Algorithmic Integrability Tests for Nonlinear Differential and Lattice Equations

Nonlinear Sciences – Exactly Solvable and Integrable Systems

Scientific paper

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Submitted to: Computer Physics Communications, Latex, uses the style files elsart.sty and elsart12.sty

Scientific paper

10.1016/S0010-4655(98)00121-0

Three symbolic algorithms for testing the integrability of polynomial systems of partial differential and differential-difference equations are presented. The first algorithm is the well-known Painlev\'e test, which is applicable to polynomial systems of ordinary and partial differential equations. The second and third algorithms allow one to explicitly compute polynomial conserved densities and higher-order symmetries of nonlinear evolution and lattice equations. The first algorithm is implemented in the symbolic syntax of both Macsyma and Mathematica. The second and third algorithms are available in Mathematica. The codes can be used for computer-aided integrability testing of nonlinear differential and lattice equations as they occur in various branches of the sciences and engineering. Applied to systems with parameters, the codes can determine the conditions on the parameters so that the systems pass the Painlev\'e test, or admit a sequence of conserved densities or higher-order symmetries.

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