2016
DOI: 10.1090/proc/13153
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Jacobi polynomial moments and products of random matrices

Abstract: Motivated by recent results in random matrix theory we will study the distributions arising from products of complex Gaussian random matrices and truncations of Haar distributed unitary matrices. We introduce an appropriately general class of measures and characterize them by their moments essentially given by specific Jacobi polynomials with varying parameters. Solving this moment problem requires a study of the Riemann surfaces associated to a class of algebraic equations. The connection to random matrix the… Show more

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Cited by 7 publications
(14 citation statements)
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References 40 publications
(42 reference statements)
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“…Let G j denote a standard complex Gaussian matrix of size (n + ν j ) × (n + ν j−1 ). According to the recent work [27], in the limit n → ∞ the singular values squared of the random matrix product G r · · · G s+1 T s · · · T 1 (3.43)…”
Section: )mentioning
confidence: 99%
“…Let G j denote a standard complex Gaussian matrix of size (n + ν j ) × (n + ν j−1 ). According to the recent work [27], in the limit n → ∞ the singular values squared of the random matrix product G r · · · G s+1 T s · · · T 1 (3.43)…”
Section: )mentioning
confidence: 99%
“…Let F (z) denote the Stieltjes transform of the measure µ r,s . It can be derived using notions from free probability [13] that the function w(z) = zF (z) satisfies the algebraic equation…”
Section: )mentioning
confidence: 99%
“…where x * > 0 is the right endpoint of the support of µ r,r (as the measure is the free multiplicative convolution of compactly supported measures on the positive real axis, x * has to be finite). Using properties of the S-transform from free probability theory it can be derived (see, e.g., [13]) that the function w(z) = zF (z) satisfies the algebraic equation Up to a scaling in the argument, this is the equation for the Stieltjes transforms in the case s = 0, which coincides with the Fuss-Catalan case. It is known (see, e.g., [11,21]) that the boundary values of v on the branch cut (0, x * ) can be stated explicitly by This equation is of a similar type as (3.8), which enables us to find a functional relation between G and the Stieltjes transform F of µ r,r in terms of a rational transformation F (z) = (r + 1)2 r G 2 r+1 z 1 + (r − 1)2 r zG (2 r+1 z) .…”
Section: Density Of Singular Values Of Products With At Most One Compmentioning
confidence: 99%
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