2012
DOI: 10.1016/j.physleta.2011.12.020
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Wronskian differential formula for confluent supersymmetric quantum mechanics

Abstract: The confluent SUSY QM usually involves a second-order SUSY transformation where the two factorization energies converge to a single value. In order to achieve it, one generally needs to solve an indefinite integral, which limits the actual systems to which it can be applied. Nevertheless, not so long ago, an alternative method to achieve this transformation was developed through a Wronskian differential formula [Phys Lett. A 3756 (2012) 692]. In the present work, we consider the k-confluent SUSY transformation… Show more

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Cited by 36 publications
(54 citation statements)
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“…In this way we generalize our earlier results obtained for the restricted case of the AFF model with integer values of ν only [42,43], that were based on the Darboux transformations of the quantum harmonic oscillator. Coherently with the indicated above peculiarity of the half-integer values of the parameter ν from the point of view of the Klein four-group transformations, we will see how the Jordan states [44,45,46,47,48,41,49] enter the construction at ν = Z + 1/2 via the confluent Darboux transformations. We also trace out the structural changes in the spectra of the rationally deformed AFF systems which happen at half-integer ν under continuous variation of this parameter.…”
Section: Introductionmentioning
confidence: 78%
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“…In this way we generalize our earlier results obtained for the restricted case of the AFF model with integer values of ν only [42,43], that were based on the Darboux transformations of the quantum harmonic oscillator. Coherently with the indicated above peculiarity of the half-integer values of the parameter ν from the point of view of the Klein four-group transformations, we will see how the Jordan states [44,45,46,47,48,41,49] enter the construction at ν = Z + 1/2 via the confluent Darboux transformations. We also trace out the structural changes in the spectra of the rationally deformed AFF systems which happen at half-integer ν under continuous variation of this parameter.…”
Section: Introductionmentioning
confidence: 78%
“…Following the analysis and ideas presented in refs. [44,45,46,47,49], the constructions can be generalized to the case of higher order Jordan states defined via relations (L − λ * )Ω (0) * = ψ * , (L − λ * )Ω (k) * = Ω (k−1) * , k = 1, . .…”
Section: Application: Examplementioning
confidence: 99%
“…In the confluent SUSY algorithm, the transformation functions form a Jordan chain of the Hamiltonian that governs the initial quantum problem, that is, they are generalized eigenvectors of that Hamiltonian [2]. As such, the transformation functions admit both an integral and a differential representation [20] [7], the relationship between which was reported on recently [9] [19]. One of the principal open questions regarding the confluent SUSY algorithm concerns the regularity of the potential in the SUSY-transformed system.…”
Section: Introductionmentioning
confidence: 99%
“…Recent works on the confluent algorithm include its application to the inverted oscillator [7] and to the Dirac equation for pseudoscalar potentials [8]. Further results concern its equivalence with the zero-mode supersymmetry scheme [9], a representation using a differential formula [10,11] and higher-order confluent SUSY transformations [12]. The purpose of the present note is to apply the confluent SUSY algorithm to models that are governed by the spheroidal equation [13], a particular case of the confluent Heun class [14].…”
Section: Introductionmentioning
confidence: 99%
“…By combining the point transformation (35) with the series (10) and (11), we obtain solutions Ψ j , j a nonnegative integer, of bound-state type to our boundary-value problem (36), (37) in the form…”
mentioning
confidence: 99%