Abstract:We deal with the Dirac operator with eigenvalue dependent boundary and jump conditions. Properties of eigenvalues, eigenfunctions and the resolvent operator are studied. Moreover, uniqueness theorems of the inverse problem according to the Weyl functions and the spectral data (the sets of eigenvalues and norming constants; two different eigenvalues sets) are proved.
“…Dirac operator which is a modern presentation of the relativistic quantum mechanics of electrons aiming to bring a new mathematical result to a wider audience is the relativistic Schrödinger operator in quantum physics [18][19][20][21][22][23]. There are many studies in spectral theory related to different versions of Dirac system [24][25][26][27][28][29][30][31][32][33][34].…”
The p-Laplacian type Dirac systems are nonlinear generalizations of the classical Dirac systems. They can be observed as a bridge between nonlinear systems and linear systems. The purpose of this study is to consider p-Laplacian Dirac boundary value problem on an arbitrary time scale to get forceful results by examining some spectral properties of this problem on time scales. Interesting enough, the p-Laplacian type Dirac boundary value problem exhibits the classical Dirac problem on time scales. Moreover, we prove Picone's identity for p-Laplacian type Dirac system which is an important tool to prove oscillation criteria on time scales. It generalizes a classical and well-known theorem for p = 2 to general case p > 1.
“…Dirac operator which is a modern presentation of the relativistic quantum mechanics of electrons aiming to bring a new mathematical result to a wider audience is the relativistic Schrödinger operator in quantum physics [18][19][20][21][22][23]. There are many studies in spectral theory related to different versions of Dirac system [24][25][26][27][28][29][30][31][32][33][34].…”
The p-Laplacian type Dirac systems are nonlinear generalizations of the classical Dirac systems. They can be observed as a bridge between nonlinear systems and linear systems. The purpose of this study is to consider p-Laplacian Dirac boundary value problem on an arbitrary time scale to get forceful results by examining some spectral properties of this problem on time scales. Interesting enough, the p-Laplacian type Dirac boundary value problem exhibits the classical Dirac problem on time scales. Moreover, we prove Picone's identity for p-Laplacian type Dirac system which is an important tool to prove oscillation criteria on time scales. It generalizes a classical and well-known theorem for p = 2 to general case p > 1.
“…In [16], B.Keskin and A.S.Ozkan obtained the uniqueness theorems of inverse spectral problem in the situation that p(x), r(x) are real-valued functions and h i , H i , α, β are real numbers. However, the problem for recovering the potential remains open.…”
Please cite this article as: Z. Wei, G. Wei, Inverse spectral problem for non-selfadjoint dirac operator with boundary and jump conditions dependent on the spectral parameter, Journal of Computational and Applied Mathematics (2016), http://dx.
“…This type of problems may have discontinuities in the solution or its derivative at an inner point of the interval and arise in heat and mass transfer, mechanics, electronics, radio, geophysics and other branches natural sciences. Direct and inverse problems for Dirac differential equation with transmission conditions have been investigated in [4][5][6]. The aim of this paper is to study a Dirac system with transmission condition and eigenparameter in boundary condition.…”
In this paper we consider Dirac system with eigenvalue dependent boundary conditions. Then we obtain the existence and uniqueness results of solutions by modifying some known techniques for the investigated problem.
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