Thank you for your interest in contributing to AlphaDesign! We welcome contributions from everyone. AlphaDesign is a cutting-edge research project that combines reinforcement learning and genetic algorithms to optimize Formula 1 front wing aerodynamic designs.
- Getting Started
- Development Setup
- How to Contribute
- Pull Request Process
- Code Style
- Testing
- Reporting Issues
- Community
AlphaDesign is a hybrid AI-driven optimization system for Formula 1 front wing aerodynamic designs. The project combines:
- Neural Network Architecture: Actor-critic model with policy and value heads
- Genetic Algorithm Engine: Population-based optimization with F1-specific mutations
- CFD Integration: Computational fluid dynamics analysis for performance evaluation
- Constraint Validation: F1 regulation compliance and structural integrity checking
- Algorithm Improvements: Enhancements to neural networks, genetic algorithms, or optimization strategies
- CFD Integration: Better fluid dynamics solvers and analysis methods
- Performance Optimization: Memory management, GPU acceleration, parallel processing
- Documentation: Code comments, API documentation, tutorials, and examples
- Testing: Unit tests, integration tests, performance benchmarks
- Bug Fixes: Issue resolution and stability improvements
- Feature Development: New optimization techniques, visualization tools, or analysis capabilities
- Python 3.8+ with pip
- Git for version control
- Linux/macOS recommended (Windows with WSL2 supported)
- CUDA-capable GPU recommended for neural network training (optional but preferred)
-
Clone the repository
git clone https://github.com/HyperKuvid-Labs/AlphaDesign.git cd AlphaDesign -
Create a virtual environment
python -m venv alphadesign-env source alphadesign-env/bin/activate # On Windows: alphadesign-env\Scripts\activate
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Install dependencies
cd RL pip install -r requirements.txt -
Verify installation
python verify_setup.py
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Configure the system
- Review and modify
config.jsonfor your hardware capabilities - Adjust
population_size,max_generations, andparallel_processesbased on your system - Set
neural_network_enabled: falseif running on CPU-only systems
- Review and modify
RL/
├── alphadesign.py # Main entry point
├── main_pipeline.py # Core optimization pipeline
├── wing_generator.py # F1 wing geometry generation
├── cfd_analysis.py # Computational fluid dynamics
├── config.json # System configuration
├── genetic_algo_components/ # Genetic algorithm modules
│ ├── initialize_population.py
│ ├── crossover_ops.py
│ ├── mutation_strategy.py
│ └── fitness_evaluation.py
└── neural_network_components/ # Neural network modules
├── network_initialization.py
├── forward_pass.py
├── policy_head.py
├── value_head.py
└── loss_calculation.py
- Check existing issues on GitHub to see if your idea is already being discussed
- Open an issue to discuss major changes or new features before implementation
- Fork the repository and create a feature branch from
main
-
Create a feature branch
git checkout -b feature/your-feature-name
-
Make your changes
- Focus on the
RL/directory for core algorithm improvements - Follow the existing code structure and patterns
- Add docstrings and comments for complex algorithms
- Focus on the
-
Test your changes
python -m pytest tests/ python verify_setup.py
-
Commit your changes
git add . git commit -m "feat: add your descriptive commit message"
- Enhance the actor-critic architecture
- Implement better loss functions or training strategies
- Add regularization techniques or optimization algorithms
- Improve convergence detection and early stopping
- Develop F1-specific mutation operators
- Implement advanced crossover strategies
- Add multi-objective optimization capabilities
- Optimize population management and selection strategies
- Integrate more sophisticated fluid dynamics solvers
- Improve mesh generation for complex wing geometries
- Add parallel CFD evaluation capabilities
- Enhance performance metrics calculation
- GPU acceleration for neural network training
- Memory optimization for large populations
- Parallel processing improvements
- Profiling and benchmarking tools
-
Ensure all tests pass
cd RL python -m pytest tests/ -v flake8 . --max-line-length=88 --exclude=tests/ mypy . --ignore-missing-imports
-
Update documentation
- Add docstrings to new functions and classes
- Update README.md if adding new features
- Include inline comments for complex algorithms
-
Create a Pull Request
- Use a descriptive title starting with
feat:,fix:,docs:, orrefactor: - Fill out the PR template completely
- Reference any related issues with
Fixes #issue-number
- Use a descriptive title starting with
-
PR Review Process
- Maintainers will review your code for correctness and performance
- Address feedback promptly and push updates to your branch
- All CI checks must pass before merging
- ✅ All tests pass
- ✅ Code follows style guidelines
- ✅ Documentation is updated
- ✅ No breaking changes without discussion
- ✅ Performance impact is considered
- ✅ F1 regulation compliance is maintained
- PEP 8 compliance with 88-character line limit
- Type hints for all function parameters and return values
- Docstrings in Google style for all public functions and classes
- Black for code formatting:
black RL/ --line-length=88
"""Module docstring describing the purpose and functionality."""
import standard_library
import third_party_packages
import local_modules
class ExampleClass:
"""Class docstring with brief description.
Args:
param1: Description of parameter.
param2: Description of parameter.
"""
def __init__(self, param1: int, param2: float) -> None:
self.param1 = param1
self.param2 = param2
def process_data(self, data: np.ndarray) -> np.ndarray:
"""Process input data with specific algorithm.
Args:
data: Input data array to process.
Returns:
Processed data array.
Raises:
ValueError: If data shape is invalid.
"""
# Implementation details
pass- Use
config.jsonfor hyperparameters and system settings - Document all configuration options with comments
- Validate configuration values at runtime
- Provide sensible defaults for all parameters
RL/tests/
├── test_genetic_algo/
├── test_neural_network/
├── test_cfd_analysis/
├── test_integration/
├── conftest.py
└── README.md
# Navigate to RL directory
cd RL
```bash
# Navigate to RL directory
cd RL
# Run all tests
python -m pytest tests/ -v
# Run specific test categories
python -m pytest tests/test_genetic_algo/ -v
python -m pytest tests/test_neural_network/ -v
# Run with coverage
python -m pytest tests/ --cov=. --cov-report=html
### Writing Tests
- **Unit tests** for individual functions and classes
- **Integration tests** for component interactions
- **Performance tests** for optimization algorithms
- **Regression tests** for F1 regulation compliance
```python
import pytest
import numpy as np
from RL.wing_generator import WingGenerator
class TestWingGenerator:
def test_generate_valid_wing(self):
"""Test that wing generation produces valid geometry."""
generator = WingGenerator()
wing = generator.generate_wing()
assert wing is not None
assert wing.validate_f1_regulations()
assert wing.calculate_volume() > 0
When reporting bugs, please include:
-
Environment details
- Python version
- Operating system
- Hardware specifications (CPU, GPU, RAM)
- Package versions from
pip freeze
-
Reproduction steps
- Minimal code example
- Input data or configuration
- Expected vs. actual behavior
-
Error information
- Full error traceback
- Log files from
logs/directory - Performance metrics if relevant
For new features, please describe:
- Use case: What problem does this solve?
- Proposed solution: How should it work?
- Alternatives considered: Other approaches you've thought about
- Impact: How does this fit with existing functionality?
Include:
- Profiling data: Use
memory-profilerand timing information - System specifications: Hardware and configuration details
- Scale: Population sizes, generation counts, dataset sizes
- Comparison: Performance before/after or vs. expectations
- GitHub Issues: Bug reports, feature requests, technical discussions
- GitHub Discussions: General questions, ideas, and community chat
- Code Reviews: Technical feedback and collaborative improvement
We are committed to providing a welcoming and inclusive environment:
- Be respectful in all interactions
- Be constructive when providing feedback
- Be collaborative and help others learn
- Be patient with newcomers and different experience levels
- Documentation: Check README.md and inline code comments
- Issues: Search existing issues before creating new ones
- Discussions: Ask questions in GitHub Discussions
- Code Review: Request feedback on your contributions
Contributors will be acknowledged in:
- CONTRIBUTORS.md file listing all contributors
- Release notes for significant contributions
- Research publications for algorithmic improvements (with permission)
Thank you for contributing to AlphaDesign! Your contributions help advance the state of AI-driven aerodynamic optimization and Formula 1 engineering research.