Causal Ghosts: A Unified Neutrino Model Based on Compression Field Theory

We propose a unified model in which neutrinos, dark matter, and dark energy are emergent stability phases of a single underlying Information-Cognitive Compression Field (ICCF). In this framework: Active neutrinos are interpreted as low-stability, quasi-stable compression modes — “incomplete solitons” — whose oscillations arise from quantum tunneling between meta-stable potential wells in the ICCF landscape. Dark matter corresponds to topologically stable n=6 compression solitons (∼41.2GeV), whose persistence is a direct consequence of the compression field’s topological protection. Dark energy emerges as the evolving background compression tensor Cμν​(t), driving cosmic acceleration while modulating neutrino oscillation parameters over cosmological time. This tri-unification not only provides a coherent explanation for three of the most enigmatic components of the universe, but also yields concrete, falsifiable predictions: (i) environment-dependent shifts in neutrino oscillation parameters, (ii) distinctive dark matter soliton signatures in direct detection experiments, and (iii) correlations between cosmic neutrino background anisotropies and dark energy evolution. By bridging particle physics, cosmology, and thermodynamics, the ICCF framework reframes the “dark sector” as a dynamic spectrum of compression field stability states — offering both a deeper theoretical foundation and a clear observational roadmap.

Publication Details

Journal
Open Science Framework
Published
2025-01-01
DOI
https://doi.org/10.17605/osf.io/jeq3n
Primary Topic
Dark Matter and Cosmic Phenomena
Type
article
Field-Weighted Citation Impact
0.00
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article

Causal Ghosts: A Unified Neutrino Model Based on Compression Field Theory

Open Science Framework
Dark Matter and Cosmic Phenomena
article

Causal Ghosts: A Unified Neutrino Model Based on Compression Field Theory

article en

Abstract

We propose a unified model in which neutrinos, dark matter, and dark energy are emergent stability phases of a single underlying Information-Cognitive Compression Field (ICCF). In this framework: Active neutrinos are interpreted as low-stability, quasi-stable compression modes — “incomplete solitons” — whose oscillations arise from quantum tunneling between meta-stable potential wells in the ICCF landscape. Dark matter corresponds to topologically stable n=6 compression solitons (∼41.2GeV), whose persistence is a direct consequence of the compression field’s topological protection. Dark energy emerges as the evolving background compression tensor Cμν​(t), driving cosmic acceleration while modulating neutrino oscillation parameters over cosmological time. This tri-unification not only provides a coherent explanation for three of the most enigmatic components of the universe, but also yields concrete, falsifiable predictions: (i) environment-dependent shifts in neutrino oscillation parameters, (ii) distinctive dark matter soliton signatures in direct detection experiments, and (iii) correlations between cosmic neutrino background anisotropies and dark energy evolution. By bridging particle physics, cosmology, and thermodynamics, the ICCF framework reframes the “dark sector” as a dynamic spectrum of compression field stability states — offering both a deeper theoretical foundation and a clear observational roadmap.

Open Science Framework
Openalex Percentile: Top 80%
Dark Matter and Cosmic Phenomena
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