The visualization of the space probability distribution for a particle moving in a double ring-shaped Coulomb potential
Yuan You, Fa-Lin Lu, Dong-Sheng Sun, Chang-Yuan Chen, and Shi-Hai Dong

TL;DR
This paper analytically solves and visualizes the space probability distribution of a particle in a double ring-shaped Coulomb potential, revealing how quantum numbers and potential parameters influence the distribution's shape.
Contribution
It provides the first analytical solutions and detailed visualizations of the space probability distribution for a double ring-shaped Coulomb potential, including effects of potential parameters.
Findings
SPDs are circular rings in spherical coordinates.
SPD shape shifts towards poles with increasing probability values.
Potential parameter b significantly affects SPD spread.
Abstract
The analytical solutions to a double ring-shaped Coulomb potential (RSCP) are presented. The visualizations of the space probability distribution (SPD) are illustrated for the two-(contour) and three-dimensional (isosurface) cases. The quantum numbers (n, l, m) are mainly relevant for those quasi quantum numbers (n' ,l' ,m' ) via the double RSCP parameter c. The SPDs are of circular ring shape in spherical coordinates. The properties for the relative probability values (RPVs) P are also discussed. For example, when we consider the special case (n, l, m)=(6, 5, 0), the SPD moves towards two poles of axis z when the P increases. Finally, we discuss the different cases for the potential parameter b which is taken as negative and positive values for c>0 . Compared with the particular case b=0 , the SPDs are shrunk for b=-0.5 while spread out for b=0.5.
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Taxonomy
TopicsQuantum Mechanics and Non-Hermitian Physics · Advanced Mathematical Theories and Applications · Chaos-based Image/Signal Encryption
