Factorization and Integrable Systems 2003
DOI: 10.1007/978-3-0348-8003-9_2
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Matrix Riemann-Hilbert Problems Related to Branched Coverings of ℂℙ1

Abstract: In these notes we solve a class of Riemann-Hilbert (inverse monodromy) problems with an arbitrary quasi-permutation monodromy group. The solution is given in terms of Szegö kernel on the underlying Riemann surface. In particular, our construction provides a new class of solutions of the Schlesinger system. We present some results on explicit calculation of the corresponding tau-function, and describe divisor of zeros of the tau-function (so-called Malgrange divisor) in terms of the theta-divisor on the Jacobi … Show more

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Cited by 11 publications
(25 citation statements)
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“…In physics terms, the hyperelliptic tau-function coincides with the chiral partition function of the Ashkin-Teller model [43], and is defined to be det∂ on the hyperelliptic curve (see also [27] for discussion).…”
Section: (B4)mentioning
confidence: 99%
“…In physics terms, the hyperelliptic tau-function coincides with the chiral partition function of the Ashkin-Teller model [43], and is defined to be det∂ on the hyperelliptic curve (see also [27] for discussion).…”
Section: (B4)mentioning
confidence: 99%
“…Closely related formulae for the isomonodromic tau-function of the class of Riemann-Hilbert problems solved in [10] were first found in [8] without reference to any associated Frobenius manifold. The connections between the formulae in [8] and Frobenius manifolds were conjectured in [11] and finally established in [9].…”
Section: The Isomonodromic Tau-functionmentioning
confidence: 99%
“…In the papers of Bershadsky & Radul (1987) and Nakayashiki (1997), they were generalized to the case of Z N curves and applied by Bershadsky & Radul (1987) and Knizhnik (1989) for the calculation of correlation functions in the conformal field theory. In the works of Kitaev & Korotkin (1998), Korotkin (2000), Enolskii & Grava (2004) and Kokotov & Korotkin (2004) the Thomae formulae are used to construct the t-function of the Schlesinger equation associated with hyperelliptic and more general curves. Recently, Thomae-type formulae for trigonal curve were implemented by Braden & Enolski (2006, 2007 to describe charge 3 monopole solution to Bogomolny equation.…”
Section: Introductionmentioning
confidence: 99%