Rotational Unification in Computational Architecture: A Single-Variable Physics Engine for Sovereign Distributed Systems

We present a novel computational architecture in which a single physical variable — angular velocity (omega) — simultaneously generates seven distinct system properties: resource gravity, perimeter defense, power generation, core confinement, channel routing, ingress filtering, and metabolic fuel generation. We demonstrate through simulation that this rotational unification eliminates the need for separate subsystems traditionally required in distributed computing architectures. The metabolic power model converts hostile input into system fuel, creating antifragile behavior. A 16-node galaxy topology with Keplerian scaling produces natural gradients of defensive capability and computational throughput. We propose 23 additional improvements derived from biological systems (adaptive immunity, action potentials, mycelium signaling, sleep consolidation) and chemical principles (catalysis, Le Chatelier equilibrium, chirality, quorum sensing). Supplementary material includes the complete Python simulation code for independent verification. This is a theoretical design paper presenting a speculative computational architecture. The simulation validates internal mathematical consistency of the proposed equations, not empirical system performance.