The Breathing Universe: 304_The Origin of the Cosmic Frequency

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Authors: Ivo Gerlach Angela Noel Cerfontaine
Cited by: 0

Abstract

The Breathing Universe Model (BUM) proposes that spacetime is governed by a dynamic vacuum-tension field H(t) rather than fixed geometric constants. In this framework, energy and mass are related through the living conservation law E = m · H(t), which reduces exactly to Einstein’s relation when H(t) is constant. If spacetime is a tensioned medium, it cannot remain static and must possess intrinsic oscillatory modes. This paper derives the origin of a global cosmic breathing frequency from first principles. By combining three independently developed components of the BUM — nested snapping of vacuum tension, coherence ordering through the Omega field, and geometric stiffness of the living lattice — it is shown that the vacuum admits a lowest-order eigenmode corresponding to a universal breathing rhythm. This mode is not introduced phenomenologically but emerges as a geometric necessity of a coherent, self-stabilizing vacuum. The resulting fundamental frequency is of order Omega approximately 10 to the power minus 17 per second. Independent observational constraints from cosmic microwave background smoothness, baryon acoustic oscillation phase coherence, Type Ia supernova residuals, and pulsar timing array data consistently bracket the same frequency range. The cosmic breathing frequency therefore appears as a structural property of spacetime rather than an adjustable cosmological parameter. The work unifies intuition, field dynamics, discrete vacuum processes, coherence physics, and observational consistency into a single derivation of the Universe’s slowest rhythm. It provides a physical origin for ultra-low-frequency cosmic modulation and anchors dark-energy-like behavior, temporal coherence, and large-scale stability within one coherent theoretical architecture.

Fields of Study & Subjects

Cosmology and Gravitation Theories Relativity and Gravitational Theory Quantum Electrodynamics and Casimir Effect

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
5 January 2026
Language
EN