Instantons and extreme value statistics of random matrices

A bstract We discuss the distribution of the largest eigenvalue of a random N × N Hermitian matrix. Utilising results from the quantum gravity and string theory literature it is seen that the orthogonal polynomials approach, first introduced by Majumdar and Nadal, can be extended to calculate both t...

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Veröffentlicht in:The journal of high energy physics 2014-04, Vol.2014 (4), p.1-31, Article 118
Hauptverfasser: Atkin, Max R., Zohren, Stefan
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description A bstract We discuss the distribution of the largest eigenvalue of a random N × N Hermitian matrix. Utilising results from the quantum gravity and string theory literature it is seen that the orthogonal polynomials approach, first introduced by Majumdar and Nadal, can be extended to calculate both the left and right tail large deviations of the maximum eigenvalue. This framework does not only provide computational advantages when considering the left and right tail large deviations for general potentials, as is done explicitly for the first multi-critical potential, but it also offers an interesting interpretation of the results. In particular, it is seen that the left tail large deviations follow from a standard perturbative large N expansion of the free energy, while the right tail large deviations are related to the non-perturbative expansion and thus to instanton corrections. Considering the standard interpretation of instantons as tunnelling of eigenvalues, we see that the right tail rate function can be identified with the instanton action which in turn can be given as a simple expression in terms of the spectral curve. From the string theory point of view these non-perturbative corrections correspond to branes and can be identified with FZZT branes.
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subjects Branes
Classical and Quantum Gravitation
Deviation
Eigenvalues
Elementary Particles
High energy physics
Instantons
Mathematical analysis
Physics
Physics and Astronomy
Quantum Field Theories
Quantum Field Theory
Quantum gravity
Quantum Physics
Relativity Theory
String Theory
title Instantons and extreme value statistics of random matrices
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