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Probing black holes in non-perturbative gauge theory

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arxiv hep-th/0108006 v3 pith:XRS47VFJ submitted 2001-08-01 hep-th

Probing black holes in non-perturbative gauge theory

classification hep-th
keywords blackholeprobemechanicsquantumbraneentropyfind
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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We use a 0-brane to probe a ten-dimensional near-extremal black hole with N units of 0-brane charge. We work directly in the dual strongly-coupled quantum mechanics, using mean-field methods to describe the black hole background non-perturbatively. We obtain the distribution of W boson masses, and find a clear separation between light and heavy degrees of freedom. To localize the probe we introduce a resolving time and integrate out the heavy modes. After a non-trivial change of coordinates, the effective potential for the probe agrees with supergravity expectations. We compute the entropy of the probe, and find that the stretched horizon of the black hole arises dynamically in the quantum mechanics, as thermal restoration of unbroken U(N+1) gauge symmetry. Our analysis of the quantum mechanics predicts a correct relation between the horizon radius and entropy of a black hole.

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Cited by 1 Pith paper

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    Instanton condensation in the matrix model for the BPS index reveals a new instability and dominant phase for small black holes, connected to partial deconfinement.