TMD: The 9D Configuration Space of the Triad and the Yang–Mills Action as a Mechanical Functional

This work introduces the 9D configuration space of the triad, the minimal mathematical space that captures all degrees of freedom of a single triadic node in TMD. A triad possesses three positional degrees of freedom, three orientational degrees of freedom, and three dynamical layers (A–B–C), forming a nine‑dimensional state space analogous to phase space in classical mechanics. This space is not a physical dimension but a configuration space describing the internal state of the triad. Within this framework, the Yang–Mills action is interpreted not as a physical gauge field but as a natural mathematical functional that measures orientational curvature in the network. The orientational gradient corresponds to curvature in configuration space, the Sigma stabilizing flow acts as a gradient flow minimizing this curvature, and the Flip Freeze phenomenon appears as a singularity where the action diverges. The study provides a purely mechanical interpretation of the Yang–Mills formalism within TMD and shows that the 9D configuration space offers a coherent mathematical language for describing the dynamics of the orientational network.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-29
DOI
https://doi.org/10.5281/zenodo.20446812
Primary Topic
Control and Stability of Dynamical Systems
Type
article
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article

TMD: The 9D Configuration Space of the Triad and the Yang–Mills Action as a Mechanical Functional

Aleš Kováč
Zenodo (CERN European Organization for Nuclear Research)
Control and Stability of Dynamical Systems
article

TMD: The 9D Configuration Space of the Triad and the Yang–Mills Action as a Mechanical Functional

Aleš Kováč
article en

Abstract

This work introduces the 9D configuration space of the triad, the minimal mathematical space that captures all degrees of freedom of a single triadic node in TMD. A triad possesses three positional degrees of freedom, three orientational degrees of freedom, and three dynamical layers (A–B–C), forming a nine‑dimensional state space analogous to phase space in classical mechanics. This space is not a physical dimension but a configuration space describing the internal state of the triad. Within this framework, the Yang–Mills action is interpreted not as a physical gauge field but as a natural mathematical functional that measures orientational curvature in the network. The orientational gradient corresponds to curvature in configuration space, the Sigma stabilizing flow acts as a gradient flow minimizing this curvature, and the Flip Freeze phenomenon appears as a singularity where the action diverges. The study provides a purely mechanical interpretation of the Yang–Mills formalism within TMD and shows that the 9D configuration space offers a coherent mathematical language for describing the dynamics of the orientational network.

Zenodo (CERN European Organization for Nuclear Research)
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Control and Stability of Dynamical Systems
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