RiskOptimizer is an advanced AI-powered portfolio risk management platform that combines traditional financial models with cutting-edge artificial intelligence and blockchain technology. This platform helps investors optimize their investment strategies, manage risk effectively, and make data-driven decisions.
| Section | Description | Link |
|---|---|---|
| Installation | Get started with RiskOptimizer installation | INSTALLATION.md |
| Usage Guide | Learn how to use the platform | USAGE.md |
| API Reference | Complete API documentation | API.md |
| CLI Reference | Command-line interface guide | CLI.md |
| Configuration | Configure the platform | CONFIGURATION.md |
| Feature Matrix | Overview of all features | FEATURE_MATRIX.md |
| Architecture | System architecture and design | ARCHITECTURE.md |
| Examples | Working examples and tutorials | examples/ |
| Contributing | Contribution guidelines | CONTRIBUTING.md |
| Troubleshooting | Common issues and solutions | TROUBLESHOOTING.md |
Get RiskOptimizer running in 3 steps:
git clone https://github.com/quantsingularity/RiskOptimizer.git
cd RiskOptimizer
./scripts/setup_environment.sh# Backend
cd code/backend
pip install -r requirements.txt
# web-frontend
cd ../..
cd web-frontend
npm install
# mobile-frontend
cd ../..
cd mobile-frontend
npm install# Use the convenience script
./scripts/run_riskoptimizer.sh
# Or start components individually
# Backend: cd code/backend && python app.py
# Frontend: cd web-frontend && npm startThe API will be available at http://localhost:5000 and the web interface at http://localhost:3000.
- ✨ Performance monitoring with Prometheus metrics
- 🔐 Advanced JWT-based authentication with refresh tokens
- 📊 Real-time risk calculations with Redis caching
- 🤖 AI-powered portfolio optimization models
- ⛓️ Blockchain integration for transparent portfolio tracking
- 📈 Advanced risk metrics (VaR, CVaR, Sharpe Ratio, Max Drawdown)
- 🎯 Efficient frontier calculation for optimal portfolios
- 📱 Responsive web dashboard and mobile app support
Calculate Value at Risk (VaR), Conditional VaR, stress testing, correlation analysis, and volatility forecasting using GARCH models.
Implement Modern Portfolio Theory, multi-objective optimization, automated rebalancing, and tax-efficient strategies.
Leverage machine learning for market trend prediction, anomaly detection, sentiment analysis, and personalized recommendations.
Transparent transaction records, smart contract automation, decentralized identity, and tokenized asset support.
| Component | Minimum | Recommended |
|---|---|---|
| Python | 3.8+ | 3.10+ |
| Node.js | 14+ | 18+ |
| PostgreSQL | 12+ | 14+ |
| Redis | 5+ | 7+ |
| RAM | 4GB | 8GB+ |
| Storage | 10GB | 20GB+ |
Backend: Python (Flask), PostgreSQL, Redis, Celery
Frontend: React, TypeScript, D3.js, Recharts
AI/ML: TensorFlow, PyTorch, scikit-learn
Blockchain: Ethereum, Solidity, Web3.py
Infrastructure: Docker, Kubernetes, GitHub Actions
docs/
├── README.md # This file
├── INSTALLATION.md # Installation guide
├── USAGE.md # Usage guide
├── API.md # API reference
├── CLI.md # CLI reference
├── CONFIGURATION.md # Configuration guide
├── FEATURE_MATRIX.md # Feature overview
├── ARCHITECTURE.md # Architecture details
├── CONTRIBUTING.md # Contribution guide
├── TROUBLESHOOTING.md # Issue resolution
├── api/ # API-specific docs
├── examples/ # Code examples
│ ├── BASIC_USAGE.md
│ ├── ADVANCED_FEATURES.md
│ └── AI_OPTIMIZATION.md
- New Users: Start with INSTALLATION.md
- Developers: Read CONTRIBUTING.md and ARCHITECTURE.md
- API Integration: Check API.md and examples/
- Configuration: See CONFIGURATION.md for environment setup
- Troubleshooting: Visit TROUBLESHOOTING.md for common issues
See ML_MODEL_PERFORMANCE.md for full empirical validation:
- Backtested VaR: All methods pass Kupiec unconditional coverage test (p > 0.05)
- GBM VaR Model: Test RMSE 0.0041, 94.7 % coverage at 95 % confidence
- Hybrid VaR (GBM + Historical): Best coverage at 95.1 %, pinball loss 0.00081
- EVT (POT): Confirmed fat-tailed distributions (ξ > 0) for all assets
- Max-Sharpe Portfolio: Out-of-sample Sharpe 1.15 vs. 0.83 equal-weight baseline
- Parallel Engine: 5.9× speedup on 8-core CPU for Monte Carlo (100k scenarios)