Recursive Reparodynamics XI: Full-System Stability via Recursive TGRM Integration

This paper presents the eleventh installment of the Recursive Reparodynamics research series, validating the capacity of recursive Targeted Gradient Repair Mechanisms (TGRM) to sustain full-system biological stability over extended generational scales. Building on the ten prior Reparodynamics simulations—covering DNA damage repair, inflammatory feedback reversal, stem-cell rejuvenation, protein misfolding correction, neural self-repair, oxidative-stress resistance, genomic-instability reversal, epigenetic drift correction, telomere shortening control, and energy-layer rejuvenation—this study unifies all layers into a single recursive feedback loop. The integrated model operated with a baseline entropy of 0.90 across 1,000 generations. Control: Decayed to ≈ 0 by generation 50. Recursive TGRM: Stabilized at ≈ 15 entropy units; latency ≈ 0 by generation 200; cumulative rebound ≈ 18. Results demonstrate that recursive TGRM coordination across multiple biological subsystems achieves long-term homeostatic equilibrium, marking the first successful demonstration of system-wide Reparodynamic stabilization. This milestone provides the foundation for forthcoming cross-species and human-system simulations to be explored in Reparodynamics XII.