{\cal N}=2 SO(N) SYM theory from Matrix Model
arXiv:hep-th/0302083 · doi:10.1088/1126-6708/2003/07/043
Abstract
We study {\cal N}=2 SO(2N+1) SYM theory in the context of matrix model. By adding a superpotential of the scalar multiplet, W(Φ), of degree 2N+2, we reduce the theory to {\cal N}=1. The 2N+1 distinct critical points of W(Φ) allow us to choose a vacuum in such a way to break the gauge group to its maximal abelian subgroup. We compute the free energy of the corresponding matrix model in the planar limit and up to two vertices. This result is then used to work out the effective superpotential of {\cal N}=1 theory up to one-instanton correction. At the final step, by scaling the superpotential to zero, the effective U(1) couplings and the prepotential of the {\cal N}=2 theory are calculated which agree with the previous results.
latex, 2 figures, 22 pages, v2: minor modifications, references added
References in corpus (8)
- The N=2 gauge theory prepotential and periods from a perturbative matrix model calculation
- Unoriented Strings, Loop Equations, and N=1 Superpotentials from Matrix Models
- Perturbative Computation of Glueball Superpotentials for SO(N) and USp(N)
- SO(N) Superpotential, Seiberg-Witten Curves and Loop Equations
- Comments on Effective Superpotentials via Matrix Models
- Supersymmetric SO(N_c) Gauge Theory and Matrix Model
- Effective Superpotentials for SO/Sp with Flavor from Matrix Models
- N=2 Supersymmetric SO(N)/Sp(N) Gauge Theories from Matrix Model