The Autophage Protocol simulations hub provides access to all simulation tools and analyses that validate the protocol's economic and biological principles. From interactive browser-based visualizations to comprehensive Python scripts, these tools enable empirical verification of theoretical predictions.
Choose from the following simulation types to explore different aspects of the Autophage Protocol:
Real-time, browser-based simulations with adjustable parameters. Visualize how the protocol maintains economic balance through token decay and activity rewards.
Comprehensive stress testing with agents designed to break the protocol. Demonstrates robustness against Sybil attacks, collusion, and wealth concentration attempts.
Detailed walkthrough of the Python simulation that produced the litepaper's results. Includes complete source code with line-by-line explanations.
Interactive economic model validating revenue streams and unit economics. Demonstrates path to profitability and sustainable growth.
Demonstrates gas optimization strategies achieving 17,000 gas savings per unused day through lazy decay and 75% reduction via batching.
Comprehensive guide to the Autophage Protocol smart contracts, including implementation details, security considerations, and deployment strategies.
Across all simulations, the Autophage Protocol demonstrates consistent convergence to equitable wealth distribution:
All simulations share common technical foundations while exploring different aspects of the protocol:
Built with Chart.js for visualization and vanilla JavaScript for computation. Real-time parameter adjustment allows exploration of edge cases. Simulations run entirely client-side for privacy and performance.
Implemented using NumPy for numerical computation, Matplotlib for visualization, and standard libraries for statistical analysis. Monte Carlo methods ensure robustness across parameter ranges. Agent-based modeling captures emergent behaviors.
Each simulation type validates different protocol aspects: economic convergence through Gini coefficient tracking, system stability via stress testing, and theoretical predictions through statistical analysis. Results are cross-validated between implementation approaches.
For researchers and developers interested in extending these simulations:
"The best way to understand a complex system is to simulate it under adversarial conditions."