Singular inverse square potential in arbitrary dimensions with a minimal length: Application to the motion of a dipole in a cosmic string background
Djamil Bouaziz, Michel Bawin

TL;DR
This paper analytically solves the N-dimensional inverse square potential Schrödinger equation with a minimal length, applying it to a dipole in a cosmic string background, revealing conditions for bound states and clarifying conflicting literature.
Contribution
It provides an exact solution using Heun's functions for the inverse square potential with a minimal length in arbitrary dimensions, and applies it to cosmic string physics.
Findings
Bound state exists only if the dipole angle exceeds π/4
Minimal length acts as a cosmic string radius
Clarifies previous conflicting results in the literature
Abstract
We solve analytically the Schr\"odinger equation for the N-dimensional inverse square potential in quantum mechanics with a minimal length in terms of Heun's functions. We apply our results to the problem of a dipole in a cosmic string background. We find that a bound state exists only if the angle between the dipole moment and the string is larger than {\pi}/4. We compare our results with recent conflicting conclusions in the literature. The minimal length may be interpreted as a radius of the cosmic string.
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