Black Holes, Entanglement and Random Matrices

Authors: Vijay Balasubramanian, Micha Berkooz, Simon F. Ross, Joan Simon

25 pages, no figures, v2: references added; v3: mistake in calculation of two-sided correlator corrected

Abstract: We provide evidence that strong quantum entanglement between Hilbert spaces does not generically create semiclassical wormholes between the corresponding geometric regions in the context of the AdS/CFT correspondence. We propose a description of low-energy gravity probes as random operators on the space of black hole states. We use this description to compute correlators between the entangled systems, and argue that a wormhole can only exist if correlations are large. Conversely, we also argue that large correlations can exist in the manifest absence of a Lorentzian wormhole. Thus the strength of the entanglement cannot generically diagnose spacetime connectedness, without information on the spectral properties of the probing operators. Our random matrix picture of probes also provides suggestive insights into the problem of "seeing behind a horizon".

Submitted to arXiv on 24 Apr. 2014

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