Higher Spin AdSd+1_{d+1}/CFTd_d at One Loop

preprint2014arXivOpen access

Abstract

Following arXiv:1308.2337, we carry out one loop tests of higher spin AdSd+1_{d+1}/CFTd_d correspondences for d≥2d\geq 2. The Vasiliev theories in AdSd+1_{d+1}, which contain each integer spin once, are related to the U(N)U(N) singlet sector of the dd-dimensional CFT of NN free complex scalar fields; the minimal theories containing each even spin once -- to the O(N)O(N) singlet sector of the CFT of NN free real scalar fields. Using analytic continuation of higher spin zeta functions, which naturally regulate the spin sums, we calculate one loop vacuum energies in Euclidean AdSd+1_{d+1}. In even dd we compare the result with the O(N0)O(N^0) correction to the aa-coefficient of the Weyl anomaly; in odd dd -- with the O(N0)O(N^0) correction to the free energy FF on the dd-dimensional sphere. For the theories of integer spins, the correction vanishes in agreement with the CFT of NN free complex scalars. For the minimal theories, the correction always equals the contribution of one real conformal scalar field in dd dimensions. As explained in arXiv:1308.2337, this result may agree with the O(N)O(N) singlet sector of the theory of NN real scalar fields, provided the coupling constant in the higher spin theory is identified as GN∼1/(N−1)G_N\sim 1/(N-1). Our calculations in even dd are closely related to finding the regularized aa-anomalies of conformal higher spin theories. In each even dd we identify two such theories with vanishing aa-anomaly: a theory of all integer spins, and a theory of all even spins coupled to a complex conformal scalar. We also discuss an interacting UV fixed point in d=5d=5 obtained from the free scalar theory via an irrelevant double-trace quartic interaction. This interacting large NN theory is dual to the Vasiliev theory in AdS6_6 where the bulk scalar is quantized with the alternate boundary condition.

Explore this paper’s authors, topics and related work.

Building this map preview

BZPEER is loading the nearby papers, people, topics and institutions for this page.

Reviews 0

Write a reviewWrite

No reviews yet.

Discussion 0

Add a commentWrite

No comments yet.