The Case for Discrete Energy Levels of a Black Hole
Jacob D. Bekenstein

TL;DR
This paper proposes a simple algebraic method for black hole quantization, predicting a discrete, evenly spaced area spectrum with degeneracies, linking quantum properties to classical symmetries and entropy.
Contribution
It introduces a novel algebraic approach to black hole quantization based on symmetry, predicting a universal discrete area spectrum with specific degeneracies.
Findings
Predicts a uniformly spaced area spectrum for all black hole charges and angular momenta.
Establishes a relationship between eigenvalue degeneracy and black hole entropy.
Provides a method to determine the interval between area eigenvalues.
Abstract
The adiabatic invariant nature of black hole horizon area in classical gravity suggests that in quantum theory the corresponding operator has a discrete spectrum. I here develop further an algebraic approach to black hole quantization which starts from very elementary assumptions, and proceeds by exploiting symmetry. It predicts a uniformly spaced area spectrum for all charges and angular momenta. Area eigenvalues are degenerate; correspondence with black hole entropy then dictates a precise value for the interval between eigenvalues.
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