EQGT Theory Geometric Decadence and Information Gradient in Atomic Decay

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Authors: Toru Kawahara
Cited by: 0

Abstract

This paper presents a conceptual hypothesis within the EQGT framework, proposing a geometric–informational reinterpretation of atomic stability and decay. In EQGT, matter is not modeled as point particles governed by force-based interactions, but as localized geometric twists (“wrinkles”) embedded in a $(3+1)$-dimensional manifold. Atomic decay is redefined as a process of geometric grade-down, where the depth of these twists gradually decreases under evolving cosmological constraints. The framework introduces a balance relation between internal information pressure—associated with fully compressed information structures—and external cosmological pressure, identified with dark energy. Decay energy is interpreted as the observable residue (“Change”) of a larger information redistribution process, while the majority of information relaxes back into the background manifold in an unobservable form. The paper further proposes a phenomenological connection between cosmic time, maximum geometric complexity (CBASE), and the progressive smoothing of matter, alongside an S–D (Static–Dynamic) classification scheme for structural stability. This work is intentionally non-predictive and does not present force laws or fitted decay equations. Instead, it aims to provide a coherent conceptual scaffold that reframes atomic decay, energy conservation, and cosmological expansion within a single geometric–informational perspective. The manuscript is intended as a foundational hypothesis note, serving as a starting point for future analytical, numerical, or experimental exploration.

Fields of Study & Subjects

Quantum Mechanics and Applications Advanced Mathematical Theories and Applications Statistical Mechanics and Entropy

Publication details

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