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Published August 15, 2003 | Published
Journal Article Open

Perturbative analysis of gauged matrix models

Abstract

We analyze perturbative aspects of gauged matrix models, including those where classically the gauge symmetry is partially broken. Ghost fields play a crucial role in the Feynman rules for these vacua. We use this formalism to elucidate the fact that nonperturbative aspects of [script N] = 1 gauge theories can be computed systematically using perturbative techniques of matrix models, even if we do not possess an exact solution for the matrix model. As examples we show how the Seiberg-Witten solution for [script N] = 2 gauge theory, the Montonen-Olive modular invariance for [script N] = 1*, and the superpotential for the Leigh-Strassler deformation of [script N] = 4 can be systematically computed in perturbation theory of the matrix model or gauge theory (even though in some of these cases an exact answer can also be obtained by summing up planar diagrams of matrix models).

Additional Information

©2003 The American Physical Society. Received 5 May 2003; published 18 August 2003. We would like to thank M. Aganagic, R. Bousso, F. Cachazo, S. J. Gates, Jr., M. Marino, A. Marshakov, H. Ooguri, S. Theisen, and K. Zarembo for valuable discussions. The research of R.D. is partly supported by FOM and the CMPA grant of the University of Amsterdam. S.G. is supported by the Clay Mathematics Institute, RFBR grants 01-01-00549 and 02-01-06322. V.A.K. is partly supported by European Union under the RTN contracts HPRN-CT-2000-00122 and -00131. C.V. is partly supported by NSF grants PHY-9802709 and DMS-0074329. We would like to thank the Max Planck Institute in Potsdam (V.A.K.), Ecole Normale Superieure (S.G.), and Harvard University (R.D.) for kind hospitality during part of this work.

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