Price Forecasting with Neural Networks

This program walks you through building, training, and deploying deep learning models for financial time series. You'll work with real market data, configure recurrent architectures, handle sequence preprocessing, and validate predictions against historical patterns. Each module combines theoretical grounding with hands-on implementation so you understand both what the model does and why it behaves that way.

Deep learning model training interface with price charts

What You'll Build

Five modules that progress from data preparation through model deployment. Each stage includes diagnostic exercises, performance benchmarks, and debugging walkthroughs. The program assumes you're comfortable with Python and basic statistics but doesn't require prior experience with neural networks or financial modeling.

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Start by sourcing price data from public APIs and CSV files. You'll clean irregular timestamps, handle missing values, and normalize features across different scaling ranges. Then build windowed sequences suitable for supervised learning, splitting data chronologically to prevent look-ahead bias. The module covers feature engineering for technical indicators, volatility measures, and lag variables.

Connecting to market data sources and managing rate limits
Resampling tick data into consistent intervals
Creating sliding windows for sequence prediction
Implementing train-validation-test splits for time series

Construct LSTM and GRU networks from scratch using TensorFlow and PyTorch. You'll configure layer stacking, dropout regularization, and bidirectional processing. Compare vanilla RNNs against gated variants to understand gradient flow and memory retention. The sessions include exercises on weight initialization, activation functions, and output layer configuration for regression tasks.

Building LSTM cells and understanding forget gates
Configuring stateful vs stateless modes
Applying dropout between recurrent layers
Benchmarking architectures on validation loss

Train models using adaptive learning rate schedules and early stopping criteria. You'll monitor loss curves, detect overfitting through validation metrics, and adjust hyperparameters systematically. The module covers gradient clipping to prevent exploding gradients, batch size tuning for memory constraints, and checkpoint management for long training runs. You'll also implement custom loss functions tailored to directional accuracy.

Setting up Adam optimizer with learning rate decay
Implementing gradient norm monitoring
Configuring TensorBoard for metric visualization
Using validation holdout to tune regularization strength

Assess model performance using mean absolute error, directional accuracy, and profit-based metrics. You'll construct backtests on held-out test data, compare predictions against baseline strategies, and analyze error distributions across different market regimes. The sessions include visualization techniques for prediction intervals, feature importance extraction, and failure case analysis to identify when the model breaks down.

Calculating Sharpe ratio from predicted signals
Plotting residual distributions for error analysis
Applying SHAP values to interpret feature contributions
Conducting walk-forward validation tests

Package trained models for inference in live environments. You'll export weights, configure REST API endpoints using Flask or FastAPI, and implement data preprocessing pipelines that mirror training steps. The module covers latency optimization, model versioning, and monitoring systems to detect distribution drift. You'll also set up logging for prediction audits and error tracking in production.

Serializing models with ONNX for cross-platform use
Building containerized inference services with Docker
Implementing prediction caching for frequent requests
Setting up automated retraining triggers
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