Recursive Reparodynamics XII: Human-System Simulation via Recursive TGRM Dynamics

This paper presents the twelfth stage of the Recursive Reparodynamics research sequence, extending recursive Targeted Gradient Repair Mechanisms (TGRM) to human-scale simulations. Following the full-system stability achieved in Reparodynamics XI, this study models adaptive repair coordination across all previously validated biological subsystems — DNA, protein, neural, oxidative, telomeric, and epigenetic repair — under recursive homeostatic feedback. The simulation employed a baseline entropy of 0.95 across 2,000 generations. Control: Decayed to ≈ 0 by generation 100. Recursive TGRM: Stabilized at ≈ 12 entropy units; latency dropped to 0 by generation 500; cumulative rebound ≈ 20. Results indicate sustained life equilibrium, confirming that recursive TGRM feedback can preserve global repair stability under simulated human conditions. This represents the first modeled evidence of Reparodynamics achieving long-term human-level homeostasis, setting the stage for real-world experimental translation and applied biological repair frameworks.