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Ten-dimensional supersymmetric Janus solutions

Eric D'Hoker, John Estes, Michael Gutperle

Abstract

The reduced field equations and BPS conditions are derived in Type IIB supergravity for configurations of the Janus type, characterized by an $AdS_4$-slicing of $AdS_5$, and various degrees of internal symmetry and supersymmetry. A generalization of the Janus solution, which includes a varying axion along with a varying dilaton, and has SO(6) internal symmetry, but completely broken supersymmetry, is obtained analytically in terms of elliptic functions. A supersymmetric solution with 4 conformal supersymmetries, SU(3) internal symmetry, a varying axion along with a varying dilaton, and non-trivial $B_{(2)}$ field, is derived analytically in terms of genus 3 hyper-elliptic integrals. This supersymmetric solution is the 10-dimensional Type IIB dual to the $\N=1$ interface super-Yang-Mills theory with SU(3) internal symmetry previously found in the literature.

Ten-dimensional supersymmetric Janus solutions

Abstract

The reduced field equations and BPS conditions are derived in Type IIB supergravity for configurations of the Janus type, characterized by an -slicing of , and various degrees of internal symmetry and supersymmetry. A generalization of the Janus solution, which includes a varying axion along with a varying dilaton, and has SO(6) internal symmetry, but completely broken supersymmetry, is obtained analytically in terms of elliptic functions. A supersymmetric solution with 4 conformal supersymmetries, SU(3) internal symmetry, a varying axion along with a varying dilaton, and non-trivial field, is derived analytically in terms of genus 3 hyper-elliptic integrals. This supersymmetric solution is the 10-dimensional Type IIB dual to the interface super-Yang-Mills theory with SU(3) internal symmetry previously found in the literature.

Paper Structure

This paper contains 41 sections, 151 equations, 6 figures.

Figures (6)

  • Figure 1: Mapping geodesic segments under $SL(2,{\bf R})$ in the dilaton/axion upper half plane.
  • Figure 2: Sketch of the boundary geometry of the Janus solution in global and Poincare coordinates for the $AdS_4$ slices.
  • Figure 3: The potential $V(\psi)$ for $C_2^2/\rho^8 =.36$
  • Figure 4: (a) Value of $\mu_0$ as a function of $C_2^2/\rho^8$, (b) dilaton for three values of parameters
  • Figure 5: (a) $f_4$ for three values of parameters, (b) $f_1$ and $f_2$ for three values of parameters
  • ...and 1 more figures