Renormalization of the quantum chromodynamics with massive gluons
Jun-Chen Su, Hai-Jun Wang

TL;DR
This paper demonstrates the renormalization and gauge-invariance of quantum chromodynamics with massive gluons, deriving identities and showing asymptotic freedom similar to massless gluon theories.
Contribution
It establishes the renormalizability of massive gluon QCD using BRST symmetry, Ward-Takahashi identities, and one-loop calculations, extending the standard massless gluon framework.
Findings
Successful derivation of Ward-Takahashi identities for propagators and vertices.
Renormalization constants satisfy Slavnov-Taylor identities.
Effective coupling and masses exhibit asymptotic freedom.
Abstract
In our previously published papers, it was proved that the chromodynamics with massive gluons can well be set up on the gauge-invariance principle. The quantization of the chromodynamics was perfectly performed in the both of Hamiltonian and Lagrangian path-integral formalisms by using the Lagrangian undetermined multiplier method. In this paper, It is shown that the quantum theory is invariant with respect to a kind of BRST-transformations. From the BRST-invariance of the theory, the Ward-Takahashi identities satisfied by the generating functionals of full Green functions, connected Green functions and proper vertex functions are successively derived. As an application of the above Ward-Takahashi identities, the Ward-Takahashi identities obeyed by the massive gluon and ghost particle propagators and various proper vertices are derived and based on these identities, the propagators and…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Quantum Chromodynamics and Particle Interactions · High-Energy Particle Collisions Research
