Solving for three-dimensional central potentials using matrix mechanics

Abstract

Matrix mechanics is an important component of an undergraduate education in quantum mechanics. In this paper we present several examples of the use of matrix mechanics to solve for a number of three dimensional problems involving central forces. These include examples with which the student is familiar, such as the Coulomb interaction. In this case we obtain excellent agreement with exact analytical methods. More importantly, other interesting `non-solvable' examples, such as the Yukawa potential, can be solved as well. Much less mathematical expertise is required for these methods, while some minimal familiarity with the usage of numerical diagonalization software is necessary.

9 pages, 8 figures, suited for use in undergraduate quantum mechanics courses, submitted to American Journal of Physics figures improved, appendix added, and other minor changes

References in corpus (2)

• Solving for three-dimensional central potentials using matrix mechanics
• Why is the ground state electron configuration for Lithium $1s^{2}2s$ ?

Cited by in corpus (6)

• Generalized scaling law for exciton binding energy in two-dimensional materials
• Numerical matrix method for quantum periodic potentials
• Landau Levels and the Issue of Gauge Invariance in Confined Spaces
• Solving for three-dimensional central potentials using matrix mechanics
• Quantum matrix diagonalization visualized
• The importance of basis states: an example using the Hydrogen basis