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Topologically Massive Gravity and Galilean Conformal Algebra: A Study of Correlation Functions

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arxiv 1012.3316 v1 pith:2PKJ36VB submitted 2010-12-15 hep-th

classification hep-th
keywords algebragravityconformalcorrelationfunctionslimitmassivetopologically
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The Galilean Conformal Algebra (GCA) arises from the relativistic conformal algebra in the non-relativistic limit. In two dimensions, one can view it as a limit of linear combinations of the two copies Virasoro algebra. Recently, it has been argued that Topologically Massive Gravity (TMG) realizes the quantum 2d GCA in a particular scaling limit of the gravitational Chern-Simons term. To add strength to this claim, we demonstrate a matching of correlation functions on both sides of this correspondence. A priori looking for spatially dependent correlators seems to force us to deal with high spin operators in the bulk. We get around this difficulty by constructing the non-relativistic Energy-Momentum tensor and considering its correlation functions. On the gravity side, our analysis makes heavy use of recent results of Holographic Renormalization in Topologically Massive Gravity.

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  1. Modular Hamiltonian and entanglement entropy in the BMS free fermion theory

    hep-th 2025-07 conditional novelty 6.0 of 10

    In the BMS free fermion model, the two-interval modular Hamiltonian has local plus bi-local terms, and the vacuum entanglement entropy for n intervals is the chiral-CFT formula with c_L=1 and c_M=0.

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