High Energy Physics - Theory
[Submitted on 24 Nov 2013 (v1), last revised 12 May 2014 (this version, v2)]
Title:Yang-Mills correlators at finite temperature: A perturbative perspective
View PDFAbstract:We consider the two-point correlators of Yang-Mills theories at finite temperature in the Landau gauge. We employ a model for the corresponding Yang-Mills correlators based on the inclusion of an effective mass term for gluons. The latter is expected to have its origin in the existence of Gribov copies. One-loop calculations at zero temperature have been shown to agree remarkably well with the corresponding lattice data. We extend on this and perform a one-loop calculation of the Matsubara gluon and ghost two-point correlators at finite temperature. We show that, as in the vacuum, an effective gluon mass accurately captures the dominant infrared physics for the magnetic gluon and ghost propagators. It also reproduces the gross qualitative features of the electric gluon propagator. In particular, we find a slight nonmonotonous behavior of the Debye mass as a function of temperature, however not as pronounced as in existing lattice results. A more quantitative description of the electric sector near the deconfinement phase transition certainly requires another physical ingredient sensitive to the order parameter of the transition.
Submission history
From: Julien Serreau [view email][v1] Sun, 24 Nov 2013 12:47:21 UTC (228 KB)
[v2] Mon, 12 May 2014 15:38:57 UTC (813 KB)
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