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Triangular Schlesinger systems and superelliptic curves

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arxiv 1812.09795 v4 pith:VRTYQ4YC submitted 2018-12-23 math-ph math.MP

classification math-phmath.MP
keywords solutionsrationalschlesingersystemcasecurvesdifferenceequations
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abstract

We study the Schlesinger system of partial differential equations in the case when the unknown matrices of arbitrary size $(p\times p)$ are triangular and the eigenvalues of each matrix form an arithmetic progression with a rational difference $q$, the same for all matrices. We show that such a system possesses a family of solutions expressed via periods of meromorphic differentials on the Riemann surfaces of superelliptic curves. We determine the values of the difference $q$, for which our solutions lead to explicit polynomial or rational solutions of the Schlesinger system. As an application of the $(2\times2)$-case, we obtain explicit sequences of rational solutions and one-parameter families of rational solutions of Painlev\'e VI equations. Using similar methods, we provide algebraic solutions of particular Garnier systems.

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  1. Polygons of Petrovic and Fine, algebraic ODEs, and contemporary mathematics

    math.CA 2019-08 conditional novelty 4.0 of 10

    A historical and mathematical study showing that Petrovic's and Fine's 1890s polygon methods generalize Newton-Puiseux theory and anticipate modern power geometry.

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