On Penrose inequality in holography
Zi-Qing Xiao, Run-Qiu Yang

TL;DR
This paper establishes a geometric proof of the Penrose inequality in holography under null energy condition for certain AdS black holes and discusses how quantization schemes affect its validity.
Contribution
It provides a purely geometric proof of the Penrose inequality assuming null energy condition and explores the impact of quantization schemes on its validity in holography.
Findings
Geometric proof of Penrose inequality under null energy condition for symmetric AdS black holes.
Naive generalizations of charged Penrose inequality are not generally valid.
Validity of Penrose inequality depends on the quantization scheme used in holographic renormalization.
Abstract
The recent holographic deduction of Penrose inequality only assumes null energy condition while the weak or dominant energy condition is required in usual geometric proof. This paper makes a step toward filling up gap between these two approaches. For planar/spherically symmetrically asymptotically Schwarzschild anti-de Sitter (AdS) black holes, we give a purely geometric proof for Penrose inequality by assuming the null energy condition. We also point out that two naive generalizations of charged Penrose inequality are not generally true and propose two new candidates. When the spacetime is asymptotically AdS but not Schwarzschild-AdS, the total mass is defined according to holographic renormalization and depends on scheme of quantization. In this case, the holographic argument implies that the Penrose inequality should still be valid but this paper use concrete example to show that…
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Taxonomy
TopicsRelativity and Gravitational Theory · Black Holes and Theoretical Physics · Astrophysical Phenomena and Observations
