Scattering and bound states for a class of non-central potentials
arXiv:quant-ph/0410130 · doi:10.1088/0305-4470/38/15/012
Abstract
We obtain L2-series solutions of the nonrelativistic three-dimensional wave equation for a large class of non-central potentials that includes, as special cases, the Aharonov-Bohm, Hartmann, and magnetic monopole potentials. It also includes contributions from the potential term, cos(theta)/r^2 (in spherical coordinates). The solutions obtained are for all energies, the discrete (for bound states) as well as the continuous (for scattering states). The L2 bases of the solution space are chosen such that the matrix representation of the wave operator is tridiagonal. The expansion coefficients of the radial and angular components of the wavefunction are written in terms of orthogonal polynomials satisfying three-term recursion relations resulting from the matrix wave equation.
20 pages, 1 figure
References in corpus (4)
Cited by in corpus (17)
- Dirac and Klein-Gordon equations with equal scalar and vector potentials
- Solution of the nonrelativistic wave equation in the tridiagonal representation approach
- Analytic solution of the Schrodinger equation for an electron in the field of a molecule with an electric dipole moment
- Extending the class of solvable potentials: III. The hyperbolic single wave
- Non-Central Potentials, Exact Solutions and Laplace Transform Approach
- Systematic and intuitive approach for separation of variables in the Dirac equation for a class of noncentral electromagnetic potentials
- Solution of the Dirac equation by separation of variables in spherical coordinates for a class of three-parameter non-central electromagnetic potential
- Extending the class of solvable potentials: II. Screened Coulomb potential with a barrier
- Charged particle in the field an electric quadrupole in two dimensions
- Quantum mechanics with orthogonal polynomials
- The three-dimensional Dirac-Oscillator in the presence of Aharonov-Bohm and magnetic monopole potentials
- Time-Dependent Dunkl-Schrödinger Equation with an Angular-Dependent Potential
- Extending the class of solutions of the Dirac equation using tridiagonal matrix representations
- Relativistic Energies and Scattering Phase Shifts for the Fermionic Particles Scattered by Hyperbolical potential with the Pseudo (Spin) Symmetry
- Novel Bound States Treatment of the Two Dimensional Schrodinger Equation with Pseudocentral Plus Multiparameter Noncentral Potential
- Quantum Mechanics without an Equation of Motion
- Analytical solutions of the Dirac equation using the Tridiagonal Representation Approach: General study, limitations, and possible applications