2012
DOI: 10.1002/mana.201100268
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Truncated moment problems in the class of generalized Nevanlinna functions

Abstract: Truncated moment and related interpolation problems in the class of generalized Nevanlinna functions are investigated. General solvability criteria will be established and complete parametrizations of solutions are given. The framework used in the paper allows the treatment of even and odd order problems in a parallel manner. The main new results concern the case where the corresponding Hankel matrix of moments is degenerate. One of the new effects in the indefinite case is that the degenerate moment problem m… Show more

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Cited by 17 publications
(19 citation statements)
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“…(11.10) and (C.2)] and the relation between the solutions of the form of matrix continued fractions and that of the linear fractional transformation established in [3, Section 4], we can obtain a description of the general solution τ to nondegenerate Problem (THM) 2n+1 . In the scalar case p = 1, the following result goes back to [7,Corollary 5.2].…”
Section: Parameterized Descriptions Of Z(thmmentioning
confidence: 85%
“…(11.10) and (C.2)] and the relation between the solutions of the form of matrix continued fractions and that of the linear fractional transformation established in [3, Section 4], we can obtain a description of the general solution τ to nondegenerate Problem (THM) 2n+1 . In the scalar case p = 1, the following result goes back to [7,Corollary 5.2].…”
Section: Parameterized Descriptions Of Z(thmmentioning
confidence: 85%
“…The following lemma is a direct corollary of Lemma . It collects some statements concerning asymptotic expansions of the reciprocal function from [, Lemma 2.1] and [, Lemma 2.13, Lemma A3]. Lemma Assume that a sequence s={sj}j=0 satisfies the conditions with 2ν1, let Nfalse(boldsfalse)={nj}j=1N, n=[/2] and let b and the polynomial afalse(zfalse)=j=0νajzj be defined by .…”
Section: Preliminariesmentioning
confidence: 99%
“…To study this problem we use the Schur algorithm, which was elaborated in , and for the class Nκ. Applications of the Schur algorithm to degenerate moment problem in the class Nκ were given in .…”
Section: Introductionmentioning
confidence: 99%
“…With the variable X = √ z, the resistivity problem is reduced to studying the sequence of Padé approximants R n = r n,n+1 (X), n = 1, 2...l/2, with X ∈ [0, ∞), and analogy with the Stieltjes truncated moment problem [1,14,34], is complete as long as the resistivity expands at X → ∞ in the Laurent polynomial with the signalternating coefficients, coinciding with the "Stieltjes-moments" µ k (see e.g., [49,48], were the original work of Stieltjes is explained very clearly).…”
Section: Interpolation With High-concentration Padé Approximantsmentioning
confidence: 99%