Part XXVII: Geometric Vortex Loop Gravity - A Geometric Mass Gap Theorem for Sobolev Mappings in Four Dimensions

This paper establishes a geometric mass gap in a class of Sobolev mappings between compact, oriented manifolds of equal dimension. The model is supported by a discrete backbone Λ4 whose projection hierarchy gives rise to eight independent activation variants, each representing a distinct structural mode of geometric response. The analytic proof relies on a quantitative degree–energy inequality for Sobolev maps, which links the topological invariant deg(F) to the gradient norm. This inequality shows that any configuration with nonzero degree must incur irreducible geometric distortion, enforcing a positive lower bound on the energy in every nontrivial sector. The mass gap follows directly from the energy decomposition and holds uniformly across all activation variants. No physical or field-theoretic claims are made; the argument is purely geometric and topological.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-18
DOI
https://doi.org/10.5281/zenodo.21830080
Primary Topic
Geometric Analysis and Curvature Flows
Type
article
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article

Part XXVII: Geometric Vortex Loop Gravity - A Geometric Mass Gap Theorem for Sobolev Mappings in Four Dimensions

Colin O'Kroley
Zenodo (CERN European Organization for Nuclear Research)
Geometric Analysis and Curvature Flows
article

Part XXVII: Geometric Vortex Loop Gravity - A Geometric Mass Gap Theorem for Sobolev Mappings in Four Dimensions

Colin O'Kroley
article en

Abstract

This paper establishes a geometric mass gap in a class of Sobolev mappings between compact, oriented manifolds of equal dimension. The model is supported by a discrete backbone Λ4 whose projection hierarchy gives rise to eight independent activation variants, each representing a distinct structural mode of geometric response. The analytic proof relies on a quantitative degree–energy inequality for Sobolev maps, which links the topological invariant deg(F) to the gradient norm. This inequality shows that any configuration with nonzero degree must incur irreducible geometric distortion, enforcing a positive lower bound on the energy in every nontrivial sector. The mass gap follows directly from the energy decomposition and holds uniformly across all activation variants. No physical or field-theoretic claims are made; the argument is purely geometric and topological.

Zenodo (CERN European Organization for Nuclear Research)
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Geometric Analysis and Curvature Flows
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