On realizations of polynomial algebras with three generators via deformed oscillator algebras
Phillip S. Isaac, Ian Marquette
Abstract
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Phillip S. Isaac, Ian Marquette
Abstract
Open-access reader
We present the most general polynomial Lie algebra generated by a second order integral of motion and one of order M , construct the Casimir operator, and show how the Jacobi identity provides the existence of a realization in terms of deformed oscillator algebra. We also present the classical analogue of this construction for the most general polynomial Poisson algebra. Two specific classes of such polynomial algebras are discussed that include the symmetry algebras observed for various 2D superintegrable systems.
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We present the most general polynomial Lie algebra generated by a second order integral of motion and one of order M , construct the Casimir operator, and show how the Jacobi identity provides the existence of a realization in terms of deformed oscillator algebra. We also present the classical analogue of this construction for the most general polynomial Poisson algebra. Two specific classes of such polynomial algebras are discussed that include the symmetry algebras observed for various 2D superintegrable systems.
Key concepts: Polynomial, Mathematics, Casimir element, Realization (probability), Algebra over a field, Jacobi identity, Pure mathematics, Universal enveloping algebra