Logo „E7 BBKG NumSharp Sample”
E7 BBKG NumSharp Sample
Przesłany obraz „E7 BBKG NumSharp Sample”
Od 18/12/2024
2
Sprzedaż
3.73K
Bezpłatne instalacje

As requested by many of you, we are now working hard to provide examples of some of our machine learning code and packages.

TensorFlow, PyTorch, Keras, Numpy, Pandas and many more .NET packages to get going inside of cTrader.

Our mission is to make Machine Learning inside cTrader easier for everyone.

Happy hunting!

*** This code does not trade anything (it only prints out data etc). It is simply sample code of how you can start creating your own AI models using our Machine Learning packages.

.......................................................

using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using cAlgo.API;
using cAlgo.API.Collections;
using cAlgo.API.Indicators;
using cAlgo.API.Internals;

using NumSharp;
using np = NumSharp.np;
using Shape = NumSharp.Shape;

using PandasNet;
using static PandasNet.PandasApi;

namespace cAlgo.Robots
{
    [Robot(TimeZone = TimeZones.UTC, AccessRights = AccessRights.None)]
    public class E7BBKGNumSharpSample : Robot
    {
        [Parameter("Version 1.01", DefaultValue = "Version 1.01")]
        public string Version { get; set; }

        [Parameter("Source")]
        public DataSeries Source { get; set; }

        [Parameter("Bars Required", DefaultValue = 50, MinValue = 1, MaxValue = 10000, Step = 1)]
        public int BarsRequired { get; set; }

        [Parameter("Method Name", DefaultValue = MethodName.DataSplitPrints)]
        public MethodName Mode { get; set; }
        public enum MethodName
        {
            DataSplitPrints,
            PandasPrints,
            NDArrayPrints
        }
        
        protected override void OnStart()
        {
            // Initialize any indicators
        }

        protected override void OnBar()
        {
            try
            {
                if (Mode == MethodName.DataSplitPrints)
                {
                    DataSplitPrints();
                }
                else if (Mode == MethodName.PandasPrints)
                {
                    PandasPrints();
                }
                else if (Mode == MethodName.NDArrayPrints)
                {
                    NDArrayPrints();
                }
            }
            catch (Exception ex)
            {
                Print($"Error: {ex.Message}");
                if (ex.InnerException != null)
                {
                    Print($"Inner Exception: {ex.InnerException.Message}");
                    throw;
                }
            }
        }

        private float[,] GetDataSet()
        {
            int startBar = Bars.ClosePrices.Count - BarsRequired;
            float[,] inputSignals = new float[BarsRequired, 5];

            for (int i = 0; i < BarsRequired; i++)
            {
                int barIndex = startBar + i;
                inputSignals[i, 0] = (float)Bars.OpenPrices[barIndex];
                inputSignals[i, 1] = (float)Bars.HighPrices[barIndex];
                inputSignals[i, 2] = (float)Bars.LowPrices[barIndex];
                inputSignals[i, 3] = (float)Bars.ClosePrices[barIndex];
                inputSignals[i, 4] = (float)Bars.TickVolumes[barIndex];
            }
            return inputSignals;
        }
        
        private float[,] GetTargetDataSet()
        {
            int startBar = Bars.ClosePrices.Count - BarsRequired;
            float[,] inputSignals = new float[BarsRequired, 5];

            for (int i = 0; i < BarsRequired; i++)
            {
                int barIndex = startBar + i;
                inputSignals[i, 0] = (float)Bars.OpenPrices[barIndex];
                inputSignals[i, 1] = (float)Bars.HighPrices[barIndex];
                inputSignals[i, 2] = (float)Bars.LowPrices[barIndex];
                inputSignals[i, 3] = (float)Bars.ClosePrices[barIndex];
                inputSignals[i, 4] = (float)Bars.TickVolumes[barIndex];
            }
            return inputSignals;
        }
        
        /// NumSharp Data Split Prints
        public void DataSplitPrints()
        {
            // Reshape input data to match the model's expected input shape
            //var inputShape = new Shape(-1, BarsRequired, 5);
            NDArray inputData = np.array<float>(GetDataSet());
            Print("Input NDarray: " + string.Join(", ", inputData));
            
            // Reshape target data to match the target shape expected by the model
            //var targetShape = new Shape(-1, 5);
            NDArray targetData = np.array<float>(GetTargetDataSet());
            Print("Target NDarray: " + string.Join(", ", targetData));
            
            // Split data into training and test sets
            int testSize = (int)(0.2 * inputData.shape[0]); // 20% for testing
            var (x_train, x_test) = (inputData[$":{inputData.shape[0] - testSize}"], inputData[$"{inputData.shape[0] - testSize}:"]);
            var (y_train, y_test) = (targetData[$":{targetData.shape[0] - testSize}"], targetData[$"{targetData.shape[0] - testSize}:"]);
            
            Print("X_train data: " + string.Join(", ", x_train));
            Print("X_test data: " + string.Join(", ", x_test));
            Print("Y_train data: " + string.Join(", ", y_train));
            Print("Y_test data: " + string.Join(", ", y_test));
        }
        
        /// PandasNet Prints
        public void PandasPrints()
        {
            // Convert float[,] to List<Series>
            var inputData = GetDataSet();
            var targetData = GetTargetDataSet();
            
            var inputSeriesList = new List<Series>();
            var targetSeriesList = new List<Series>();
            
            for (int col = 0; col < inputData.GetLength(1); col++)
            {
                List<float> columnData = new List<float>();
                for (int row = 0; row < inputData.GetLength(0); row++)
                {
                    columnData.Add(inputData[row, col]);
                }
                inputSeriesList.Add(new Series(columnData.ToArray()));
            }
            
            for (int col = 0; col < targetData.GetLength(1); col++)
            {
                List<float> columnData = new List<float>();
                for (int row = 0; row < targetData.GetLength(0); row++)
                {
                    columnData.Add(targetData[row, col]);
                }
                targetSeriesList.Add(new Series(columnData.ToArray()));
            }
            
            // Create DataFrames
            DataFrame inputDataFrame = new DataFrame(inputSeriesList);
            DataFrame targetDataFrame = new DataFrame(targetSeriesList);
            
            Print("Input DataFrame: " + inputDataFrame);
            Print("Target DataFrame: " + targetDataFrame);
            
            //Print("Input DataFrame: " + string.Join(", ", inputDataFrame));
            //Print("Target DataFrame: " + string.Join(", ", targetDataFrame));
        }
        
        /// Simple NumSharp NDArrays Prints
        public void NDArrayPrints()
        {
            if (Bars.ClosePrices.Count < BarsRequired)
                return;

            try
            {
                // Calling your Input Data float[,]
                float[,] inputData = GetDataSet();

                // Convert to NDArray and reshape to (BarsRequired, 5)
                NDArray inputNDArray = np.array(inputData);   // NumSharp
                Print("Input NumSharp NDarray Data : " + string.Join(", ", inputNDArray));
                Print("Input NumSharp NDarray Shape: " + string.Join(", ", inputNDArray.shape));
                
                int expectedLength = BarsRequired * 5;
                Print($"Expected NumSharp NDarray Length: {expectedLength}");
                Print($"Input NumSharp NDarray Size: {inputNDArray.size}");

                if (inputNDArray.size != expectedLength)
                {
                    Print($"Length MisMatch: Expected Length {expectedLength}, but got Size {inputNDArray.size}");
                    return;
                }
            }
            catch (Exception ex)
            {
                Print("Exception: " + ex.Message);
                Print("StackTrace: " + ex.StackTrace);

                Exception innerException = ex.InnerException;
                while (innerException != null)
                {
                    Print("Inner Exception: " + innerException.Message);
                    Print("Inner Exception StackTrace: " + innerException.StackTrace);
                    innerException = innerException.InnerException;
                }
            }
        }
    }
}

Profil handlowy
0.0
Opinie: 0
Opinie klientów
Ten produkt nie ma jeszcze opinii. Wypróbowałeś(-aś) go już? Bądź pierwszy(-a) i powiedz o tym innym!
AI
Products available through cTrader Store, including trading bots, indicators and plugins, are provided by third-party developers and made available for informational and technical access purposes only. cTrader Store is not a broker and does not provide investment advice, personal recommendations or any guarantee of future performance.

Więcej od tego autora

Logo „E7 Volume Profile”
4.6
(3)
Za darmo
E7 Volume Profile, more modern look and feel.
E7 BBKG indicator with 80% plus accuracy used to show both, possible reversal and trend.
Polynomial Regression Channel which also reflects the volatility of the underlying asset.
E7 Harmonic Structures Basic.
E7 Correlation Dashboard.
Bollinger Band Cloud, Heiken Ashi, Trend Follower and Parabolic SAR.
Option pricing using the BlackScholes model and the Math.Numerics packages
ADXR, KDJ, SineWave, Bollinger Band Volatility and AEOscillator.

Możesz także polubić

(having Demo) - by Modern Andishan, creators of TLM cBot with 72K+ downloads most popular robot on the cTrader site
Trading_stop DEMO for cTrader Description: Trading_stop is a fast, lightweight trailing stop panel for cTrader, designed
Long-only trend-following cBot for XAUUSD using EMA cross entries, ATR-based risk management, and pyramiding into strong
18.6%
1.59
Współczynnik zysku
76.45%
Maksymalny spadek
Companion executor for TradeCommand: receives orders via LocalStorage, executes trades, and manages plan-driven batches.
Creates buy limit orders automatically when the market drops.
fixed bug
RISK SHIELD VERSION 2.0 - Smart Risk Manager for cTrader
Logo „Renko SPX500”
5.0
(2)
Za darmo
Renko SPX500
OCV (open, close, high and low with % of the previous day and price changes in % of the previous day's close)
A futuristic digital illustration of a trading chart, showcasing bullish and bearish engulfing patterns with a robot rep
The strategy identifies order blocks from impulsive moves, opening trades with fixed stop loss and take profit.
Capture London volatility automatically with smart risk sizing and clean breakout logic.
20.1%
1.24
Współczynnik zysku
71.36%
Maksymalny spadek
Trading_stop Plus 🧾 General Description Trading_stop Plus is the complete, enhanced version of the original Trading_sto
Every trade is entered at the most powerful starting point, all with trailing stop loss. It’s like riding a rocket to ta
Advanced Automated SPX Algorithmic Trading System
4
Współczynnik zysku
5.44%
Maksymalny spadek
Trading_stop FULL for cTrader Description: Trading_stop is a fast, lightweight trailing stop panel for cTrader, designed
IRON SCALPEr TRIAL DAY 15
Analyzes weekly moving average crossovers and opens trades on the hourly chart with risk management based on ATR.
Od 18/12/2024
2
Sprzedaż
3.73K
Bezpłatne instalacje