Trace Curvature Operator and Asymmetrical Geometry in a Unified Mathematical Framework

This paper introduces the Trace Curvature Operator Tκ(x)\mathcal{T}\kappa(x)Tκ(x), a novel mathematical construct designed to quantify localized geometric asymmetries in physical and computational systems. Traditional physics often defines key particle properties—such as the photon’s zero mass—through symmetry-based axioms. In contrast, the Trace Curvature Operator reframes mass and classification as emergent from deviations in geometric structure, offering a scalar measure of curvature-induced asymmetry. We define Tκ(x)\mathcal{T}\kappa(x)Tκ(x) as the trace of the difference between covariant derivatives of a local geometric descriptor and its symmetric counterpart. This quantity allows for the definition of trace mass, a continuous perturbation that can modulate particle behavior or cognitive agent dynamics without violating global invariance. By integrating this operator into a categorical functorial framework, we enable dynamic reclassification of entities based on geometric conditions—bridging differential geometry, quantum mechanics, and cognitive AI. Applications include modeling near-massless particles, guiding ethical adaptation in intelligent systems, and formulating new geometry-first dynamics beyond symmetry-dominated formulations. The operator serves as a minimal yet powerful tool in constructing a geometry-based alternative to conventional symmetry-first physics.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-05-29
DOI
https://doi.org/10.5281/zenodo.15547767
Primary Topic
Psychometric Methodologies and Testing
Type
article
Field-Weighted Citation Impact
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article

Trace Curvature Operator and Asymmetrical Geometry in a Unified Mathematical Framework

Zenodo (CERN European Organization for Nuclear Research)
Psychometric Methodologies and Testing
article

Trace Curvature Operator and Asymmetrical Geometry in a Unified Mathematical Framework

article en

Abstract

This paper introduces the Trace Curvature Operator Tκ(x)\mathcal{T}\kappa(x)Tκ(x), a novel mathematical construct designed to quantify localized geometric asymmetries in physical and computational systems. Traditional physics often defines key particle properties—such as the photon’s zero mass—through symmetry-based axioms. In contrast, the Trace Curvature Operator reframes mass and classification as emergent from deviations in geometric structure, offering a scalar measure of curvature-induced asymmetry. We define Tκ(x)\mathcal{T}\kappa(x)Tκ(x) as the trace of the difference between covariant derivatives of a local geometric descriptor and its symmetric counterpart. This quantity allows for the definition of trace mass, a continuous perturbation that can modulate particle behavior or cognitive agent dynamics without violating global invariance. By integrating this operator into a categorical functorial framework, we enable dynamic reclassification of entities based on geometric conditions—bridging differential geometry, quantum mechanics, and cognitive AI. Applications include modeling near-massless particles, guiding ethical adaptation in intelligent systems, and formulating new geometry-first dynamics beyond symmetry-dominated formulations. The operator serves as a minimal yet powerful tool in constructing a geometry-based alternative to conventional symmetry-first physics.

Zenodo (CERN European Organization for Nuclear Research)
Diplomatique (FR)
Openalex Percentile: Top 47%
Psychometric Methodologies and Testing
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