Spectral Problems of a Class of Non-self-adjoint One-dimensional Schrodinger Operators
O. A. Veliev

TL;DR
This paper analyzes the spectral properties of a class of non-self-adjoint one-dimensional Schrödinger operators with complex periodic potentials, deriving explicit formulas for Bloch eigenvalues and functions, and addressing the inverse spectral problem.
Contribution
It provides explicit formulas for Bloch eigenvalues and functions for a specific class of non-self-adjoint Schrödinger operators and investigates the inverse spectral problem.
Findings
Bloch eigenvalues are (2πn+t)^2 for n in Z, t in C
Explicit formulas for Bloch functions are derived
Inverse problem for the operator is considered
Abstract
In this paper we investigate the one-dimensional Schrodinger operator L(q) with complex-valued periodic potential q when q\inL_{1}[0,1] and q_{n}=0 for n=0,-1,-2,..., where q_{n} are the Fourier coefficients of q with respect to the system {e^{i2{\pi}nx}}. We prove that the Bloch eigenvalues are (2{\pi}n+t)^{2} for n\inZ, t\inC and find explicit formulas for the Bloch functions. Then we consider the inverse problem for this operator.
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Taxonomy
TopicsSpectral Theory in Mathematical Physics · Numerical methods in inverse problems · Advanced Mathematical Modeling in Engineering
