Predictive Bioharmonics: Dark Matter as a Potential Field

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Authors: Tess Fries
Cited by: 0

Abstract

Dark matter is traditionally modeled as an unknown, non-luminous particulate component required to explain gravitational phenomena across galactic and cosmological scales. In this paper, I propose an alternative but fully compatible interpretation: that what is observationally identified as dark matter may instead correspond to a universal potential field underlying spacetime geometry itself. In this view, mass, gravitation, and dynamical evolution emerge as consequences of geometric deformation induced by gradients in this potential field, rather than from unseen particles. The framework presented does not contradict general relativity, quantum field theory, or standard cosmology, but reframes dark matter as a geometric–dynamical precursor rather than a material constituent. Singular initial conditions are interpreted as maximal, symmetric potential states, with symmetry-breaking deformation initiating geometry, gradient formation, and subsequently observable dynamics. This work is intended as a conceptual unification, not a replacement, and aims to clarify how dark matter phenomena may arise without introducing new particle species.

Fields of Study & Subjects

Dark Matter and Cosmic Phenomena Cosmology and Gravitation Theories Space Science and Extraterrestrial Life

Publication details

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