2010
DOI: 10.1214/10-aop534
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Random matrices: Universality of ESDs and the circular law

Abstract: Given an n × n complex matrix A, letbe the empirical spectral distribution (ESD) of its eigenvalues λ i ∈ C, i = 1, . . . n. We consider the limiting distribution (both in probability and in the almost sure convergence sense) of the normalized ESD µ 1 √ n An of a random matrix A n = (a ij ) 1≤i,j≤n where the random variables a ij − E(a ij ) are iid copies of a fixed random variable x with unit variance. We prove a universality principle for such ensembles, namely that the limit distribution in question is inde… Show more

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Cited by 380 publications
(531 citation statements)
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“…As long as the five critical quantities are the same, two matrices whose coefficients are sampled from two different distribution will yield approximately the same eigenvalue distribution. This phenomenon is known in the random matrix theory literature as "universality" (Tao et al, 2010;Naumov, 2012).…”
Section: Discussionmentioning
confidence: 99%
“…As long as the five critical quantities are the same, two matrices whose coefficients are sampled from two different distribution will yield approximately the same eigenvalue distribution. This phenomenon is known in the random matrix theory literature as "universality" (Tao et al, 2010;Naumov, 2012).…”
Section: Discussionmentioning
confidence: 99%
“…For non-Gaussian entries whose law possesses a density and finite moments of order at least 6, a full proof, based on Girko idea's, appears in [Bai97]. The problem was recently settled in full generality, see [TaV08a], [TaV08b], [GoT07]; the extra ingredients in the proof are closely related to the study of the minimal singular value of XX * discussed above.…”
Section: Bibliographical Notesmentioning
confidence: 99%
“…, y ln,n be the zeros of P ′ n located in the disk D R . Note that k n ≤ n and l n < n. By the Poisson-Jensen formula, see [6,Chapter 8], we have for any z ∈ D R which is not a zero or pole of L n , (11) log…”
Section: Proof Of Lemma 22mentioning
confidence: 99%
“…Applying the inequality between the arithmetic and quadratic means several times to the Poisson-Jensen formula (11) and dividing by n 2 we obtain 1 n 2 log 2 |L n (z)| (16) ≤ 3 n 2 I 2 n (z; R) + 3l n n 2 ln l=1 log 2 R(z − y l,n ) R 2 −ȳ l,n z + 3k n n 2 kn k=1 log 2 R(z − x k,n ) R 2 −x k,n z .…”
Section: Proof Of Lemma 22mentioning
confidence: 99%