Energy renormalization and integrability within the massive neutrinos model
L. A. Glinka

TL;DR
This paper develops a model of massive neutrinos based on Snyder noncommutative geometry, demonstrating energy renormalization and integrability, with implications for high energy physics and astrophysics.
Contribution
It introduces a partially developed massive neutrinos model from Snyder noncommutative geometry, showing energy renormalization and integrability.
Findings
Masses of Weyl fields lead to consistent noncommutative geometry
Model yields energy renormalization for relativistic particles
Exact integrability demonstrated within the model
Abstract
In this paper the massive neutrinos model arising due to the Snyder noncommutative geometry, proposed recently by the author is partially developed. By straightforward calculation it is shown that the masses of the chiral left- and right-handed Weyl fields treated as parameters fixed by experiments, lead to the consistent physical picture of the noncommutative geometry, and consequently yield renormalization of an energy of a relativistic particle and exact integrability within the proposed model. This feature of the model in itself both defines and emphasizes its significance and possible usefulness for both theory as well as phenomenology for high energy physics and astrophysics.
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Taxonomy
TopicsNoncommutative and Quantum Gravity Theories · Black Holes and Theoretical Physics · Particle physics theoretical and experimental studies
