THE AXIAL COHERENCE FACTOR (ACF) AS UNIVERSAL PREDICTOR OF STRUCTURAL PERSISTENCE AND LONG-TERM STABILITY

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Authors: REGIVALDO MOTA DE ALMEIDA
Cited by: 0

Abstract

THE AXIAL COHERENCE FACTOR (ACF) AS A UNIVERSAL PREDICTOR OF STRUCTURAL PERSISTENCE AND LONG-TERM STABILITY: Abstract: This work investigates the possible insufficiency of entropic determinism in the face of observational evidence of persistent structural organization over 13.8 billion years. The Axial Coherence Factor (ACF) is proposed as a predictive metric for the stability of physical systems, suggesting that convergence to a value of 0.65 acts as a regulator of matter persistence. Technical Approach: Instead of focusing on "heat death" as an inevitable fate, this analysis explores how circular motion and axial induction can allow the maintenance of local order without violating the fundamental laws of thermodynamics. Through a robust statistical correlation ($R^2 = 0.94$) and a significance of $10^{-15}$, the study demonstrates that the law of existence offers a coherent explanation for the observed stability in systems spanning 36 orders of magnitude. Key Points: Persistence Analysis: A new perspective on how complex systems maintain their structural integrity on cosmological timescales. Mathematical Foundation: Use of $10^{-15}$ precision to validate the consistency of ACF as a stability diagnostic tool. Unification of Concepts: Integration between data obtained in atomic stability (Iron-56) and galactic dynamics (previously explored in DOI: 10.5281/zenodo.18209538). Scientific Prognosis: Presentation of testable predictions that allow for the falsifiability of the model through future astronomical observations. Keywords (Separated by commas):Thermodynamics, Entropy, Structural Persistence, Axial Coherence Factor (ACF), Long-term Stability, Law of Existence, Axial Induction, $10^{-15}$ Precision, Cosmological Evolution, Empirical Evidence.

Fields of Study & Subjects

Complex Systems and Dynamics Advanced Thermodynamics and Statistical Mechanics Cosmology and Gravitation Theories

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
10 January 2026
Document type
Preprint