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arXiv · 0912.1558

Finite-Temperature Fractional D2-Branes and the Deconfinement Transition in 2+1 Dimensions

Abstract

The supergravity dual to N regular and M fractional D2-branes on the cone over \mathbb{CP}^3 has a naked singularity in the infrared. One can resolve this singularity and obtain a regular fractional D2-brane solution dual to a confining 2+1 dimensional N = 1 supersymmetric field theory. The confining vacuum of this theory is described by the solution of Cvetic, Gibbons, Lu and Pope. In this paper, we explore the alternative possibility for resolving the singularity - the creation of a regular horizon. The black-hole solution we find corresponds to the deconfined phase of this dual gauge theory in three dimensions. This solution is derived in perturbation theory in the number of fractional branes. We argue that there is a first-order deconfinement transition. Connections to Chern--Simons matter theories, the ABJM proposal and fractional M2-branes are presented.

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BibTeXRIS

Gregory C. Giecold. 2010-02-23. Finite-Temperature Fractional D2-Branes and the Deconfinement Transition in 2+1 Dimensions. https://doi.org/10.1007/jhep03(2010)109

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