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American Journal of Physics

The Three-Dimensional, Quantum-Mechanical, Anisotropic-Harmonic Oscillator

Harvey J. Rosenberg

Published Aug 1, 1969• 0 citations
Publisher
DOI
10.1119/1.1975871

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The semiclassical treatment of the two-dimensional harmonic oscillator provides an instructive example of the relation between classical motion and the quantum mechanical energy spectrum. We extend previous work on the anisotropic oscillator with incommensurate frequencies and the isotropic oscillator to the case with commensurate frequencies for which the Lissajous curves appear as classical periodic orbits. Because of the three different scenarios depending on the ratio of its frequencies, the two-dimensional harmonic oscillator offers a unique way to explicitly analyze the role of symmetries in classical and quantum mechanics.
We present a comprehensive study of the rational extension of the quantum anisotropic harmonic oscillator (QAHO) potentials with linear and/or quadratic perturbations. For the one-dimensional harmonic oscillator plus imaginary linear perturbation ([Formula: see text]), we show that the rational extension is possible not only for the even but also for the odd co-dimensions m. In two-dimensional case, we construct the rational extensions for QAHO potentials with quadratic ([Formula: see text]) perturbation both when [Formula: see text] is real or imaginary and obtain their solutions. Finally, we extend the discussion to the three-dimensional QAHO with linear and quadratic perturbations and obtain the corresponding rationally extended potentials. For all these cases, we obtain the conditions under which the spectrum remains real and also when there is degeneracy in the system.