User Guide
Welcome to the User Guide for TurboGuard, your comprehensive toolkit for time series anomaly detection and forecasting on turbofan engine data. This guide walks you through the essential components to help you get started, understand the core functionality, and customize the toolkit to your specific needs.
Overview
TurboGuard is designed to provide a complete solution for turbofan engine health monitoring and predictive maintenance:
Comprehensive data preprocessing for turbofan data
Advanced feature engineering with automated feature selection
Multiple model architectures including LSTM, and Autoencoder networks
Dual-mode anomaly detection using both forecasting residuals and reconstruction errors
Interactive visualization suite with dashboards, heatmaps, and diagnostic plots
Flexible configuration system supporting multiple deployment scenarios
Getting Started
Before diving into the individual components, ensure you have installed TurboGuard and its dependencies. This guide assumes you have:
Python 3.9+ environment
Required packages installed via
pip install -r requirements.txtAccess to CMAPSS dataset or similar turbofan engine data
Basic understanding of time series analysis and machine learning concepts
Core Components
Installation & Setup
Complete installation guide including environment setup, dependency management, and initial configuration for different deployment scenarios.
Data Preprocessing
Comprehensive data handling workflows covering:
CMAPSS dataset loading and validation
Custom data format adapters
Data quality assessment and cleaning
Feature Engineering
Advanced feature extraction and selection:
Sensor data transformations
Statistical feature derivation
Domain-specific turbofan features
Automated feature selection algorithms
Feature importance analysis
Model Training
Detailed training workflows for multiple architectures:
Forecasting Model: LSTM
Autoencoder Models: Various architectures for reconstruction-based anomaly detection
Training optimization, hyperparameter tuning, and validation strategies (next version of the project)
Anomaly Detection
Multi-layered anomaly detection system:
Threshold-based detection using statistical methods (also a dynamical but not integrate in the application yet)
Forecasting residual analysis for prediction-based anomalies
Reconstruction error analysis for pattern-based anomalies
Adaptive thresholding for evolving operational conditions
Forecasting
Prediction capabilities:
Multi-horizon predictions
Uncertainty quantification
Prediction performance monitoring
Visualization
Rich visualization ecosystem:
Interactive dashboards for data monitoring
Anomaly heatmaps for temporal pattern analysis
Model performance plots including training curves and validation metrics
Feature importance visualizations
Comparative analysis tools for multiple engines or time periods
Configuration
Flexible configuration management:
YAML-based configuration for all components
Environment-specific settings (development, staging, production)
Model configuration templates for common use cases
Logging and monitoring configuration
Troubleshooting
Common issues and solutions:
Installation problems and dependency conflicts
Data loading errors and format issues
Model training failures and performance optimization
Memory and computational considerations
Deployment and scaling guidance
Advanced Features
Multi-engine monitoring with fleet-wide anomaly detection
Transfer learning for adapting models to new engine types
Online learning for continuous model updates
A/B testing framework for model comparison
Integration hooks for external monitoring systems
Support & Community
Documentation: Comprehensive guides and documentation
Examples: Jupyter notebooks with real-world use cases
GitHub Issues: Bug reports and feature requests
Community Forum: Discussion and user support
Professional Support: Enterprise consulting and custom development
Note
For detailed implementation examples and tutorials, see the accompanying Jupyter notebooks in the examples/ directory.