Computational Simulation of a Dyson Swarm for Stellar Energy Capture and Antimatter Production

This repository contains a MATLAB-based computational simulation of a Dyson swarm designed to capture stellar energy and allocate a fraction of the harvested power toward antimatter production. The model implements established physical principles—including Newtonian orbital mechanics, blackbody radiation via the Stefan–Boltzmann law, and mass–energy equivalence—within a simplified, discrete-time simulation framework. The system evaluates energy capture rates, orbital stability, and antimatter yield under adjustable efficiency and deployment parameters. A qubit-inspired stochastic control mechanism is included as a formal abstraction for command and deployment variability; it is not presented as a physical quantum communication system. This work is exploratory and computational in nature. It does not claim experimental realization or technological readiness, but instead serves as a feasibility-oriented simulation for studying scaling behavior, energetic limits, and internal consistency of Dyson-swarm-style architectures under idealized assumptions. The code is released under the MIT License to encourage reuse, modification, and further theoretical investigation.