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Wilson Surface One-Point Functions: A Case Study

Long-Fu Zhang, Jun-Bao Wu

Abstract

We compute holographic one-point functions for Wilson surfaces in the case of a toroidal surface operator. Compared to the cases of a planar or spherical surface operator, these one-point functions exhibit a more intricate dependence on the shape and position of both the surface and the local operators. Averaging over the moduli space of membranes dual to the surface operator plays a key role in the computations. We obtain both analytical and numerical results. The case of a cylindrical surface operator is also studied.

Wilson Surface One-Point Functions: A Case Study

Abstract

We compute holographic one-point functions for Wilson surfaces in the case of a toroidal surface operator. Compared to the cases of a planar or spherical surface operator, these one-point functions exhibit a more intricate dependence on the shape and position of both the surface and the local operators. Averaging over the moduli space of membranes dual to the surface operator plays a key role in the computations. We obtain both analytical and numerical results. The case of a cylindrical surface operator is also studied.
Paper Structure (18 sections, 81 equations, 8 figures, 1 table)

This paper contains 18 sections, 81 equations, 8 figures, 1 table.

Figures (8)

  • Figure 1: $f_1(\frac{y_1}{r},\frac{y_2}{r})$
  • Figure 2: $f_2(\frac{y_1}{r},\frac{y_2}{r})$
  • Figure 3: $p_1(\frac{y_1}{r},\frac{y_2}{r})$
  • Figure 4: $p_2(\frac{y_1}{r},\frac{y_2}{r})$
  • Figure 5: $q_1(\frac{y_1}{r},\frac{y_2}{r})$
  • ...and 3 more figures