Abstract

AbstractWe study solutions of type IIB supergravity which are SL(2,$\mathbb{R}$) × SU(2) × U(1)2invariant deformations ofAdS3 × S3 × K3 and take the form of products of self-dual spacelike warpedAdS3and a deformed three-sphere. One of these backgrounds has been recently argued to be relevant for a derivation of Kerr/CFT from string theory, whereas the remaining ones are holographic duals of two-dimensional dipole theories and their S-duals. We show that each of these backgrounds is holographically dual to a deformation of the DLCQ of the D1-D5 CFT by a specific supersymmetric (1,2) operator, which we write down explicitly in terms of twist operators at the free orbifold point. The deforming operator is argued to be exactly marginal with respect to the zero-dimensional nonrelativistic conformal (or Schrödinger) group — which is simply SL(2,$\mathbb{R}$)L × U(1)R. Moreover, in the supergravity limit of largeNand strong coupling, no other single-trace operators are turned on. We thus propose that the field theory duals to the backgrounds of interest are nonrelativistic CFTs defined by adding the single Scrödinger-invariant (1, 2) operator mentioned above to the original CFT action. Our analysis indicates that the rotating extremal black holes we study are best thought of as finite right-moving temperature (non-supersymmetric) states in the above-defined supersymmetric nonrelativistic CFT and hints towards a more general connection between Kerr/CFT and two-dimensional non-relativistic CFTs.

Highlights

  • The AdS/CFT correspondence [1,2,3] has been one of the most fruitful ideas that have emerged from string theory in recent years

  • We propose that the field theory duals to the backgrounds of interest are nonrelativistic CFTs defined by adding the single Scrodinger-invariant (1, 2) operator mentioned above to the original CFT action

  • Our analysis indicates that the rotating extremal black holes we study are best thought of as finite right-moving temperature states in the above-defined supersymmetric nonrelativistic CFT and hints towards a more general connection between Kerr/CFT and two-dimensional non-relativistic CFTs

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Summary

Introduction

The AdS/CFT correspondence [1,2,3] has been one of the most fruitful ideas that have emerged from string theory in recent years. Our way of understanding non-relativistic CFTs is quite different from our approach to Kerr/CFT These theories are obtained by deforming the CFT dual to AdS by an operator which is irrelevant with respect to the relativistic conformal group, but is exactly marginal with respect to the nonrelativistic Schrodinger scaling symmetry [48]. This setup has been proposed in [54] as an appropriate starting point for the understanding of the Kerr/CFT correspondence using string theory. We end with a summary and non-technical discussion (section 7) of how our understanding of Kerr/CFT has evolved, in view of [54] and the present article

The backgrounds
Self-dual and pinching orbifolds of AdS3
Framework and notation
Asymptotic symmetry groups
Supergravity analysis of the perturbation
Holography in a thermal background
Quantum numbers
Relationship to 3d Schrodinger spacetimes
Exactness of the perturbation
Computations in the D1-D5 CFT
A few facts about chiral primaries
Identification of the operators
Relationship to the D1-D5-p black hole
The near-horizon geometry
Q1Q5 N
A different maximal limit
Interpretation of the dipole backgrounds
Brief review of dipole theories
Spacelike dipole theories and DLCQ
Relationship to lightlike dipole theories
What have we learned about the Kerr black hole?
B Killing spinors of 3d Schrodinger spacetimes
Dipole backgrounds
Self-dual backgrounds

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