Spectral Statistics of Dirac Ensembles
arXiv:2109.12741 · doi:10.1063/5.0078267
Abstract
In this paper we find spectral properties in the large limit of Dirac operators that come from random finite noncommutative geometries. In particular for a Gaussian potential the limiting eigenvalue spectrum is shown to be universal regardless of the geometry and is given by the convolution of the semicircle law with itself. For simple non-Gaussian models this convolution property is also evident. In order to prove these results we show that a wide class of multi-trace multimatrix models have a genus expansion.
arXiv comment5 figures, 24 pages, very minor changes
References in corpus (12)
- The Spectral Action Principle
- Blobbed topological recursion: properties and applications
- Matrix geometries and fuzzy spaces as finite spectral triples
- Monte Carlo simulations of random non-commutative geometries
- Blobbed topological recursion of the quartic Kontsevich model I: Loop equations and conjectures
- Bootstrapping Dirac Ensembles
- Spectral estimators for finite non-commutative geometries
- Solution of all quartic matrix models
- Random Finite Noncommutative Geometries and Topological Recursion
- Phase Transition in Random Noncommutative Geometries
- Scaling behaviour in random non-commutative geometries
- BV quantization of dynamical fuzzy spectral triples
Cited by in corpus (7)
- Bootstrapping Dirac Ensembles
- From Noncommutative Geometry to Random Matrix Theory
- Double scaling limits of Dirac ensembles and Liouville quantum gravity
- BV quantization of dynamical fuzzy spectral triples
- No-resonance conditions, random matrices, and quantum chaotic models
- Computational explorations of a deformed fuzzy sphere
- A ribbon graph derivation of the algebra of functional renormalization for random multi-matrices with multi-trace interactions