Extremal Transitions and Five-Dimensional Supersymmetric Field Theories

David R. Morrison; Nathan Seiberg

doi:10.1016/S0550-3213(96)00592-5

paper

Extremal Transitions and Five-Dimensional Supersymmetric Field Theories

arXiv:hep-th/9609070 · doi:10.1016/S0550-3213(96)00592-5

Abstract

We study five-dimensional supersymmetric field theories with one-dimensional Coulomb branch. We extend a previous analysis which led to non-trivial fixed points with $E_{n}$ symmetry ( $E_{8}$ , $E_{7}$ , $E_{6}$ , $E_{5} = S p in (10)$ , $E_{4} = S U (5)$ , $E_{3} = S U (3) \times S U (2)$ , $E_{2} = S U (2) \times U (1)$ and $E_{1} = S U (2)$ ) by finding two new theories: $E ~_{1}$ with $U (1)$ symmetry and $E_{0}$ with no symmetry. The latter is a non-trivial theory with no relevant operators preserving the super-Poincaré symmetry. In terms of string theory these new field theories enable us to describe compactifications of the type I' theory on $S^{1} / Z_{2}$ with 16, 17 or 18 background D8-branes. These theories also play a crucial role in compactifications of M-theory on Calabi--Yau spaces, providing physical models for the contractions of del Pezzo surfaces to points (thereby completing the classification of singularities which can occur at codimension one in Kähler moduli). The structure of the Higgs branch yields a prediction which unifies the known mathematical facts about del Pezzo transitions in a quite remarkable way.

21 pages, 3 figures, minor change to appendix

Extremal Transitions and Five-Dimensional Supersymmetric Field Theories

Abstract

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