
Load the bitcoin dataset into a Colab notebook as a pandas DataFrame of 15-minute candles with timestamp, open, high, low, close, and volume, visualizing closing prices to show non-stationary trends.
Explore how the dot product computes each layer's outputs from inputs, weights, and biases, using a single input X and a two node hidden layer with 96 input prices.
Reshape the input X into a two-dimensional array, feed to FC1 with 20 specialists, apply activation function, pass to a second layer with 40 specialists, and obtain the final prediction.
Create mini batches to split your dataset into smaller x and y chunks, producing batches as pairs and enabling shuffled, faster training with more frequent weight updates and reduced overfitting.
Evaluate a PyTorch model on the test set with torch.no_grad and eval mode, track train_losses and test_losses, plot losses, note overfitting in Bitcoin price prediction, and preview backtesting for profitability.
Backtest a trading strategy using model predictions by aligning opens and closes with the prediction index and skipping the first 96 elements, using backtest_opens and backtest_closes in the trading simulation.
Scale financial time series with per-feature max-abs scalers, using fit on training data and transform on test data to prevent leakage, then prepare features for model training.
Save the training state with torch.save to resume later. Create a models folder and save best weights when equity exceeds 3,000; load training data to resume with a reproducible seed.
Explains how Conv1D in PyTorch detects spikes in time series, demonstrates kernel sliding, channels, and backpropagation, and explains why Conv1D captures temporal context over linear layers.
Implement conv1d in PyTorch to build a two-layer cnn with 32 kernels and kernel size 3. Compare short-term bitcoin price predictions to a linear model, and explore padding and activation.
Load the training scalers from the bitcoin dataset, reuse buildFeatures and preprocessData, and prepare the scalers to normalize live data before trading bot predictions.
Load trained models with load_models.py, preprocess live Binance data using original training scalers, then predict, combine outputs, and decide buy or sell actions for the trading bot.
Build a Binance futures trading bot that updates current futures prices, prepares model input from data, runs async limit orders, and tracks equity, position, and fees.
Build a margin trading bot on Binance with Python, covering library setup, logging, and the Bot class, while explaining maker versus taker, slippage, latency, and FDUSD pairing.
Assemble and run a 24/7 margin trading bot on Binance using trained models, scalers, and a Bot class, with live market data, model signals, order management, and state persistence.
Add high and low prices to preprocess_data to enable stop-loss checks within each candle and implement risk-first backtest logic to improve equity.
Implement a stop-loss feature by adding a 0.02 threshold and a close_position method using market orders to exit long or short positions, with a stop loss flag to prevent duplicates.
Master AI Trading: Build a Production-Grade Machine Learning Bot
Take your trading from intuition to automated science. This course provides a comprehensive, step-by-step framework for building a fully autonomous AI Trading Bot—moving from raw market data ingestion to high-performance execution on Binance or Kraken.
IMPORTANT: This course treats trading as a Quantitative Science, not a game of chance.
The Core Case Study: Engineering a 4x Return
We don't just write code; we validate performance. Using a backtested starting capital of 1,000, we demonstrate how to scale a systematic account toward 4,000 using advanced Machine Learning models. This strategy is backed by institutional-grade metrics, ensuring that growth is driven by risk-adjusted logic, not luck.
What you’ll learn:
Ingest & Engineer Financial Data: Automate the collection, cleaning, and scaling of real-time 15-minute Bitcoin data for algorithmic use.
Master Quantitative Preprocessing: Apply advanced time-series techniques, including stationarity testing and multi-dimensional feature engineering.
Architect Deep Learning Models: Design and train high-performance AI Trading models using Conv1D and LSTM neural networks.
Deploy Ensemble Strategies: Combine multiple predictive models to reduce variance and ensure more stable, robust performance in volatile markets.
Build an Autonomous Trading Bot: Implement a production-grade Python system that executes real-time trades on major exchanges via API.
Validate with Rigorous Backtesting: Evaluate your strategies using historical data to ensure high-probability outcomes before deploying capital.
Optimize for Risk-Adjusted Returns: Understand the science of the Sharpe Ratio and drawdowns to turn trading into a systematic enterprise.
Who this course is for:
Software Engineers & Python Developers: Those looking to transition into Fintech or bridge the gap between backend engineering and quantitative finance.
Quantitative Traders & Analysts: Professionals who want to evolve from manual or rule-based trading to autonomous, AI-driven systems.
Data Science Professionals: Learners looking for a production-grade, end-to-end project that applies Deep Learning (LSTM/Conv1D) to volatile, real-world time-series data.
Finance & Investment Professionals: Individuals seeking to understand the "Black Box" of AI Trading through a transparent, science-first approach.
Computer Science Students: Anyone with a Python foundation who wants to build a portfolio-ready Automated Trading System.
By the end of this course, you’ll have a working trading bot, a deep understanding of the machine learning pipeline for trading, and the confidence to experiment with your own ideas in crypto markets.