Large Deviation Principles via Spherical Integrals
arXiv:2004.07117 · doi:10.2140/pmp.2022.3.543
Abstract
In this article, we develop a framework to study the large deviation principle for matrix models and their quantized versions, by tilting the measures using the limits of spherical integrals obtained in [46,47]. As examples, we obtain 1. a large deviation principle for the empirical distribution of the diagonal entries of , for a sequence of diagonal matrices and unitary Haar distributed matrices ; 2. a large deviation upper bound for the empirical eigenvalue distribution of , for two sequences of diagonal matrices , and their complementary lower bounds at measures which are described by the free product with amalgamation; 3. a large deviation principle for the Kostka number , for two sequences of partitions with at most rows; 4. a large deviation upper bound for the Littlewood-Richardson coefficients , for three sequences of partitions with at most rows, and their complementary lower bounds at nice measures.
arXiv comment70 pages, journal version
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