Numerical Verification and Cross-Domain Stress Testing of the Universal Oscillating Path (UOP)

This paper presents the numerical verification of the Universal Oscillating Path (UOP), a recursive mathematical framework designed to unify systemic dynamics across sixty orders of magnitude. By integrating a Logarithmic Translator and a Structural Resilience Parameter (S0), the model bridges the gap between quantum-scale fluctuations and macro-scale systemic collapses. This version documents the results of six rigorous stress tests—ranging from Planck-scale physics and Schwarzschild event horizons to malignant biological proliferation and geopolitical dissolution (Soviet Union).simulations demonstrate that the UOP formula maintains structural continuity near critical singularities, successfully identifying Deterministic Collapse Windows where informational friction (I) triggers non-linear systemic failure. The cross-domain success of these tests validates the UOP as a robust predictive tool for structural health, clinical prognosis, and systemic risk assessment, establishing a unified physical floor at the Planck scale (Epsilon) for all complex dynamical systems, while allowing the precision value to remain adjustable based on the desired accuracy and domain-specific requirements.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-03-28
DOI
https://doi.org/10.5281/zenodo.19287599
Primary Topic
Disaster Response and Management
Type
article
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article

Numerical Verification and Cross-Domain Stress Testing of the Universal Oscillating Path (UOP)

Hassan Hade
Zenodo (CERN European Organization for Nuclear Research)
Disaster Response and Management
article

Numerical Verification and Cross-Domain Stress Testing of the Universal Oscillating Path (UOP)

Hassan Hade
article en

Abstract

This paper presents the numerical verification of the Universal Oscillating Path (UOP), a recursive mathematical framework designed to unify systemic dynamics across sixty orders of magnitude. By integrating a Logarithmic Translator and a Structural Resilience Parameter (S0), the model bridges the gap between quantum-scale fluctuations and macro-scale systemic collapses. This version documents the results of six rigorous stress tests—ranging from Planck-scale physics and Schwarzschild event horizons to malignant biological proliferation and geopolitical dissolution (Soviet Union).simulations demonstrate that the UOP formula maintains structural continuity near critical singularities, successfully identifying Deterministic Collapse Windows where informational friction (I) triggers non-linear systemic failure. The cross-domain success of these tests validates the UOP as a robust predictive tool for structural health, clinical prognosis, and systemic risk assessment, establishing a unified physical floor at the Planck scale (Epsilon) for all complex dynamical systems, while allowing the precision value to remain adjustable based on the desired accuracy and domain-specific requirements.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 2%
Disaster Response and Management
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