Spacetime Bananas with EOW Branes and Spins
Jia Tian, Tengzhou Lai, Farzad Omidi

TL;DR
This paper extends the spacetime banana proposal in AdS3/CFT2 by incorporating EOW branes and spins, providing new holographic duals for BCFT correlation functions and analyzing the limitations of existing methods.
Contribution
It introduces time-like and space-like EOW branes into the framework, demonstrating their role in reproducing BCFT results and refining the computation of correlation functions involving spinning operators.
Findings
EOW branes can replace the GHY term on the horizon for BCFT correlators.
The micro-canonical action is necessary for accurate spinning operator correlators.
Existing approaches using Ba ilde{ ext{n}}ados geometries yield incorrect results.
Abstract
In this work, we study and generalize the spacetime banana proposal for computing correlation functions of huge operators in the context of the AdS/CFT correspondence. First, we introduce time-like and space-like EOW branes into the proposal and demonstrate that: 1) a holographic dual of the one-point function in a BCFT can be obtained and its modified on-shell action reproduces the expected BCFT result; and 2) the GHY term on the stretched horizon can be replaced by the action of an EOW brane which wraps the horizon. Next, we discuss the two (one)-point function of huge spinning operators described by a rotating black hole in the bulk. We show that simply adding a GHY term on the stretched horizon is insufficient to reproduce the CFT results; instead, the appropriate modified action should be the micro-canonical action. Finally, we revisit the existing approaches for computing…
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Taxonomy
TopicsGeophysics and Sensor Technology · Relativity and Gravitational Theory · Advanced Differential Geometry Research
