Holographic stress tensors for Kerr-AdS black holes

Awad, Adel M.;

Abstract


We use the counterterm subtraction method to calculate the action and the stress-energy-momentum tensor for (Kerr) rotating black holes in (Formula presented) for (Formula presented) 3, and 4. We demonstrate that the expressions for the total energy for the Kerr-(Formula presented) and Kerr-(Formula presented) spacetimes, in the limit of vanishing black hole mass, are equal to the Casimir energies of the holographically dual n-dimensional conformal field theories. In particular, for Kerr-(Formula presented) spacetimes, dual to the case of the four-dimensional (Formula presented) supersymmetric Yang-Mills theory on the rotating Einstein universe, we explicitly verify the equality of the zero mass stress tensor from the two sides of the correspondence, and present the result for a general mass as a prediction from gravity. Amusingly, it is observed in four dimensions that while the trace of the stress tensor defined using the standard counterterms does not vanish, its integral does, thereby keeping the action free of ultraviolet divergences. Using a different regularization scheme “another” stress tensor can be defined, which is traceless. © 2000 The American Physical Society.


Other data

Title Holographic stress tensors for Kerr-AdS black holes
Authors Awad, Adel M. 
Keywords High Energy Physics - Theory; High Energy Physics - Theory
Issue Date 1-Jan-2000
Journal Physical Review D - Particles, Fields, Gravitation and Cosmology 
Description 
9 pages, RevTeX; v5: Note added (as in published PRD version) about
the new stress tensor not having same conserved quantities as old. i.e.,
"improvement" fails. The fascinating reason will be reported on in a separate
publication.)
ISSN 15507998
DOI 10.1103/PhysRevD.61.084025
Scopus ID 2-s2.0-17044385313

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