Holographic Residual Dark Matter: A Non-Particle Origin for Cold-Dark-Matter Phenomenology

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Authors: Ming-Ko Chung
Cited by: 11

Abstract

This record is a Master Working Note / Extended Framework for the Holographic Residual Dark Matter (HRDM) model. It preserves the broader conceptual and mathematical development of the framework, including the pre-geometric holographic seed, critical surface-area initialization, projection lock-in, the residual gravitational component X, CDM-like effective behavior, galaxy-scale phenomenology, and merging-cluster interpretations. This document is not intended as a concise submission-ready paper. Focused papers derived from this master note, including a shorter Paper I on the core CDM-like component, will be released as separate records. This technical preprint proposes a minimal phenomenological model in which the cold-dark-matter-like gravitational component inferred from cosmological and astrophysical observations is reinterpreted as a non-particle holographic residual gravitational response. The model does not deny the phenomenological evidence for dark matter; rather, it asks whether the effective CDM component may originate from an inflationary holographic projection-locking transition. The residual component X is constructed to behave as CDM at the background and linear perturbation levels, with rho_X proportional to a^-3, w_X approximately 0, and c_s,X^2 approximately 0. The model also derives a galaxy-scale residual acceleration a_X = sqrt(a_b a_H), yielding v^4 = G M_b a_H, and interprets merging-cluster lensing/gas offsets as baryonic gas displaced from a pre-existing projected residual gravitational well rather than material transport of X. The work is presented as a speculative but mathematically organized phenomenological framework requiring further expert review, numerical tests, and comparison with existing dark matter, modified gravity, emergent gravity, and holographic dark matter models.

Fields of Study & Subjects

Cosmology and Gravitation Theories Dark Matter and Cosmic Phenomena Astronomy and Astrophysical Research

Publication details

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