Quantum Field Theory without Infinite Renormalization
Tarun Biswas

TL;DR
This paper proposes a physical model of particles as finite, composite objects with covariant confinement, eliminating the need for infinite renormalization and addressing Haag's theorem in quantum field theory.
Contribution
It introduces a finite, composite particle model that removes the necessity of infinite renormalization and bypasses Haag's theorem constraints.
Findings
Eliminates infinite renormalization through composite particle modeling.
Provides a physical remedy addressing Haag's theorem.
Suggests a covariant confining potential for finite constituents.
Abstract
Although Quantum field theory has been very successful in explaining experiment, there are two aspects of the theory that remain quite troubling. One is the no-interaction result proved in Haag's theorem. The other is the existence of infinite perturbation expansion terms that need to be absorbed into theoretically unknown but experimentally measurable quantities like charge and mass -- i.e. renormalization. Here it will be shown that the two problems may be related. A "natural" method of eliminating the renormalization problem also sidesteps Haag's theorem automatically. Existing renormalization schemes can at best be considered a temporary fix as perturbation theory assumes expansion terms to be "small" -- and infinite terms are definitely not so (even if they are renormalized away). String theories may be expected to help the situation because the infinities can be traced to the…
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Taxonomy
TopicsQuantum Mechanics and Applications · Earth Systems and Cosmic Evolution · Biofield Effects and Biophysics
