A MASS - STRUCTURAL COMPLEXITY CONNECTION FOR THE ELEMENTARY PARTICLES, WILSON'S RENORMALIZATION GROUP FIXED POINTS IN THE REALM OF THE STRUCTURAL COMPLEXITY ANALYSIS
Fizuli Mamedov
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ABSTRACT

The trios aspect of the elementary particle physics, three generation of fermions three quark colors is analyzed in the realm of the structural complexity approach. Similarity of the structures feature of this model leads to the novel understanding of the masses of the elementary particles, they are the reflection of the configurations of the existing ensembles of the elementary particles. Wilson's renormalization group flow fixed points behavior of the mass and coupling constants is analyzed with the structural complexity approach to this question. It is shown that the scaling feature of the renormalization group equation is identical to the main equation of the structural complexity in one dimensional case. The logarithmic spiral often met in nature is also considered in the domain of this analysis. It is shown that its scaling feature is also identical to the main equation of the structural complexity.

Keywords: dependence of the structural complexity on the energy, the connection between the charges and masses of the elementary particles, trios in elementary particle physics, mass and structural complexity connection, Lorentz invariant quantities, renormalization group equation, renormalization group fixed points, equation of the logarithmic spiral
DOI:10.70784/azip.1.2025367

Received: 24.09.2025
Internet publishing: 26.09.2025    AJP Fizika E 2025 03 en p.67-71

AUTHORS & AFFILIATIONS

Institute for Physical Problems, Baku State University, Azerbaijan
E-mail: mail.quanta02@gmail.com

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