What Is an Electron? The Fiber-Pile Ontology of the Faddeev–Niemi Programme
Description
The Hopf soliton programme (Papers I–CXXIII) reinterprets the elementary particles of the Standard Model as topologically non-trivial configurations of a single Faddeev–Niemi field n: M₄ → S² or its flag-manifold extension. This paper is not a new physics result; it is an ontological statement asking what kind of thing the programme says matter is, once the technical framework is accepted. The central claim is a three-way identity: a Faddeev–Niemi field configuration, its decomposition into linked Hopf fibers, and the soliton it represents are three descriptions of the same object. Matter is not point-like and carries no attached "field"; rather, it is a pattern in a field — specifically the linking pattern of the level-set curves of n. Four propositions express this reformulation: (i) field ≡ fiber pile ≡ soliton; (ii) the minimal tensorial description requires n^a(x), its Berry curvature F_μν, stress-energy T_μν, and global Hopf invariant H; (iii) each of the four Standard Model forces arises from a distinct geometric operation on these objects; (iv) the ontology is empirically equivalent to the standard-model point-particle picture, differing only in what it identifies as fundamental. We address five principal objections and conclude with an honest statement of what the reframing provides.
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Fiber_Pile_Ontology.pdf
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Related works
- Cites
- 10.5281/zenodo.18167016 (DOI)
- 10.5281/zenodo.19641559 (DOI)
- 10.5281/zenodo.19112359 (DOI)
- 10.5281/zenodo.18934385 (DOI)
- 10.5281/zenodo.19109182 (DOI)
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