2022
DOI: 10.1088/1751-8121/ac9164
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Dynamical symmetry algebras of two superintegrable two-dimensional systems

Abstract: A complete classification of 2D superintegrable systems on two-dimensional conformally flat spaces has been performed over the years and 58 models, divided into 12 equivalence classes, have been obtained. We will re-examine two pseudo-Hermitian quantum systems $E_{8}$ and $E_{10}$ from such a classification by a new approach based on extra sets of ladder operators. Those extra ladder operators are exploited to obtain the generating spectrum algebra and the dynamical symmetry one. We will relate the generators … Show more

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Cited by 3 publications
(2 citation statements)
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“…[3,6,15,27,28] and references therein). Such an approach has been successfully applied to various Lie algebras such as su(3) and gl(3) in order to recover the Smorodinsky-Winternitz systems, as well as the generic model on the sphere S 2 , which connects to the 58 superintegrable systems on conformally flat spaces [29,30]. The approach chosen here is quite different, and is mainly based on the algebraic setting, where integrals are polynomials in the enveloping algebra of a Lie algebra and the (non-commutative) integrability or superintegrability will be deduced from commutation relations of the polynomials in enveloping algebra of s, or either using the simpler relations in terms of the Lie-Poisson or Berezin bracket.…”
Section: Algebraic Integrability and Superintegrabilitymentioning
confidence: 99%
“…[3,6,15,27,28] and references therein). Such an approach has been successfully applied to various Lie algebras such as su(3) and gl(3) in order to recover the Smorodinsky-Winternitz systems, as well as the generic model on the sphere S 2 , which connects to the 58 superintegrable systems on conformally flat spaces [29,30]. The approach chosen here is quite different, and is mainly based on the algebraic setting, where integrals are polynomials in the enveloping algebra of a Lie algebra and the (non-commutative) integrability or superintegrability will be deduced from commutation relations of the polynomials in enveloping algebra of s, or either using the simpler relations in terms of the Lie-Poisson or Berezin bracket.…”
Section: Algebraic Integrability and Superintegrabilitymentioning
confidence: 99%
“…[6,27,28,3,15] and references therein). Such an approach has been successfully applied to various Lie algebras such as su(3) and gl(3) in order to recover the Smorodinsky-Winternitz systems, as well as the generic model on the sphere S 2 , which connects to the 58 superintegrable systems on conformally flat spaces [29,30]. The approach chosen here is quite different, and is mainly based on the algebraic setting, where integrals are polynomials in the enveloping algebra of a Lie algebra and the (non-commutative) integrability or superintegrability will be deduced from commutation relations of the polynomials in enveloping algebra of s, or either using the simpler relations in terms of the Lie-Poisson or Berezin bracket.…”
Section: Algebraic Integrability and Superintegrabilitymentioning
confidence: 99%