Orthogonal Polynomials and Random Matrices: A Riemann-Hilbert Approach
By Percy Deift. 2000
1,505 citations recorded by the source corpus.
Subfields: Algebra and Number Theory, Applied Mathematics, Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/d05f2f2b0e5d5fffb3f049650655cd9c734d1e79
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In Algebra and Number Theory
- Arno B. J. Kuijlaars
- Andrei Martínez-Finkelshtein
- Alexander I. Aptekarev
- K. Mclaughlin
- Walter Van Assche
- L. Erdős
- Pavel Bleher
- Maxim L. Yattselev
In Applied Mathematics
- L. Erdős
- Arno B. J. Kuijlaars
- Horng-Tzer Yau
- Andrei Martínez-Finkelshtein
- Robert J. Berman
- Alexander I. Aptekarev
- Terence Tao
- S. Boucksom
In Statistics and Probability
Citations in the corpus
- Spectral statistics of Erdős–Rényi graphs I: Local semicircle law (2011, background): “ty in the interior of the spectrum and the edge universality near the spectral edge. The bulk and edge universalities for invariant ensembles have been extensively studied; see e.g. [2, 6, 7, 27] and [1, 4, 5] for a review. A key fact that attributes to the progress in the study of invariant ensembl”
- Asymptotics of Orthogonal Polynomials for a Weight with a Jump on [−1,1] (2009, background): “From [10] (see also [8]) it follows that the coefficients can be found directly in terms of the matrix Y in (85): a(2)n = lim z→∞ z (2)Y12 (z, n) Y21 (z, n)”
- Universality for mathematical and physical systems (2006, neutral): “There are many ensembles of random matrices that are of interest, and we refer the reader to the classic text of Mehta [Meh] for more information (see also [Dei1]).”
- A Dynamical Approach to Random Matrix Theory (2017, methodology): “The detailed proof can be found in [8] or [37].”
- Matrix models for beta ensembles (2002, methodology): “The Vandermonde determinant formula of Lemma 2.7 can also be obtained from the Heine formula, as presented in Deift [5], page 44.”
- Continuum limits of random matrices and the Brownian carousel (2007, methodology): “Assuming certain growth conditions on V the corresponding problem in the β = 2 case can be treated using orthogonal polynomials and Riemann-Hilbert methods, see e.g. Deift (1999), Deift et al. (1999).”
- Higher‐Dimensional Coulomb Gases and Renormalized Energy Functionals (2013, background): “For more details on these aspects, we refer the reader to [29], and for an introduction to the random matrix aspect to the texts [4, 21, 52].”
- A New Approach to Universality Limits Involving Orthogonal Polynomials (2007, background): “Orthogonal polynomials play an important role in random matrix theory [3], [8].”
- Tracy-Widom law for the extreme eigenvalues of sample correlation matrices (2011, methodology): “1 1 2 1 2 1 1 2 ... ... ... 1 2 1 2 1 2 1 , which is a Jacobi matrix with positive subdiagonal entries. Such a Jacobi matrix has simple eigenvalues, for example, see Proposition 2.40 of [5]. Next we turn to the proof of ii). We use X(p) to denote the submatrix of X with p-th row deleted, and ”
- Asymptotic Zero Behavior of Laguerre Polynomials with Negative Parameter (2002, methodology): “fies the same jump conditions on ΣT ∩ ∆ε(βj) as T does. (c) We have as n → ∞, Pj(z) = I +O 1 n N(z) uniformly for |z −βj| = ε. (3.40) The Riemann-Hilbert problems for P1 and P2 are solved as in [5, 7] with the use of Airy functions, see also [6, 21]. Note that P1 and P2, as well as N, depend on n.”
- Asymptotics of Hermite–Padé Rational Approximants for Two Analytic Functions with Separated Pairs of Branch Points (Case of Genus 0) (2007, methodology): “Following [31, 26] we have Ub∗ = Eb∗Vb∗Ab∗ , (4.”