# Getting Started with DVOACAP-Python > **🎉 v1.0.1 Release - Production Ready with 2.3x Performance Boost!** > DVOACAP-Python has reached production-ready status with comprehensive HF propagation prediction capabilities validated against VOACAP reference data. Version 1.0.1 delivers a 2.3x speedup through algorithmic optimizations. This guide will help you install DVOACAP-Python and run your first propagation prediction. ## Prerequisites - Python 3.11 or higher - pip (Python package manager) - git (for cloning the repository) ## Installation Options Choose the installation option that fits your needs: ### Option 1: Core Library Only (Lightweight) For developers who want just the propagation engine without the web dashboard: ```bash # Clone the repository git clone https://github.com/skyelaird/dvoacap-python.git cd dvoacap-python # Install just the propagation engine pip install -e . ``` **Includes:** - Core propagation prediction engine - All ionospheric data files (CCIR/URSI maps) - Basic command-line tools **Disk space:** ~50 MB ### Option 2: With Dashboard (Recommended for Most Users) Includes the Flask server and web-based visualization dashboard: ```bash # Clone the repository git clone https://github.com/skyelaird/dvoacap-python.git cd dvoacap-python # Install library + dashboard dependencies pip install -e ".[dashboard]" ``` **Includes:** - Everything from Option 1 - Flask web server - Interactive dashboard UI - Real-time visualization tools **Disk space:** ~60 MB ### Option 3: Development Setup (For Contributors) Includes all dependencies plus testing and development tools: ```bash # Clone the repository git clone https://github.com/skyelaird/dvoacap-python.git cd dvoacap-python # Install everything pip install -e ".[all]" ``` **Includes:** - Everything from Options 1 and 2 - pytest and testing tools - Development utilities - Code quality tools **Disk space:** ~70 MB ## Verification Verify your installation: ```bash # Test the installation python -c "from dvoacap import FourierMaps; print('DVOACAP installed successfully!')" # Run basic tests (development installation only) pytest tests/test_path_geometry.py -v ``` ## Your First Prediction ### Basic Example: Ionospheric Parameters This example computes ionospheric parameters at a single location: ```python from dvoacap import FourierMaps, ControlPoint, IonoPoint, compute_iono_params import math # Load CCIR/URSI ionospheric maps maps = FourierMaps() maps.set_conditions(month=6, ssn=100, utc_fraction=0.5) # June, SSN=100, noon UTC # Create control point at Philadelphia pnt = ControlPoint( location=IonoPoint.from_degrees(40.0, -75.0), east_lon=-75.0 * math.pi/180, distance_rad=0.0, local_time=0.5, # Noon local zen_angle=0.3, # Solar zenith angle zen_max=1.5, mag_lat=50.0 * math.pi/180, mag_dip=60.0 * math.pi/180, gyro_freq=1.2 ) # Compute ionospheric parameters compute_iono_params(pnt, maps) # Display results print(f"E layer: foE = {pnt.e.fo:.2f} MHz at {pnt.e.hm:.0f} km") print(f"F1 layer: foF1 = {pnt.f1.fo:.2f} MHz at {pnt.f1.hm:.0f} km") print(f"F2 layer: foF2 = {pnt.f2.fo:.2f} MHz at {pnt.f2.hm:.0f} km") ``` **Expected output:** ``` E layer: foE = 3.45 MHz at 110 km F1 layer: foF1 = 5.20 MHz at 200 km F2 layer: foF2 = 8.50 MHz at 300 km ``` ### Advanced Example: Path Prediction Predict propagation between two locations: ```python from dvoacap import PredictionEngine from datetime import datetime # Initialize prediction engine engine = PredictionEngine() # Configure prediction result = engine.predict( tx_lat=40.0, # Philadelphia tx_lon=-75.0, rx_lat=51.5, # London rx_lon=-0.1, frequency=14.2, # 20m band utc_time=datetime(2025, 6, 15, 12, 0), # Noon UTC ssn=100, # Solar activity tx_power=100, # Watts tx_antenna_gain=2.0 # dBi ) # Display results print(f"MUF: {result.muf:.2f} MHz") print(f"Signal strength: {result.snr:.1f} dB") print(f"Reliability: {result.reliability:.0f}%") print(f"Best frequency: {result.fot:.2f} MHz") ``` ## Using the Dashboard If you installed with dashboard support, start the web interface: ```bash cd Dashboard pip install -r requirements.txt python3 server.py ``` Then open your browser to: [http://localhost:8000](http://localhost:8000) **Dashboard Features:** - Interactive propagation map - Real-time band condition meters - DXCC tracking - Solar data integration - One-click prediction updates See the [Dashboard Guide](Dashboard-Guide) for complete documentation. ## Common Installation Issues ### Issue: "ModuleNotFoundError: No module named 'dvoacap'" **Solution:** ```bash # Make sure you're in the repository directory cd dvoacap-python # Reinstall in editable mode pip install -e . ``` ### Issue: "Permission denied" when installing **Solution:** ```bash # Install in user directory (no sudo required) pip install -e . --user ``` ### Issue: "numpy" or "scipy" installation fails **Solution:** ```bash # Install numpy and scipy separately first pip install numpy scipy # Then install DVOACAP pip install -e . ``` ### Issue: Dashboard won't start **Solution:** ```bash # Make sure Flask is installed pip install flask # Check if port 8000 is available lsof -i :8000 # Use a different port if needed python3 server.py --port 8080 ``` ## Next Steps Now that you have DVOACAP-Python installed: 1. **[API Reference](API-Reference)** - Learn about core classes and methods 2. **[Architecture](Architecture)** - Understand the 5-phase structure 3. **[Integration Guide](Integration-Guide)** - Build applications with DVOACAP 4. **[Dashboard Guide](Dashboard-Guide)** - Customize the web interface 5. **[Examples Repository](https://github.com/skyelaird/dvoacap-python/tree/main/examples)** - More code examples ## Getting Help - **Issues:** [github.com/skyelaird/dvoacap-python/issues](https://github.com/skyelaird/dvoacap-python/issues) - **Discussions:** [github.com/skyelaird/dvoacap-python/discussions](https://github.com/skyelaird/dvoacap-python/discussions) - **Troubleshooting:** [Troubleshooting Guide](Troubleshooting) --- **Ready to make some predictions!** 📡 73!