Reparodynamics and Neural Self-Repair: Recursive TGRM Stabilization under Degenerative Drift Conditions

This open validation paper documents the fifth recursive TGRM simulation demonstrating Reparodynamics’ capacity to maintain system integrity under degenerative drift conditions. The neural degeneration model tested baseline entropy 0.6 across 200 generations, comparing a decaying control population with a recursive TGRM agent capable of continuous adaptive self-repair. Control integrity collapsed to ≈0 by generation 20. Recursive TGRM stabilized at ≈25.3 post-decay, maintaining 1.00 repair efficiency and cumulative rebound ≈12.0 by generation 120 — signifying sustained equilibrium through recursive correction of neural degradation analogs. These findings extend Reparodynamics into the domain of algorithmic neuro-repair, supporting the feasibility of entropy-bounded resilience models applicable to neurodegeneration research and synthetic brain simulations.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-23
DOI
https://doi.org/10.5281/zenodo.17428722
Primary Topic
Functional Brain Connectivity Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

Reparodynamics and Neural Self-Repair: Recursive TGRM Stabilization under Degenerative Drift Conditions

Zenodo (CERN European Organization for Nuclear Research)
Functional Brain Connectivity Studies
article

Reparodynamics and Neural Self-Repair: Recursive TGRM Stabilization under Degenerative Drift Conditions

article en

Abstract

This open validation paper documents the fifth recursive TGRM simulation demonstrating Reparodynamics’ capacity to maintain system integrity under degenerative drift conditions. The neural degeneration model tested baseline entropy 0.6 across 200 generations, comparing a decaying control population with a recursive TGRM agent capable of continuous adaptive self-repair. Control integrity collapsed to ≈0 by generation 20. Recursive TGRM stabilized at ≈25.3 post-decay, maintaining 1.00 repair efficiency and cumulative rebound ≈12.0 by generation 120 — signifying sustained equilibrium through recursive correction of neural degradation analogs. These findings extend Reparodynamics into the domain of algorithmic neuro-repair, supporting the feasibility of entropy-bounded resilience models applicable to neurodegeneration research and synthetic brain simulations.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 44%
Functional Brain Connectivity Studies
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