2005
DOI: 10.1016/j.physleta.2005.02.020
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Wronskian formula for confluent second-order supersymmetric quantum mechanics

Abstract: The confluent second-order supersymmetric quantum mechanics, with factorization energies ǫ 1 , ǫ 2 tending to a single ǫ-value, is studied. We show that the Wronskian formula remains valid if generalized eigenfunctions are taken as seed solutions. The confluent algorithm is used to generate SUSY partners of the Coulomb potential.

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Cited by 39 publications
(60 citation statements)
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“…1). It is known that a non-singular SUSY transformation for the free particle that adds a single new level to this system will always lead to a Pöschl-Teller potential, a one-soliton KdV potential [4,5,23,24], and this is the case for the k-confluent transformation, so our result agrees with the previous ones. Nevertheless, it does not have to be this way for all potentials, in fact, the outcome for the single-gap Lamé potential in the next Section points out to a different direction.…”
Section: Free Particlesupporting
confidence: 89%
See 1 more Smart Citation
“…1). It is known that a non-singular SUSY transformation for the free particle that adds a single new level to this system will always lead to a Pöschl-Teller potential, a one-soliton KdV potential [4,5,23,24], and this is the case for the k-confluent transformation, so our result agrees with the previous ones. Nevertheless, it does not have to be this way for all potentials, in fact, the outcome for the single-gap Lamé potential in the next Section points out to a different direction.…”
Section: Free Particlesupporting
confidence: 89%
“…In this work we deal with a specific case of higher-order SUSY transformations, the confluent case, in which several factorization energies converge to the same value [3][4][5]. Taking such limit appropriately, this transformation leads to more flexibility for spectral design compared to the usual real case.…”
Section: Introductionmentioning
confidence: 99%
“…For further details, particularly on spectral design, we refer the reader to [11,22,23] and references therein. We start out by considering an initial equation that has the general form…”
Section: The Confluent Susy Algorithmmentioning
confidence: 99%
“…In contrast to the previous example, this time we will start out from a boundary-value problem for the Schrödinger equation (14), and generate the Dirac SUSY partners arising from the confluent algorithm. Let us consider the following problem…”
Section: Harmonic Oscillator Systemmentioning
confidence: 99%