), 2);
                int rows = CurveArray.GetLength(0);
                int cols = CurveArray.GetLength(1);
                for (int i = 0; i < rows; i++)
                {
                    outputCurve.Add(new Vector(CurveArray[i, 0], CurveArray[i, 1], 0));
                }
            }
            catch (Exception ee)
            {
                MessageBox.Show("Error: " + ee.Message);
            }
            finally
            {
                //tidy everything up
                ml.Close();
            }
            return(outputCurve);
        }
Exemple #12
0
        private void FrmMain_Load(object sender, EventArgs e)
        {
            SetupTransform();

            //receive user input
            // some initial values
            paras.R       = 7;
            paras.QInflow = 10;
            paras.Qc      = 10;
            paras.Sigma   = 10;
            paras.Rho     = 28;
            paras.Numb    = 8;
            paras.Tlength = 5;
            paras.K       = 1;
            paras.Omega   = 0.1f;

            frmParameterDialog pd = new frmParameterDialog();

            pd.Text = "Enter the parameter values for the system";
            // just some default values
            pd.Data.R_       = paras.R;
            pd.Data.QInflow_ = paras.QInflow;
            pd.Data.Qc_      = paras.Qc;
            pd.Data.K_       = paras.K;
            pd.Data.Sigma_   = paras.Sigma;
            pd.Data.Rho_     = paras.Rho;
            pd.Data.Numb_    = paras.Numb;
            pd.Data.Tlength_ = paras.Tlength;
            pd.Data.Omega_   = paras.Omega;

            DialogResult d = pd.ShowDialog();

            if (d == DialogResult.OK)
            {
                paras.R       = pd.Data.R_;
                paras.QInflow = pd.Data.QInflow_;
                paras.Qc      = pd.Data.Qc_;
                paras.K       = pd.Data.K_;
                paras.Sigma   = pd.Data.Sigma_;
                paras.Rho     = pd.Data.Rho_;
                paras.Numb    = pd.Data.Numb_;
                paras.Tlength = pd.Data.Tlength_;
                paras.Omega   = pd.Data.Omega_;
            }



            // set the initial positions of the buckets

            for (i = 0; i < paras.Numb; i++)
            {
                bucketlist.Add(new Bucket());
            }


            for (j = 0; j < bucketlist.Count; j++)
            {
                bucketlist[j].Width  = 3.5f * (float)Math.Pow(0.9, paras.Numb - 8); // when there are 8 buckets, looks best if bucket width and height is 3.5
                bucketlist[j].Height = 3.5f * (float)Math.Pow(0.9, paras.Numb - 8); // adjust depending on number of buckets according to this formula: width = 3.5*(0.9)^(n-8)
                bucketlist[j].X      = (float)(paras.R * Math.Sin(-theta - j * 2 * Math.PI / bucketlist.Count));
                bucketlist[j].Y      = (float)(-paras.R * Math.Cos(-theta - j * 2 * Math.PI / bucketlist.Count));
            }

            frmWorking fw1 = new frmWorking();

            fw1.Show();
            fw1.Refresh();
            //System.Threading.Thread.Sleep(100);
            ml = MathLinkFactory.CreateKernelLink();
            ml.WaitAndDiscardAnswer();
            //load the prepared package
            ml.Evaluate(@"<<C:\ChaosWheel\ChaosWheel2.m");
            //dont need the result
            ml.WaitAndDiscardAnswer();
            //call method for new theta
            string input = string.Format("ChaosWheel2[{0},{1},{2},{3},{4},{5},{6},{7},{8}]", paras.R, paras.Sigma, paras.Rho, paras.K, paras.QInflow, paras.Qc, paras.Numb, paras.Tlength, paras.Omega);

            ml.Evaluate(input); // went for 45 seconds on time interval of 10
            ml.WaitForAnswer();
            //move the system according to theta
            //thetalist = (double[])ml.GetArray(typeof(double),1);
            datalist       = (double[, ])ml.GetArray(typeof(double), 2);
            numrows        = datalist.GetLength(0);
            numcolumns     = datalist.GetLength(1);
            firstIndicator = true;
            fw1.Close();
        }
Exemple #13
0
        public static List <Note> NotesFromFile(string[] args)
        {
            if (args.Length < 3)
            {
                throw new ArgumentException("You need three arguments dawg ");
            }

            var path = string.Empty;

            if (args[0].Length != 0)
            {
                path            = args[0];
                SAMPLE_COUNT    = int.Parse(args[1]);
                LOWER_THRESHOLD = double.Parse(args[2]);
            }
            else
            {
                path = @"C:\Users\zhadowoflight\Desktop\Studies\COEN_9\y-hack\lotr.wav";
                //var path = @"C:\Users\zhadowoflight\Desktop\Studies\COEN_9\y-hack\fureliseshort.wav";
                //var path = @"C:\Users\zhadowoflight\Desktop\Studies\COEN_9\y-hack\furelise2.wav";
                //var path = @"C:\Users\zhadowoflight\Desktop\Studies\COEN_9\y-hack\furs.wav"; //toats shit
                //var path = @"C:\Users\zhadowoflight\Desktop\Studies\COEN_9\y-hack\all.wav";
            }

            //double[] arr = { 0, 10, 100, 1000, 10000, 400, 440, 32.703 };
            //foreach (double d in arr)
            //{
            //    string actual = FrequencyToNote(d).ToString();
            //}
            // This launches the Mathematica kernel:
            IKernelLink ml            = MathLinkFactory.CreateKernelLink();
            var         myComplexType = new Complex(1, 2);

            ml.ComplexType = myComplexType.GetType();
            ml.WaitAndDiscardAnswer();
            // Discard the initial InputNamePacket the kernel will send when launched.

            var data = GetDataFromWav(ml, path);

            data = MovingAverageSmooth(data);
            var             rate             = GetSamplingRateFromWav(ml, path);
            List <double[]> MajorFrequencies = new List <double[]> ();

            for (var ii = 0; ii < data.Length + SAMPLE_COUNT; ii += SAMPLE_COUNT)
            {
                var temp_data = new double[SAMPLE_COUNT];
                try
                {
                    Array.Copy(data, ii, temp_data, 0, SAMPLE_COUNT);
                }
                catch (ArgumentException)
                {
                    if (ii + SAMPLE_COUNT < data.Length)
                    {
                        Console.WriteLine("Not supposed to happen!!");
                    }
                    break;
                }
                var fft_data = GetMagnitudeOfComplexArray(GetFourierTransform(ml, temp_data));
                fft_data = MovingAverageSmooth(fft_data);
                MajorFrequencies.Add(GetMajorFrequenciesFromTransform(fft_data, rate));
#if DEBUG
                //  File.WriteAllText(string.Format("test{0}.txt",ii),string.Join("\n",fft_data));
#endif
            }

            List <Note[]> MajorNotes = GetMajorNotesFromFrequencies(MajorFrequencies);
            WriteResults(MajorNotes);
            WriteResults(MajorFrequencies);
            var a = MakeMusicSheet(MajorNotes);
            Console.WriteLine("All done");
            MusicSheetGenerator.generateMusicSheet(a);
            return(a); // 'a' is the most descriptive variable name.... EVER
        }