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Confinement Models at Finite Temperature and Density

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arxiv 0908.4099 v2 pith:N6LE3S6X submitted 2009-08-27 hep-ph

classification hep-ph
keywords modelsconfinementphaseattemptschiralconfiningin-mediumtemperature
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In-medium chiral symmetry breaking in confining potential models of QCD is examined. Past attempts to analyse these models have been hampered by infrared divergences that appear at non-zero temperature. We argue that previous attempts to circumvent this problem are not satisfactory and demonstrate a simple resolution. We also show that the expectation that confining models do not exhibit a chiral phase transition is incorrect. The effect of summing ring diagrams is investigated and we present the first determination of the temperature-density phase diagram for two model systems. We find that observables and the phase structure of the confinement models depend strongly on whether quark polarisation is accounted for. Finally, it appears that standard confinement models cannot adequately describe both hadron phenomenology and in-medium properties of QCD.

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Cited by 1 Pith paper

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  1. Asymptotic behavior of the Speed of Sound in Dense Matter

    nucl-th 2025-07 conditional novelty 3.0 of 10

    A short note re-deriving the known failure of local NJL models to reach the conformal speed-of-sound limit and illustrating that a Gaussian nonlocal interaction restores c_s^2 = 1/3.

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