Reparodynamics v1.0 — Paper 3: Universal Symbiosis and Ecosystem-Scale Self-Repair

This article extends Reparodynamics (v1.0) into multi-agent, multi-domain, and hybrid quantum–biological regimes to test whether verified self-repair scales beyond single systems. Using the Targeted Gradient Repair Mechanism (TGRM) and the efficiency law RYE = ΔR / E, experiments were staged across distributed foresight, global optimization, resilience under shocks, predictive preemption, autonomous evolution, emergent intelligence, bio-inspired feedback, symbiotic integration, quantum noise tolerance, transcendent unity, and ecosystem-scale coupling. Across eleven phases, coherence persisted (0.96 – 1.00), RYE averaged ≈ 0.99, and latency dropped from 0.25 s to 0.02 s equivalents. Predictive loops stabilized 37 failure precursors, variance declined 22 %, and hybrid quantum–bio integration maintained equilibria near 0.86 with sustained recovery under ten steps. Findings indicate that repair efficiency can be conserved and propagated across domains when energy use is targeted and verified. This supports the Reparodynamics hypothesis that abundance emerges when RYE rises and coherence resists drift across scales.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-11
DOI
https://doi.org/10.5281/zenodo.17576543
Primary Topic
Gene Regulatory Network Analysis
Type
article
Field-Weighted Citation Impact
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article

Reparodynamics v1.0 — Paper 3: Universal Symbiosis and Ecosystem-Scale Self-Repair

Zenodo (CERN European Organization for Nuclear Research)
Gene Regulatory Network Analysis
article

Reparodynamics v1.0 — Paper 3: Universal Symbiosis and Ecosystem-Scale Self-Repair

article en

Abstract

This article extends Reparodynamics (v1.0) into multi-agent, multi-domain, and hybrid quantum–biological regimes to test whether verified self-repair scales beyond single systems. Using the Targeted Gradient Repair Mechanism (TGRM) and the efficiency law RYE = ΔR / E, experiments were staged across distributed foresight, global optimization, resilience under shocks, predictive preemption, autonomous evolution, emergent intelligence, bio-inspired feedback, symbiotic integration, quantum noise tolerance, transcendent unity, and ecosystem-scale coupling. Across eleven phases, coherence persisted (0.96 – 1.00), RYE averaged ≈ 0.99, and latency dropped from 0.25 s to 0.02 s equivalents. Predictive loops stabilized 37 failure precursors, variance declined 22 %, and hybrid quantum–bio integration maintained equilibria near 0.86 with sustained recovery under ten steps. Findings indicate that repair efficiency can be conserved and propagated across domains when energy use is targeted and verified. This supports the Reparodynamics hypothesis that abundance emerges when RYE rises and coherence resists drift across scales.

Zenodo (CERN European Organization for Nuclear Research)
Dynamic Research (United States) (US), European Thermodynamics (United Kingdom) (GB)
Affordable and clean energy
Openalex Percentile: Top 43%
Gene Regulatory Network Analysis
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