Microscopic quantum structure of black hole and vacuum versus quantum statistical origin of gravity
Shun-Jin Wang

TL;DR
This paper proposes a microscopic quantum model of vacuum and black holes, revealing a non-singular internal structure, a quantum origin of gravity, and consistent entropy calculations, challenging traditional singularity-based models.
Contribution
It introduces a Planckon-based vacuum model to explain black hole structure, gravity, and entropy without singularities, linking quantum effects to gravitational phenomena.
Findings
Black hole interior has no singularity, with linear gravity potential.
Hawking entropy matches the calculated value.
Black hole and vacuum quantum structures are interconnected through Casimir effects.
Abstract
The Planckon densely piled model of vacuum is proposed. Based on this model, the microscopic quantum structure of Schwarzschild black hole and quantum statistical origin of its gravity are studied. The cutoff of black hole horizon leads to Casimir effect inside the horizon. This effect makes the inside vacuum has less zero quantum fluctuation energy than that of outside vacuum and the spin 1/2 radiation hole excitations are resulted inside the horizon. The mean energy of the radiation hole excitations is related to the temperature decrease of the Hawking-Unruh type by the period law of the Fermion temperature greens function and a temperature difference as well as gravity are created on the horizon. A dual relation of the gravity potentials between inside and outside regions of the black hole is found. An attractor behaviour of the horizon surface is unveiled. The gravity potential…
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Taxonomy
TopicsQuantum Electrodynamics and Casimir Effect · Black Holes and Theoretical Physics · Cosmology and Gravitation Theories
