Observable Hierarchy and Transport Reconstruction of a Frustrated SU(2) Vacuum on the Diamond Lattice

Fuente: Zenodo
Enregistré dans:
Détails bibliographiques
Auteur principal: Sekanina, Štěpán
Format: Recurso digital
Langue:anglais
Publié: Zenodo 2026
Sujets:
Accès en ligne:
Tags: Ajouter un tag
Pas de tags, Soyez le premier à ajouter un tag!
_version_ 1866901782584623104
author Sekanina, Štěpán
author_facet Sekanina, Štěpán
contents <p>We study the 9-dimensional gauge-field fluctuation space above the frustrated SU(2) vacuum (Tr(W) = -10/27) on the diamond lattice within the Granular Entropic Physics programme. A hierarchy of gauge-invariant observables is established, ordered by collective depth. Single traces Tr(W_I) have identically vanishing gradients at the vacuum, a structural SU(2) property. Hexagonal plaquette products (17 invariants including pairwise, triple, quadruple, and commutator structures) saturate at rank 5. Transported observables Tr(W_A T W_B T-dagger) achieve rank 6 per transport topology, consistently across all 30 tested topologies. Full rank-9 reconstruction requires combining at least 3 distinct transport topologies (minimal basis: 9 observables). The reconstruction is highly anisotropic, with effective observable dimension D_eff between 3 and 6, far below the algebraic rank 9. No single transport topology stabilises the Wilson saddle point. The paper includes a self-correction of an earlier dark-sector interpretation, which was shown to be an artifact of an insufficiently rich observable basis rather than a structural property of the vacuum. The central result is that the frustrated vacuum is a transport-sensitive collective phase whose full characterisation requires a multi-topology observable atlas.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_20219606
institution Zenodo
language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Observable Hierarchy and Transport Reconstruction of a Frustrated SU(2) Vacuum on the Diamond Lattice
Sekanina, Štěpán
SU(2) lattice gauge theory
frustrated vacuum
diamond lattice
Wilson loop hierarchy
observable reconstruction
transport holonomy
rank saturation
anisotropic observable geometry
saddle point stability
Hessian analysis
tetrahedral symmetry
non-Abelian frustration
Granular Entropic Physics
High Energy Physics - Lattice
Mathematical Physics
General Relativity and Quantum Cosmology
<p>We study the 9-dimensional gauge-field fluctuation space above the frustrated SU(2) vacuum (Tr(W) = -10/27) on the diamond lattice within the Granular Entropic Physics programme. A hierarchy of gauge-invariant observables is established, ordered by collective depth. Single traces Tr(W_I) have identically vanishing gradients at the vacuum, a structural SU(2) property. Hexagonal plaquette products (17 invariants including pairwise, triple, quadruple, and commutator structures) saturate at rank 5. Transported observables Tr(W_A T W_B T-dagger) achieve rank 6 per transport topology, consistently across all 30 tested topologies. Full rank-9 reconstruction requires combining at least 3 distinct transport topologies (minimal basis: 9 observables). The reconstruction is highly anisotropic, with effective observable dimension D_eff between 3 and 6, far below the algebraic rank 9. No single transport topology stabilises the Wilson saddle point. The paper includes a self-correction of an earlier dark-sector interpretation, which was shown to be an artifact of an insufficiently rich observable basis rather than a structural property of the vacuum. The central result is that the frustrated vacuum is a transport-sensitive collective phase whose full characterisation requires a multi-topology observable atlas.</p>
title Observable Hierarchy and Transport Reconstruction of a Frustrated SU(2) Vacuum on the Diamond Lattice
topic SU(2) lattice gauge theory
frustrated vacuum
diamond lattice
Wilson loop hierarchy
observable reconstruction
transport holonomy
rank saturation
anisotropic observable geometry
saddle point stability
Hessian analysis
tetrahedral symmetry
non-Abelian frustration
Granular Entropic Physics
High Energy Physics - Lattice
Mathematical Physics
General Relativity and Quantum Cosmology
url https://doi.org/10.5281/zenodo.20219606