Search of a general form of superpotential in hierarchy with discrete energy spectrum
Sergei P. Maydanyuk (Institute for Nuclear Research, National Academy, of Sciences of Ukraine)

TL;DR
This paper generalizes the concept of superpotential in supersymmetric quantum mechanics, enabling the connection of potentials with discrete spectra through arbitrary bound or unbound states, and introduces new deformation methods.
Contribution
It proposes a unified definition of superpotential based on Riccati equation solutions, extending SUSY QM techniques to inverse problems and new potential deformations.
Findings
Reconstruction of potential deformations using SUSY QM and inverse problem methods.
Identification of parameters affecting wave function behavior and potential zero-points.
Development of new deformation types connecting potentials with non-overlapping spectra.
Abstract
A generalized definition of superpotential has proposed, which connects two one-dimensional potentials and with discrete energy spectra completely and where: 1) energy of factorization equals to arbitrary level of spectrum of and function of factorization is defined concerning bound state at this level, 2) energy of factorization equals to arbitrary energy and function of factorization is defined concerning unbound (or non-normalizable) state at this energy. It has shown, that for unknown superpotential such its definition follows from solution of Riccati equation at given . Using arbitrary bound state in construction of superpotential, SUSY QM methods in detailed calculations of spectral characteristics have been coming to level of methods of inverse problem. So, if as starting to choose rectangular well with finite width and infinitely high…
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Taxonomy
TopicsQuantum Mechanics and Non-Hermitian Physics · Quantum chaos and dynamical systems · Algebraic and Geometric Analysis
