Information transfer with a gravitating bath

Author:

Geng Hao1,Karch Andreas21,Perez-Pardavila Carlos2,Raju Suvrat3,Randall Lisa4,Riojas Marcos2,Shashi Sanjit2

Affiliation:

1. University of Washington

2. The University of Texas at Austin

3. Tata Institute of Fundamental Research

4. Harvard University

Abstract

Late-time dominance of entanglement islands plays a critical role in addressing the information paradox for black holes in AdS coupled to an asymptotic non-gravitational bath. A natural question is how this observation can be extended to gravitational systems. To gain insight into this question, we explore how this story is modified within the context of Karch-Randall braneworlds when we allow the asymptotic bath to couple to dynamical gravity. We find that because of the inability to separate degrees of freedom by spatial location when defining the radiation region, the entanglement entropy of radiation emitted into the bath is a time-independent constant, consistent with recent work on black hole information in asymptotically flat space. If we instead consider an entanglement entropy between two sectors of a specific division of the Hilbert space, we then find non-trivial time-dependence, with the Page time a monotonically decreasing function of the brane angle---provided both branes are below a particular angle. However, the properties of the entropy depend discontinuously on this angle, which is the first example of such discontinuous behavior for an AdS brane in AdS space.

Funder

Department of Science and Technology, Ministry of Science and Technology

Gordon and Betty Moore Foundation

Kavli Foundation

National Science Foundation

Simons Foundation

United States Department of Energy

Publisher

Stichting SciPost

Subject

General Physics and Astronomy

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