The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant

Abstract We find the membrane equations which describe the leading order in 1/D dynamics of black holes in the D → ∞ limit for the most general four-derivative theory of gravity in the presence of a cosmological constant. We work up to linear order in the parameter determining the strength of the fo...

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Main Authors: Aditya Kar, Taniya Mandal, Arunabha Saha
Format: Article
Language:English
Published: SpringerOpen 2019-08-01
Series:Journal of High Energy Physics
Subjects:
Online Access:http://link.springer.com/article/10.1007/JHEP08(2019)078
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spelling doaj-552a5792c52b41b09386a4bc468464b52020-11-25T03:46:04ZengSpringerOpenJournal of High Energy Physics1029-84792019-08-012019814610.1007/JHEP08(2019)078The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constantAditya Kar0Taniya Mandal1Arunabha Saha2Indian Institute of Science Education and Research PuneIndian Institute of Science Education and Research BhopalUniversity of GenevaAbstract We find the membrane equations which describe the leading order in 1/D dynamics of black holes in the D → ∞ limit for the most general four-derivative theory of gravity in the presence of a cosmological constant. We work up to linear order in the parameter determining the strength of the four-derivative corrections to the gravity action and hence there are no ghost modes in the theory. We find that the effective membrane equations we obtain are the covariant version of the membrane equations in absence of the cosmological constant. We also find the world-volume stress tensor for the membrane whose conservation gives the membrane equations. We apply the membrane equations to predict the light quasi-normal mode spectrum of black holes and black branes in the theory of gravity under consideration.http://link.springer.com/article/10.1007/JHEP08(2019)078Black HolesClassical Theories of Gravity
collection DOAJ
language English
format Article
sources DOAJ
author Aditya Kar
Taniya Mandal
Arunabha Saha
spellingShingle Aditya Kar
Taniya Mandal
Arunabha Saha
The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant
Journal of High Energy Physics
Black Holes
Classical Theories of Gravity
author_facet Aditya Kar
Taniya Mandal
Arunabha Saha
author_sort Aditya Kar
title The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant
title_short The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant
title_full The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant
title_fullStr The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant
title_full_unstemmed The large D membrane paradigm for general four-derivative theory of gravity with a cosmological constant
title_sort large d membrane paradigm for general four-derivative theory of gravity with a cosmological constant
publisher SpringerOpen
series Journal of High Energy Physics
issn 1029-8479
publishDate 2019-08-01
description Abstract We find the membrane equations which describe the leading order in 1/D dynamics of black holes in the D → ∞ limit for the most general four-derivative theory of gravity in the presence of a cosmological constant. We work up to linear order in the parameter determining the strength of the four-derivative corrections to the gravity action and hence there are no ghost modes in the theory. We find that the effective membrane equations we obtain are the covariant version of the membrane equations in absence of the cosmological constant. We also find the world-volume stress tensor for the membrane whose conservation gives the membrane equations. We apply the membrane equations to predict the light quasi-normal mode spectrum of black holes and black branes in the theory of gravity under consideration.
topic Black Holes
Classical Theories of Gravity
url http://link.springer.com/article/10.1007/JHEP08(2019)078
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