AbstractThis paper presents a method for the numerical investigation of the distribution of the eigenvalues introduced into a spectral gap of a periodic Dirac system by a perturbation of the type of the angular momentum term. A number of examples illustrate the effectiveness of the method and show the remarkable accuracy of the strong coupling asymptotic formula even for small values of the perturbation coupling constant. Furthermore, the results shed some light on the spectrum in the exceptional gap of radially periodic three-dimensional Dirac operators
AbstractWe develop relative oscillation theory for one-dimensional Dirac operators which, rather tha...
We show that the absolutely continuous part of the spectral function of the one-dimensional Dirac op...
In this paper we consider a one-dimensional Dirac operator with a periodic potential of Gevrey class...
AbstractThis paper presents a method for the numerical investigation of the distribution of the eige...
This paper presents a method for the numerical investigation of the distribution of the eigenvalues ...
This paper presents a method for the numerical investigation of the distribution of the eigenvalues ...
This paper deals with the number of eigenvalues which appear in the gaps of the spectrum of a Dirac ...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
AbstractUnder minimal hypotheses, sufficient criteria for a perturbed Dirac system to be relatively ...
This paper reports on a new numerical procedure to count eigenvalues in spectral gaps for a class of...
This paper reports on a new numerical procedure to count eigenvalues in spectral gaps for a class of...
This paper reports on a new numerical procedure to count eigenvalues in spectral gaps for a class of...
AbstractWe develop relative oscillation theory for one-dimensional Dirac operators which, rather tha...
We show that the absolutely continuous part of the spectral function of the one-dimensional Dirac op...
In this paper we consider a one-dimensional Dirac operator with a periodic potential of Gevrey class...
AbstractThis paper presents a method for the numerical investigation of the distribution of the eige...
This paper presents a method for the numerical investigation of the distribution of the eigenvalues ...
This paper presents a method for the numerical investigation of the distribution of the eigenvalues ...
This paper deals with the number of eigenvalues which appear in the gaps of the spectrum of a Dirac ...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
A perturbation decaying to 0 at 1 and not too irregular at 0 introduces at most a discrete set of e...
AbstractUnder minimal hypotheses, sufficient criteria for a perturbed Dirac system to be relatively ...
This paper reports on a new numerical procedure to count eigenvalues in spectral gaps for a class of...
This paper reports on a new numerical procedure to count eigenvalues in spectral gaps for a class of...
This paper reports on a new numerical procedure to count eigenvalues in spectral gaps for a class of...
AbstractWe develop relative oscillation theory for one-dimensional Dirac operators which, rather tha...
We show that the absolutely continuous part of the spectral function of the one-dimensional Dirac op...
In this paper we consider a one-dimensional Dirac operator with a periodic potential of Gevrey class...