Homogeneous systems with quadratic integrals, Lie-Poisson quasibrackets, and Kovalevskaya's method

I. A. Bizyaev   ; V. V. Kozlov

Sbornik. Mathematics, Tome 206 (2015) no. 12, pp. 1682-1706

Résumé

We consider differential equations with quadratic right-hand sides that admit two quadratic first integrals, one of which is a positive-definite quadratic form. We indicate conditions of general nature under which a linear change of variables reduces this system to a certain ‘canonical’ form. Under these conditions, the system turns out to be divergenceless and can be reduced to a Hamiltonian form, but the corresponding linear Lie-Poisson bracket does not always satisfy the Jacobi identity. In the three-dimensional case, the equations can be reduced to the classical equations of the Euler top, and in four-dimensional space, the system turns out to be superintegrable and coincides with the Euler-Poincaré equations on some Lie algebra. In the five-dimensional case we find a reducing multiplier after multiplying by which the Poisson bracket satisfies the Jacobi identity. In the general case for $n>5$ we prove the absence of a reducing multiplier. As an example we consider a system of Lotka-Volterra type with quadratic right-hand sides that was studied by Kovalevskaya from the viewpoint of conditions of uniqueness of its solutions as functions of complex time. Bibliography: 38 titles.

Détail

Keywords: first integrals, conformally Hamiltonian system, Kovalevskaya system, dynamical systems with quadratic right-hand sides.
Mots-clés : Poisson bracket

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