La Résonance du Réel — Théorie Vibratoire H-Laurince Foundations, Validation, and Scope of the Universal Vibratory Function Φ_H = M₁ / M₂

Abstract (English / Français) This bilingual thesis introduces the H-Laurince Vibratory Theory, founded on the universal function \Phi_H = \frac{M_1}{M_2}, where M_1 represents the expanded internal revolution and M_2 the external orbital revolution of a closed physical system. The study demonstrates that the most stable states—whether nuclear, atomic, or planetary—correspond to constant Φ_H ratios within specific harmonic ranges (≈10⁻³ to 1). Numerical validation uses data from NASA (planetary), NIST (spectroscopic), and IAEA (nuclear), confirming that Φ_H acts as a universal invariant of vibratory coherence. Experimental extensions (atomic, orbital, analogic) are proposed to test the falsifiability of the model. The H-Laurince function thus provides a measurable bridge between quantum, relativistic, and gravitational domains, defining stability as harmonic agreement rather than energetic isolation.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-15
DOI
https://doi.org/10.5281/zenodo.17355461
Primary Topic
Archaeological Research and Protection
Type
article
Field-Weighted Citation Impact
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article

La Résonance du Réel — Théorie Vibratoire H-Laurince Foundations, Validation, and Scope of the Universal Vibratory Function Φ_H = M₁ / M₂

Zenodo (CERN European Organization for Nuclear Research)
Archaeological Research and Protection
article

La Résonance du Réel — Théorie Vibratoire H-Laurince Foundations, Validation, and Scope of the Universal Vibratory Function Φ_H = M₁ / M₂

article en

Abstract

Abstract (English / Français) This bilingual thesis introduces the H-Laurince Vibratory Theory, founded on the universal function \Phi_H = \frac{M_1}{M_2}, where M_1 represents the expanded internal revolution and M_2 the external orbital revolution of a closed physical system. The study demonstrates that the most stable states—whether nuclear, atomic, or planetary—correspond to constant Φ_H ratios within specific harmonic ranges (≈10⁻³ to 1). Numerical validation uses data from NASA (planetary), NIST (spectroscopic), and IAEA (nuclear), confirming that Φ_H acts as a universal invariant of vibratory coherence. Experimental extensions (atomic, orbital, analogic) are proposed to test the falsifiability of the model. The H-Laurince function thus provides a measurable bridge between quantum, relativistic, and gravitational domains, defining stability as harmonic agreement rather than energetic isolation.

Zenodo (CERN European Organization for Nuclear Research)
Tri College University (US), North Dakota State University (US)
Openalex Percentile: Top 31%
Archaeological Research and Protection
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