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Unitary 4-point correlators from classical geometries

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arxiv 1710.06820 v2 pith:SSME7M6X submitted 2017-10-18 hep-th

Unitary 4-point correlators from classical geometries

classification hep-th
keywords correlatorsheavystatesoperatorsensemblegroundlargelight
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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We compute correlators of two heavy and two light operators in the strong coupling and large $c$ limit of the D1D5 CFT which is dual to weakly coupled AdS$_3$ gravity. The light operators have dimension two and are scalar descendants of the chiral primaries considered in arXiv:1705.09250, while the heavy operators belong to an ensemble of Ramond-Ramond ground states. We derive a general expression for these correlators when the heavy states in the ensemble are close to the maximally spinning ground state. For a particular family of heavy states we also provide a result valid for any value of the spin. In all cases we find that the correlators depend non-trivially on the CFT moduli and are not determined by the symmetries of the theory, however they have the properties expected for correlators among pure states in a unitary theory, in particular they do not decay at large Lorentzian times.

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