Solution of the relativistic bound state problem for hadrons
H.P. Morsch

TL;DR
This paper presents a finite, parameter-free relativistic model for hadrons based on an extended QED Lagrangian, successfully describing mesons and suggesting confinement is a general relativistic bound state property, not solely due to color.
Contribution
It introduces a second order QED extension to model hadrons without open parameters, providing a new perspective on confinement and quark masses.
Findings
Successfully describes omega, Phi, J/psi, and Upsilon mesons.
Shows confinement arises from relativistic bound state properties.
Reinterprets quark masses as binding energies in the model.
Abstract
A second order extension of the QED Lagrangian (including boson-boson coupling) has been used to describe q\bar q hadrons. Assuming massless elementary fermions (quantons) this results in a finite theory without open parameters, which may be regarded as a fundamental description of the strong interaction. Two potentials are deduced, a boson-exchange potential and one, which can be identified with the known confinement potential in hadrons. This formalism has been applied the mesonic systems omega(782), Phi(1020), J/psi(3097) and Upsilon(9460), for which a good description is obtained. The most important results are: 1. The confinement of hadrons is not due to colour, but is a general property of relativistic bound states. 2. Massive quarks in the Standard Model (QCD) are understood as effective fermions with a mass given by the binding energy in the boson-exchange potential.
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Taxonomy
TopicsQuantum Chromodynamics and Particle Interactions · Cold Atom Physics and Bose-Einstein Condensates · Quantum, superfluid, helium dynamics
