The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the procedure of Chandrasekhar. The corresponding eigenfunctions obtained can be represented as series of Jacobi polynomials. The spectrum of eigenvalues can be calculated using continued fraction techniques. Representations for the eigenvalues and eigenfunctions are obtained for various ranges of the parameters appearing in the Kerr–Newman metric. Some comments concerning the bag model of nucleons are made
ABSTRACT Dirac equation is a wave equation for a relativistic charged particle with momentum p, mass...
Dirac equations are of fundamental importance for relativistic quantum mechanics and quantum electro...
A simple method for solving the Dirac equation in space with a three-dimensional vector time and pro...
The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the pr...
The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the pr...
The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the pr...
Exact solutions are found for the Chandrasekhar Page angular equation which results when the Dirac e...
By employing a pseudoorthonormal coordinate-free approach, the Dirac equation for particles in the K...
The separability of the massive Dirac equation in the non-extreme Kerr geometry in horizon-penetrati...
The extended Cornell potential which the harmonic oscillator potential is included in the original C...
In this paper we compute the square root of the generalized squared total angular momentum operator ...
The discrete spectrum of the Dirac operator for a point electron in the maximal analytically extende...
We investigate the Dirac equation in Kerr-Newman space-time, using horizon penetrating coordinates (...
We give an alternative proof of the completeness of the Chandrasekhar ansatz for the Dirac equation ...
A variational discrete representation of the relativistic energy spectrum of an electron in a Coulom...
ABSTRACT Dirac equation is a wave equation for a relativistic charged particle with momentum p, mass...
Dirac equations are of fundamental importance for relativistic quantum mechanics and quantum electro...
A simple method for solving the Dirac equation in space with a three-dimensional vector time and pro...
The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the pr...
The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the pr...
The Dirac equation is solved for an electron in a Kerr–Newman geometry using an adaptation of the pr...
Exact solutions are found for the Chandrasekhar Page angular equation which results when the Dirac e...
By employing a pseudoorthonormal coordinate-free approach, the Dirac equation for particles in the K...
The separability of the massive Dirac equation in the non-extreme Kerr geometry in horizon-penetrati...
The extended Cornell potential which the harmonic oscillator potential is included in the original C...
In this paper we compute the square root of the generalized squared total angular momentum operator ...
The discrete spectrum of the Dirac operator for a point electron in the maximal analytically extende...
We investigate the Dirac equation in Kerr-Newman space-time, using horizon penetrating coordinates (...
We give an alternative proof of the completeness of the Chandrasekhar ansatz for the Dirac equation ...
A variational discrete representation of the relativistic energy spectrum of an electron in a Coulom...
ABSTRACT Dirac equation is a wave equation for a relativistic charged particle with momentum p, mass...
Dirac equations are of fundamental importance for relativistic quantum mechanics and quantum electro...
A simple method for solving the Dirac equation in space with a three-dimensional vector time and pro...