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arXiv · 1507.02787

Euclidean Wilson loops and Minimal Area Surfaces in Minkowski AdS3

Andrew Irrgang·Martin Kruczenski
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Abstract

The AdS/CFT correspondence relates Wilson loops in N=4 SYM theory to minimal area surfaces in AdS5xS5 space. If the Wilson loop is Euclidean and confined to a plane (t,x) then the dual surface is Euclidean and lives in Minkowski AdS3. In this paper we study such minimal area surfaces generalizing previous results obtained in the Euclidean case. Since the surfaces we consider have the topology of a disk, the holonomy of the flat current vanishes which is equivalent to the condition that a certain boundary Schroedinger equation has all its solutions anti-periodic. If the potential for that Schroedinger equation is found then reconstructing the surface and finding the area become simpler. In particular we write a formula for the Area in terms of the Schwarzian derivative of the contour. Finally an infinite parameter family of analytical solutions using Riemann Theta functions is described. In this case, both the area and the shape of the surface are given analytically and used to check the previous results.

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Andrew Irrgang, Martin Kruczenski. 2015-07-10. Euclidean Wilson loops and Minimal Area Surfaces in Minkowski AdS3. https://doi.org/10.1007/jhep12(2015)083

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