Quantum and higher curvature corrections to the anti-de Sitter black hole
Kristian Hauser A. Villegas, Reginald Christian Bernardo

TL;DR
This paper explores quantum pressure effects on AdS black holes due to nonlocal and higher curvature corrections, analyzing their impact on the metric, horizon, and thermodynamics within the AdS/CFT framework.
Contribution
It demonstrates that second order curvature and nonlocal actions do not alter the AdS black hole metric, and calculates leading third order curvature corrections and their thermodynamic implications.
Findings
Second order corrections do not backreact on the AdS black hole metric.
Leading geometric correction arises from third order in curvature.
Calculated thermodynamic quantities and discussed their properties.
Abstract
Black holes exert quantum pressure coming from the nonlocal gravity correction. We investigate this nonlocal correction for black holes in anti-de Sitter (AdS) spacetime and its dual boundary field theory. We show that the second order curvature and the nonlocal actions do not backreact on the AdS black hole metric. Thus, the interpretation of quantum pressure holds in the bulk for AdS black hole, generalizing the previous result for the asymptotically flat black hole. We then show that the leading geometric correction comes from the third order in curvature and explicitly calculate the corrections to the metric and to the horizon. For applications to AdS/CFT, we conjectured a nonlocal Gibbons-Hawking-York boundary term along with the necessary counter terms to cancel the ultraviolet divergence of the bulk action. We then calculate the thermodynamic quantities in the bulk and discuss…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Noncommutative and Quantum Gravity Theories · Quantum Electrodynamics and Casimir Effect
