Nonperturbative Effect in c=1 Noncritical String Theory and Penner Model
arXiv:hep-th/0512176 · doi:10.1016/j.nuclphysb.2006.02.006
Abstract
We derive the effect of instantons in the Penner model. It is known that the free energies of the Penner model and the c=1 noncritical string at self-dual radius agree in a suitable double scaling limit. On the other hand, the instanton in the matrix model describes a nonperturbative effect in the noncritical string theory. We study the correspondence between the instantons in the Penner model and the nonperturbative effect in c=1 noncritical string at self-dual radius.
26 pages, 3 figures; v2: study of multi-instanton effects is added
References in corpus (8)
- 2D Gravity and Random Matrices
- Lectures on 2D gravity and 2D string theory (TASI 1992)
- Non-Perturbative Effects in Matrix Models and D-branes
- Loops versus Matrices - The nonperturbative aspects of noncritical string
- Generalized Penner models to all genera
- Universality of Nonperturbative Effect in Type 0 String Theory
- Time-dependent backgrounds of 2D string theory: Non-perturbative effects
- Universality of Nonperturbative Effects in c<1 Noncritical String Theory
Cited by in corpus (10)
- Borel and Stokes Nonperturbative Phenomena in Topological String Theory and c=1 Matrix Models
- Stokes Phenomena and Non-perturbative Completion in the Multi-cut Two-matrix Models
- Stokes Phenomena and Quantum Integrability in Non-critical String/M Theory
- Partition functions and the continuum limit in Penner matrix models
- Fine structure in the large n limit of the non-hermitian Penner matrix model
- Monte Carlo approach to nonperturbative strings -- demonstration in noncritical string theory
- Analytic Study for the String Theory Landscapes via Matrix Models
- Riemann Hypothesis, Matrix/Gravity Correspondence and FZZT Brane Partition Functions
- Phase space and phase transitions in the Penner matrix model with negative coupling constant
- An Exact Bosonization Rule for c=1 Noncritical String Theory