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      Superintegrable Systems in Darboux spaces

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          Abstract

          Almost all research on superintegrable potentials concerns spaces of constant curvature. In this paper we find by exhaustive calculation, all superintegrable potentials in the four Darboux spaces of revolution that have at least two integrals of motion quadratic in the momenta, in addition to the Hamiltonian. These are two-dimensional spaces of nonconstant curvature. It turns out that all of these potentials are equivalent to superintegrable potentials in complex Euclidean 2-space or on the complex 2-sphere, via "coupling constant metamorphosis" (or equivalently, via Staeckel multiplier transformations). We present tables of the results.

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          On higher symmetries in quantum mechanics

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            Coupling-Constant Metamorphosis and Duality between Integrable Hamiltonian Systems

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              Completeness of superintegrability in two-dimensional constant curvature spaces

              We classify the Hamiltonians \(H=p_x^2+p_y^2+V(x,y)\) of all classical superintegrable systems in two dimensional complex Euclidean space with second-order constants of the motion. We similarly classify the superintegrable Hamiltonians \(H=J_1^2+J_2^2+J_3^2+V(x,y,z)\) on the complex 2-sphere where \(x^2+y^2+z^2=1\). This is achieved in all generality using properties of the complex Euclidean group and the complex orthogonal group.
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                Author and article information

                Journal
                10.1063/1.1619580
                math-ph/0307039

                Mathematical physics,Mathematical & Computational physics
                Mathematical physics, Mathematical & Computational physics

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