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(2015)
Riesz Basis Property with Parentheses for Dirac System with Integrable Potential
(1955)
Translated under the title Teoriya obyknovennykh differentsial'nykh uravnenii
J. Bergh, J. Löfsrtöm (1976)
Interpolation Spaces. An Introduction
A. Savchuk, I. Sadovnichaya (2013)
Asymptotic formulas for fundamental solutions of the Dirac system with complex-valued integrable potentialDifferential Equations, 49
H. Triebel (1978)
Interpolation Theory, Function Spaces, Differential Operators
A.M. Savchuk, I.V. Sadovnichaya (2013)
Asymptotic Formulas for Fundamental Solutions of the Dirac System with Complex-Valued Integrable PotentialDiffer. Uravn., 49
(1988)
Operatory Shturma–Liuvillya i Diraka (Sturm–Liouville and Dirac Operators)
M. Burlutskaya, V. Kurdyumov, A. Khromov (2012)
Refined asymptotic formulas for eigenvalues and eigenfunctions of the Dirac systemDoklady Mathematics, 85
(2014)
The Dirac Operator with Complex–Valued Integrable Potential, Math
M.Sh. Burlutskaya, V.P. Kurdyumov, A.P. Khromov (2012)
Refined Asymptotic Formulas for the Eigenvalues and Eigenfunctions of the Dirac SystemDokl. Ross. Akad. Nauk, 443
K. Kirsch (2016)
Theory Of Ordinary Differential Equations
V. Kornev, A. Khromov (2013)
Dirac System with Undifferentiable Potential and Antiperiodic Boundary Conditions, 13
Colin Bennett, R. Sharpley (1987)
Interpolation of operators
P. Djakov, B. Mityagin (2011)
Riesz bases consisting of root functions of 1D Dirac operators, 141
B.M. Levitan, I.S. Sargsyan (1988)
Operatory Shturma–Liuvillya i Diraka
(1976)
Interpolation Spaces. An Introduction, Berlin–New
We study the spectral properties of the Dirac operator L P,U generated in the space (L 2[0, π])2 by the differential expression By′ + P(x)y and by Birkhoff regular boundary conditions U, where y = (y 1, y 2) t , $$B = \left( {\begin{array}{*{20}{c}} { - i}&0 \\ 0&i \end{array}} \right)$$ , and the entries of the matrix P are complexvalued Lebesgue measurable functions on [0, π]. We also study the asymptotic properties of the eigenvalues {λ n } n∈Z of the operator L P,U as n → ∞ depending on the “smoothness” degree of the potential P; i.e., we consider the scale of Besov spaces B 1,∞ θ , θ ∈ (0, 1). In the case of strongly regular boundary conditions, we study the asymptotic behavior of the system of normalized eigenfunctions of the operator L P,U , and in the case of regular but not strongly regular boundary conditions, we find the asymptotics of two-dimensional spectral projections.
Differential Equations – Springer Journals
Published: May 20, 2016
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