Square-root quantization: application to quantum black holes
Victor Berezin

TL;DR
This paper compares two quantization methods for relativistic radial motion, revealing a sqrt{n} mass spectrum for quantum black holes, with implications for understanding their quantum properties.
Contribution
It introduces a novel application of quantization techniques to quantum black holes, deriving a specific mass spectrum that differs from traditional models.
Findings
Lorentzian time yields a Sommerfeld spectrum.
Quantum black holes exhibit a sqrt{n} mass spectrum.
Results are slightly dependent on the choice of time.
Abstract
Two different ways of quantizing the relativistic Hamiltonian for radial motion in the field of Coulomb-like potential are compared. The results depend slightly on choice of time. In the case of Lorentzian time a Sommerfeld spectrum is recovered. Application to quantum black holes gives a sqrt{n} mass spectrum with about the same numerical factors.
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