Maximally superintegrable Smorodinsky-Winternitz systems on the N-dimensional sphere and hyperbolic spaces
Francisco J. Herranz, Angel Ballesteros, Mariano Santander, Teresa Sanz-Gil
Abstract
The classical Smorodinsky-Winternitz systems on the ND sphere, Euclidean and hyperbolic spaces SN, EN and HN are simultaneously approached starting from the Lie algebras sok(N+1), which include a parametric dependence on the curvature k. General expressions for the Hamiltonian and its integrals of motion are given in terms of intrinsic geodesic coordinate systems. Each Lie algebra generator gives rise to an integral of motion, so that a set of N(N+1)/2 integrals is obtained. Furthermore, 2N-1 functionally independent ones are identified which, in turn, shows that the well known maximal superintegrability of the Smorodinsky-Winternitz system on EN is preserved when curvature arises. On both SN and HN, the resulting system can be interpreted as a superposition of an "actual" oscillator and N "ideal" oscillators (for the sphere, these are alike the actual ones), which can also be understood as N "centrifugal terms"; this is the form seen in the Euclidean limiting case.
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