Infrared Spectral Localization: Zsa-G Framework (Version 11)

This release (Version 11) extends the Zsa-G framework through three interconnected investigations addressing spectral stability, localization mechanisms, and thermodynamic aspects of infrared-regularized Yang–Mills-type models. The present version contains: 11.1 Relative Compactness and Essential Spectrum Stability for Gauge-Covariant Elliptic Operators This paper establishes deterministic and probabilistic criteria ensuring stability of the essential spectrum under gauge-covariant perturbations on unbounded domains. Relative compactness of resolvent differences is analyzed using KLMN theory, Rellich-Kondrachov compactness, Weyl's theorem, Sobolev embeddings, and Borel-Cantelli arguments. 11.2 Localization of Spectral Projectors via Auxiliary Fields This work develops a conditional localization framework for non-local spectral projectors arising in infrared-regularized gauge theories. The construction combines Hubbard-Stratonovich transformations, Dunford-Taylor contour representations, Bochner-Minlos theory, weak convergence methods, conditional Osterwalder-Schrader positivity mechanisms, BRST structures, and ultraviolet decoupling considerations. 11.3 Toward Non-Perturbative Thermodynamic Stability in Infrared-Regularized Yang–Mills Theory This paper investigates a conditional framework for thermodynamic stability in the infinite-volume limit. The analysis includes cluster-expansion methods, polymer representations, asymptotic decay bootstrap mechanisms via Riesz potentials, and a conditional reconstruction framework identifying future directions toward continuum measure reconstruction. These articles should be interpreted as contributions to a broader functional-analytic and constructive program. Statements concerning continuum Yang-Mills measures, reflection positivity, BRST cohomology, thermodynamic limits, and mass-gap generation remain explicitly identified as conditional whenever rigorous proofs are not presently available. Contents of previous versions: V1–V5:• Initial formulation of the Zsa-G framework and infrared spectral regularization program. V6:• Functional-analytic foundations.• Spectral localization concepts.• Early infrared stabilization mechanisms. V7:• Development of auxiliary-field localization strategies.• Spectral projector representations. V8:• Measure-theoretic and operator-theoretic refinements.• Preliminary continuum considerations. V9:• Spectral stability analysis.• Bounded perturbation framework.• Initial discussions of localization and gap formation. V10:• Functional-analytic spectral decomposition via the Faddeev-Popov operator.• Infrared localization of negative modes.• Conditional probabilistic gap framework.• Relative compactness, spectral localization, and continuum extensions.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-31
DOI
https://doi.org/10.5281/zenodo.20465790
Primary Topic
Spectral Theory in Mathematical Physics
Type
preprint
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preprint

Infrared Spectral Localization: Zsa-G Framework (Version 11)

Zsa Zsa Gersina
Zenodo (CERN European Organization for Nuclear Research)
Spectral Theory in Mathematical Physics
preprint

Infrared Spectral Localization: Zsa-G Framework (Version 11)

Zsa Zsa Gersina
preprint en

Abstract

This release (Version 11) extends the Zsa-G framework through three interconnected investigations addressing spectral stability, localization mechanisms, and thermodynamic aspects of infrared-regularized Yang–Mills-type models. The present version contains: 11.1 Relative Compactness and Essential Spectrum Stability for Gauge-Covariant Elliptic Operators This paper establishes deterministic and probabilistic criteria ensuring stability of the essential spectrum under gauge-covariant perturbations on unbounded domains. Relative compactness of resolvent differences is analyzed using KLMN theory, Rellich-Kondrachov compactness, Weyl's theorem, Sobolev embeddings, and Borel-Cantelli arguments. 11.2 Localization of Spectral Projectors via Auxiliary Fields This work develops a conditional localization framework for non-local spectral projectors arising in infrared-regularized gauge theories. The construction combines Hubbard-Stratonovich transformations, Dunford-Taylor contour representations, Bochner-Minlos theory, weak convergence methods, conditional Osterwalder-Schrader positivity mechanisms, BRST structures, and ultraviolet decoupling considerations. 11.3 Toward Non-Perturbative Thermodynamic Stability in Infrared-Regularized Yang–Mills Theory This paper investigates a conditional framework for thermodynamic stability in the infinite-volume limit. The analysis includes cluster-expansion methods, polymer representations, asymptotic decay bootstrap mechanisms via Riesz potentials, and a conditional reconstruction framework identifying future directions toward continuum measure reconstruction. These articles should be interpreted as contributions to a broader functional-analytic and constructive program. Statements concerning continuum Yang-Mills measures, reflection positivity, BRST cohomology, thermodynamic limits, and mass-gap generation remain explicitly identified as conditional whenever rigorous proofs are not presently available. Contents of previous versions: V1–V5:• Initial formulation of the Zsa-G framework and infrared spectral regularization program. V6:• Functional-analytic foundations.• Spectral localization concepts.• Early infrared stabilization mechanisms. V7:• Development of auxiliary-field localization strategies.• Spectral projector representations. V8:• Measure-theoretic and operator-theoretic refinements.• Preliminary continuum considerations. V9:• Spectral stability analysis.• Bounded perturbation framework.• Initial discussions of localization and gap formation. V10:• Functional-analytic spectral decomposition via the Faddeev-Popov operator.• Infrared localization of negative modes.• Conditional probabilistic gap framework.• Relative compactness, spectral localization, and continuum extensions.

Zenodo (CERN European Organization for Nuclear Research)
Spectral Theory in Mathematical Physics
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