Universality and Non-Perturbative Definitions of 2D Quantum Gravity from Matrix Models
J. Luis Miramontes, Joaquin Sanchez Guillen

TL;DR
This paper explores the universal aspects of non-perturbative definitions of 2D quantum gravity via matrix models, comparing different approaches and highlighting the need for new physical input in certain cases.
Contribution
It introduces an alternative non-perturbative definition of matrix models that emphasizes the necessity of new physical input for connecting to 2D quantum gravity.
Findings
Universality holds for non-perturbative definitions of Hermitian matrix models.
Different procedures like quantum, stochastic, and stabilization are compared.
An alternative definition shows the need for additional physical input in $d=0$ models.
Abstract
The universality of the non-perturbative definition of Hermitian one-matrix models following the quantum, stochastic, or -like stabilization is discussed in comparison with other procedures. We also present another alternative definition, which illustrates the need of new physical input for matrix models to make contact with 2D quantum gravity at the non-perturbative level.
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