A Fermi Model of Quantum Black Hole
Chong-Sun Chu, Rong-Xin Miao

TL;DR
This paper introduces a quantum fermionic model of Schwarzschild black holes that reproduces entropy and suggests a universal principle of maximal state capacity, implying a fundamental limit on spatial locality.
Contribution
It presents a novel fermionic quantum model of black holes that accounts for entropy and extends to charged and cosmological constant cases, proposing a universal quantum gravity principle.
Findings
Microstate counting matches Bekenstein-Hawking entropy.
Model applies to charged and cosmological black holes.
Suggests a fundamental limit on quantum states in any volume.
Abstract
We propose a quantum model of the Schwarzschild black hole as a quantum mechanics of a system of fermionic degrees of freedom. The system has a constant density of states and a Fermi energy that is inversely proportional to the size of the system. Assuming equivalence principle, we show that the degeneracy pressure of the Fermi degrees of freedom is able to withstand the collapse of gravity if the radius of the system is given precisely by the horizon radius of the Schwarzschild black hole. In our model, the fermionic degrees of freedom at each energy level can be entangled in certain different ways, giving rise to a multitude of degenerate ground states of the system. The counting of these microstates reproduces precisely the Bekenstein-Hawking entropy. This simple Fermi model is universal and works also for the Reissner-Nordstr\"om charged black hole as well as black hole with a…
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Taxonomy
TopicsNoncommutative and Quantum Gravity Theories · Black Holes and Theoretical Physics · Relativity and Gravitational Theory
