A quenched large deviation principle and a Parisi formula for a Perceptron version of the GREM
E. Bolthausen, N. Kistler

TL;DR
This paper introduces a perceptron variant of the GREM, establishing a quenched large deviation principle for the empirical energy distribution and connecting it to the Parisi formula, advancing understanding of complex energy landscapes.
Contribution
It develops a perceptron-based GREM model and proves a quenched large deviation principle, linking it to the Parisi variational formula for the SK-model.
Findings
Established a quenched Sanov type large deviation principle for the model
Derived a variational formula related to the Parisi formula
Connected the perceptron GREM to classical spin glass theory
Abstract
We introduce a perceptron version of the Generalized Random Energy Model, and prove a quenched Sanov type large deviation principle for the empirical distribution of the random energies. The dual of the rate function has a representation through a variational formula which is closely related to the Parisi variational formula for the SK-model.
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Taxonomy
TopicsTopological and Geometric Data Analysis · Theoretical and Computational Physics · Stochastic processes and statistical mechanics
