A curious model of the Higgs field: a complex scalar finite field meets the Monster symmetry
Seyed Mohammad Fattahi Khaki

TL;DR
This paper proposes a novel finite field model for the Higgs field using a large finite group related to the Monster group, achieving a Higgs mass prediction with 99.7% accuracy and linking group theory to particle physics.
Contribution
It introduces a complex scalar finite field model based on a large finite group of Lie type, connecting phase transition critical points to the Monster group and predicting the Higgs mass.
Findings
Higgs mass calculated with 99.7% agreement to experimental value
Finite group order estimated close to the Monster group
Mass relations linking finite field properties to particle physics
Abstract
As a small step toward understanding the nature of the Higgs field, a curious observation is reported that calculates the mass of the Higgs boson with a 99.7 % agreement to its experimentally measured value. Particularly, motivated by the desire to avoid infinities, a complex scalar finite field that aims to describe the Higgs field is proposed as the underlying field of an extremely huge finite group of Lie type. Then, the occurrence of a critical point of the phase transition in that finite field is explained, and the mass of its bosons is computed employing the Klein-Gordon equation. Next, in a backward analysis, to curiously estimate magnificence of that finite group of Lie type, the mass of Higgs boson is inputted to the obtained mass relation, and a huge order close to the order of the Monster group is outputted. Supported by such a clue as well as the fact that the Monster group…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Particle physics theoretical and experimental studies · Quantum Chromodynamics and Particle Interactions
