The generalized Marchenko method in the inverse scattering problem for a first-order linear system
T. Aktosun, R. Ercan

TL;DR
This paper extends the Marchenko inverse scattering method to a broader class of first-order linear systems, providing a unified framework for potential reconstruction and explicit solutions, including reflectionless cases.
Contribution
The paper generalizes the Marchenko method to new linear systems, deriving integral equations applicable to systems lacking existing inverse scattering solutions.
Findings
Derived Marchenko integral equations for generalized systems
Explicit formulas for reflectionless potentials and solutions
Described bound-state data in terms of matrix triplets
Abstract
The Marchenko method is developed in the inverse scattering problem for a linear system of first-order differential equations containing potentials proportional to the spectral parameter. The corresponding Marchenko system of integral equations is derived in such a way that the method can be applied to some other linear systems for which a Marchenko method is not yet available. It is shown how the potentials and the scattering solutions to the linear system are constructed from the solution to the Marchenko system. The bound-state information for the linear system with any number of bound states and any multiplicities is described in terms of a pair of constant matrix triplets. When the potentials in the linear system are reflectionless, some explicit solution formulas are presented in closed form for the potentials and for the scattering solutions to the linear system. The theory is…
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Taxonomy
TopicsQuantum optics and atomic interactions · Magneto-Optical Properties and Applications · Matrix Theory and Algorithms
