Capacity, Projection, and Observability — A Phenomenological Proposal

Abstract Guided by cosmological observations (Planck baseline: ~68% dark energy, ~27% dark matter, and ~5% visible matter), this note presents a qualitative geometric proposal to interpret the structural distribution of the cosmic energy budget. We introduce a three-window topological taxonomy based on the coherence parameter W: (1) Modes with W < √α remain smooth and unknotted, contributing to the dark energy background (~68%); (2) Modes locked at W ≈ √α form compact, localized topological knots corresponding to visible matter (~5%); (3) Modes with W ≳ 1 form a diffuse fluid sector, where smooth bulk overflow reinforces the dark energy continuum, while boundary collisions leave residual topological shearing that accounts for dark matter halos (~27%). This framework maps the observed cosmic ratios onto distinct geometric regimes of high-dimensional projection without claiming a de novo ab initio numerical derivation.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-28
DOI
https://doi.org/10.5281/zenodo.23721353
Primary Topic
Cosmology and Gravitation Theories
Type
preprint
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preprint

Capacity, Projection, and Observability — A Phenomenological Proposal

Soon Hee@Bungsuh Yeo
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
preprint

Capacity, Projection, and Observability — A Phenomenological Proposal

Soon Hee@Bungsuh Yeo
preprint en

Abstract

Abstract Guided by cosmological observations (Planck baseline: ~68% dark energy, ~27% dark matter, and ~5% visible matter), this note presents a qualitative geometric proposal to interpret the structural distribution of the cosmic energy budget. We introduce a three-window topological taxonomy based on the coherence parameter W: (1) Modes with W < √α remain smooth and unknotted, contributing to the dark energy background (~68%); (2) Modes locked at W ≈ √α form compact, localized topological knots corresponding to visible matter (~5%); (3) Modes with W ≳ 1 form a diffuse fluid sector, where smooth bulk overflow reinforces the dark energy continuum, while boundary collisions leave residual topological shearing that accounts for dark matter halos (~27%). This framework maps the observed cosmic ratios onto distinct geometric regimes of high-dimensional projection without claiming a de novo ab initio numerical derivation.

Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
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