An approximation for random surfaces on arbitrary target spaces
Mark Wexler

TL;DR
This paper develops a perturbative low-temperature expansion technique for matrix models of random surfaces applicable to arbitrary target spaces, providing accurate estimates for critical exponents across different regimes.
Contribution
It introduces a novel perturbative method for analyzing random surfaces with diverse target spaces, including those with c>1, and demonstrates its effectiveness through detailed calculations.
Findings
Series expanded to 10th order for q-state Potts model
Accurate estimates for critical exponent gamma_str
Logarithmic corrections to scaling identified
Abstract
A perturbative technique, the low-temperature expansion, is developed for matrix models of random surfaces. It can be applied to models with arbitrary target spaces, including ones with c>1. As a simple illustration, the series is worked out to 10th order for the surface coupled to a q-state Potts model. Accurate estimates for, e.g., are obtained both in the low q (c<1) and high q (branched polymer) regimes, including the logarithmic corrections to scaling.
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Taxonomy
TopicsTheoretical and Computational Physics · Stochastic processes and statistical mechanics · Random Matrices and Applications
