Ontological Reconstruction of Cosmic Structure via Self-Organizing Force

This paper begins with a philosophical critique of the popular-scientific slogan"force turns into particles," and argues that within the framework of quantum fieldtheory (QFT), "force" and "matter" should not be conceived as standing in agenerative relation of before and after. Rather, they are distinct organizational rolesplayed by a single underlying stratum of quantum fields. Taking the recent BESⅢconfirmation of the glueball state X(2370) as a point of departure, this paperproposes that the glueball is not the product of "force becoming particle," but isinstead an independent material state formed through the self-organization of thestrong-interaction field—and should be recognized as one of the foundationalconstituents of matter. Extending this micro-level claim to cosmological scales, thepaper hypothesizes that dark matter may in fact be the cosmological manifestationof precisely this kind of "force-field self-organized entity"—and that the dominantengine of large-scale structure formation is not gravity at all, but the strong selfinteraction of dark matter internally (the glueball effect), with gravity relegated to thestatus of a residual large-scale background. This framework not only resolvesseveral long-standing difficulties of the ΛCDM model, but also restores, at theontological level, a natural harmony between the hierarchy of forces and thehierarchy of cosmic structures.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-18
DOI
https://doi.org/10.5281/zenodo.21997238
Primary Topic
Biofield Effects and Biophysics
Type
preprint
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Ontological Reconstruction of Cosmic Structure via Self-Organizing Force

Marllord Cheang Seng
Zenodo (CERN European Organization for Nuclear Research)
Biofield Effects and Biophysics
preprint

Ontological Reconstruction of Cosmic Structure via Self-Organizing Force

Marllord Cheang Seng
preprint en

Abstract

This paper begins with a philosophical critique of the popular-scientific slogan"force turns into particles," and argues that within the framework of quantum fieldtheory (QFT), "force" and "matter" should not be conceived as standing in agenerative relation of before and after. Rather, they are distinct organizational rolesplayed by a single underlying stratum of quantum fields. Taking the recent BESⅢconfirmation of the glueball state X(2370) as a point of departure, this paperproposes that the glueball is not the product of "force becoming particle," but isinstead an independent material state formed through the self-organization of thestrong-interaction field—and should be recognized as one of the foundationalconstituents of matter. Extending this micro-level claim to cosmological scales, thepaper hypothesizes that dark matter may in fact be the cosmological manifestationof precisely this kind of "force-field self-organized entity"—and that the dominantengine of large-scale structure formation is not gravity at all, but the strong selfinteraction of dark matter internally (the glueball effect), with gravity relegated to thestatus of a residual large-scale background. This framework not only resolvesseveral long-standing difficulties of the ΛCDM model, but also restores, at theontological level, a natural harmony between the hierarchy of forces and thehierarchy of cosmic structures.

Zenodo (CERN European Organization for Nuclear Research)
Reduced inequalities
Biofield Effects and Biophysics
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