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arXiv · 1910.08555

Supersymmetric Yang-Mills, Spherical Branes, and Precision Holography

Nikolay Bobev·Pieter Bomans·Fridrik Freyr Gautason·Joseph A. Minahan·Anton Nedelin
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Abstract

Using supersymmetric localization we compute the free energy and BPS Wilson loop vacuum expectation values for planar maximally supersymmetric Yang-Mills theory on $S^d$ in the strong coupling limit for $2\leq d<6$. The same calculation can also be performed in supergravity using the recently found spherical brane solutions. We find excellent agreement between the two sets of results. This constitutes a non-trivial precision test of holography in a non-conformal setting. The free energy of maximal SYM on $S^6$ diverges in the strong coupling limit which might signify the onset of little string theory. We show how this divergence can be regularized both in QFT and in supergravity. We also consider $d=7$ with a small negative 't Hooft coupling and show that the free energy and Wilson loop vacuum expectation value agree with the results from supergravity after addressing some subtleties.

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Nikolay Bobev, Pieter Bomans, Fridrik Freyr Gautason, Joseph A. Minahan, Anton Nedelin. 2019-10-18. Supersymmetric Yang-Mills, Spherical Branes, and Precision Holography. https://doi.org/10.1007/jhep03(2020)047

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