ENTRO-OMEGA: Grand Unification of Informational Entropy — OMEGA v1.0 Universal Adaptive Stabiliser for Autonomous AI Infrastructure

ENTRO-OMEGA (E-LAB-10) is the tenth and culminating project of the EntropyLab decadal research programme. This paper presents OMEGA v1.0, a unified self-governing entropic control engine that synthesises all nine predecessor protocols (E-LAB-01 through E-LAB-09) into a single portable system deployable across cloud, edge, and local infrastructure without manual reconfiguration.The central theoretical contribution is the Omega State Function Ωcore(t) — a five-component dynamical vector simultaneously tracking thermodynamic dissipation (ρ), rhythmic pulsation (P), spectral memory fidelity (G), probabilistic collapse likelihood (Q), and network coherence (N) — governed by a Unified Field Equation (UFE) derived from non-equilibrium statistical mechanics and information geometry. The Universal Adaptive Stabiliser (UAS) is derived analytically from the UFE with formal input-to-state stability (ISS) guarantees, establishing that Ωcore(t) remains within a computable neighbourhood of the Absolute Steady State Ω* under all bounded disturbances. A self-adaptive breathing threshold θ(t), modulated by the composite Network Health Index H(t), eliminates the need for operator intervention across all tested stress regimes.Empirical evaluation across three synthetic benchmarks — OmniScrape (32-node scraper/ETL), PolyLLM (16-node LLM inference), and HybridEdge (64-node edge-cloud hybrid) — confirms: collapse rate 0.0%, mean peak-load reduction 91.4%, throughput gain 44.5%, convergence index Ωconv = 0.9987, and health steady state Hss > 0.991 across 900 total trials. All results meet or exceed pre-specified target values and surpass the best single-protocol baseline (ENTRO-PULSE, E-LAB-09) by synergistic integration rather than additive combination.ENTRO-OMEGA constitutes the first operational implementation of a Grand Unification Theory (GUT) for informational entropy, establishing a physical constitution for the next generation of autonomous AI infrastructure.EntropyLab Series: E-LAB-10 | OSF Registration: osf.io/6v4xt | Landing: entro-omega.netlify.app/ | MIT License © 2026 Samir Baladi

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Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-14
DOI
https://doi.org/10.5281/zenodo.19562999
Citations
1
Primary Topic
Smart Grid Security and Resilience
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article
Field-Weighted Citation Impact
17.46
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article

ENTRO-OMEGA: Grand Unification of Informational Entropy — OMEGA v1.0 Universal Adaptive Stabiliser for Autonomous AI Infrastructure

Samir Baladi
1 citations
Zenodo (CERN European Organization for Nuclear Research)
Smart Grid Security and Resilience
17.46
article

ENTRO-OMEGA: Grand Unification of Informational Entropy — OMEGA v1.0 Universal Adaptive Stabiliser for Autonomous AI Infrastructure

Samir Baladi
article en
1 citations

Abstract

ENTRO-OMEGA (E-LAB-10) is the tenth and culminating project of the EntropyLab decadal research programme. This paper presents OMEGA v1.0, a unified self-governing entropic control engine that synthesises all nine predecessor protocols (E-LAB-01 through E-LAB-09) into a single portable system deployable across cloud, edge, and local infrastructure without manual reconfiguration.The central theoretical contribution is the Omega State Function Ωcore(t) — a five-component dynamical vector simultaneously tracking thermodynamic dissipation (ρ), rhythmic pulsation (P), spectral memory fidelity (G), probabilistic collapse likelihood (Q), and network coherence (N) — governed by a Unified Field Equation (UFE) derived from non-equilibrium statistical mechanics and information geometry. The Universal Adaptive Stabiliser (UAS) is derived analytically from the UFE with formal input-to-state stability (ISS) guarantees, establishing that Ωcore(t) remains within a computable neighbourhood of the Absolute Steady State Ω* under all bounded disturbances. A self-adaptive breathing threshold θ(t), modulated by the composite Network Health Index H(t), eliminates the need for operator intervention across all tested stress regimes.Empirical evaluation across three synthetic benchmarks — OmniScrape (32-node scraper/ETL), PolyLLM (16-node LLM inference), and HybridEdge (64-node edge-cloud hybrid) — confirms: collapse rate 0.0%, mean peak-load reduction 91.4%, throughput gain 44.5%, convergence index Ωconv = 0.9987, and health steady state Hss > 0.991 across 900 total trials. All results meet or exceed pre-specified target values and surpass the best single-protocol baseline (ENTRO-PULSE, E-LAB-09) by synergistic integration rather than additive combination.ENTRO-OMEGA constitutes the first operational implementation of a Grand Unification Theory (GUT) for informational entropy, establishing a physical constitution for the next generation of autonomous AI infrastructure.EntropyLab Series: E-LAB-10 | OSF Registration: osf.io/6v4xt | Landing: entro-omega.netlify.app/ | MIT License © 2026 Samir Baladi

Zenodo (CERN European Organization for Nuclear Research)
Renaissance University (NG), Renaissance Sciences Corporation (United States) (US), Ronin Institute (US), Renaissance Services (United States) (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 1%
Smart Grid Security and Resilience
17.46
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