2013
DOI: 10.1016/j.aop.2013.02.015
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Factorization method and new potentials from the inverted oscillator

Abstract: In this article we will apply the first- and second-order supersymmetric quantum mechanics to obtain new exactly-solvable real potentials departing from the inverted oscillator potential. This system has some special properties; in particular, only very specific second-order transformations produce non-singular real potentials. It will be shown that these transformations turn out to be the so-called complex ones. Moreover, we will study the factorization method applied to the inverted oscillator and the algebr… Show more

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Cited by 47 publications
(39 citation statements)
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References 42 publications
(82 reference statements)
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“…If we neglect the hard-wall boundary condition, the Hamiltonian will be exactly solvable for the conduction band (18) which corresponds to the inverted harmonic oscillator equation [61,62]. By performing elementary quantum mechanical approaches, we find the following eigenvalue relation for the wave function and corresponding energy eigenvalues in the conduction band…”
Section: B Double Quantum Well Solution In the Conduction Bandmentioning
confidence: 99%
“…If we neglect the hard-wall boundary condition, the Hamiltonian will be exactly solvable for the conduction band (18) which corresponds to the inverted harmonic oscillator equation [61,62]. By performing elementary quantum mechanical approaches, we find the following eigenvalue relation for the wave function and corresponding energy eigenvalues in the conduction band…”
Section: B Double Quantum Well Solution In the Conduction Bandmentioning
confidence: 99%
“…where ∆ = E − V * and ξ = √ 2νx. A pair of solutions exists for each energy value ∆, which can be expressed in terms of hypergeometric functions, see [75]. With an appropriate normalization the two solutions represent waves incident from the left and from the right, as shown in Figure 10.…”
Section: Tunneling and Hawking Radiationmentioning
confidence: 99%
“…whereû stands for any solution of the first equation (8). An alternative representation for the transformation functions involves parametric derivatives with respect to E [7].…”
Section: The Confluent Susy Algorithmmentioning
confidence: 99%