Table of Contents
Fetching ...

All Exact Solutions of a 1/4 Bogomol'nyi-Prasad-Sommerfield Equation

Youichi Isozumi, Muneto Nitta, Keisuke Ohashi, Norisuke Sakai

Abstract

We obtain all possible solutions of a 1/4 Bogomol'nyi-Prasad-Sommerfield equation exactly, containing configurations made of walls, vortices and monopoles in the Higgs phase. We use supersymmetric U(N_C) gauge theories with eight supercharges with N_F fundamental hypermultiplets in the strong coupling limit. The moduli space for the composite solitons is found to be the space of all holomorphic maps from a complex plane to the wall moduli space found recently, the deformed complex Grassmann manifold. Monopoles in the Higgs phase are also found in U(1) gauge theory.

All Exact Solutions of a 1/4 Bogomol'nyi-Prasad-Sommerfield Equation

Abstract

We obtain all possible solutions of a 1/4 Bogomol'nyi-Prasad-Sommerfield equation exactly, containing configurations made of walls, vortices and monopoles in the Higgs phase. We use supersymmetric U(N_C) gauge theories with eight supercharges with N_F fundamental hypermultiplets in the strong coupling limit. The moduli space for the composite solitons is found to be the space of all holomorphic maps from a complex plane to the wall moduli space found recently, the deformed complex Grassmann manifold. Monopoles in the Higgs phase are also found in U(1) gauge theory.

Paper Structure

This paper contains 19 equations, 3 figures.

Figures (3)

  • Figure 1: Surfaces defined by the same energy density $t_{\rm w}+t_{\rm v}=0.5c$: a) A vortex stretched between walls with $H_0(z)e^{Mx^3}=\sqrt{c}(e^{x^3},ze^{4},e^{-x^3})$. b) A vortex attached to a tilted wall with $H_0(z)e^{Mx^3}=\sqrt{c}(z^2e^{x^3},e^{-1/2z})$. Note that there are two surfaces with the same energy for each wall.
  • Figure 2: Multi-vorices between multi-walls: Surfaces defined by the same energy density $t_{\rm w}+t_{\rm v}=0.5c$ with $H_0(z)e^{Mx^3}= \sqrt{c}((z-4-2i)(z+5+8i)e^{3/2x^3}, (z+8-i)(z-7+6i)e^{1/2x^3+12}, z^2e^{-1/2x^3+12},(z-6-5i)(z+6-7i)e^{-3/2x^3})$.
  • Figure 3: A cat's-cradle soliton: Surfaces defined by the same energy density $t_{\rm w}+t_{\rm v}=0.5c$ with $H_0(z)e^{Mx^3}= \sqrt{c}(e^{x^3},(z-2-5i)(z-6+5i)e^{3/4z-1/2},e^{-x^3})$.