Black Holes in the Framework of the Speed-Limit Structure (C = P₁ + S₁)

This study interprets black holes from the perspective of the speed-limit structure . Within this structure, the event horizon is defined as the boundary at which and , and this condition is interpreted as a state in which energy attraction reaches its maximum and energy transport is halted. Based on this condition, the divergent behavior appearing at the event horizon is analyzed, and it is interpreted not as an actual divergence of physical quantities but as a limiting behavior that appears in a state where energy transport cannot be established. In addition, within this perspective, the variations of the effective speed of light, time delay, wave propagation, gravitational potential, and escape velocity are analyzed within a consistent structure. As a result, this study presents an interpretation of black holes as an energy-stationary state in which, under the condition of maximum attraction between energies, transport cannot exist.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-02-16
DOI
https://doi.org/10.5281/zenodo.18653621
Primary Topic
Relativity and Gravitational Theory
Type
article
Field-Weighted Citation Impact
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article

Black Holes in the Framework of the Speed-Limit Structure (C = P₁ + S₁)

Young Jae Lee
Zenodo (CERN European Organization for Nuclear Research)
Relativity and Gravitational Theory
article

Black Holes in the Framework of the Speed-Limit Structure (C = P₁ + S₁)

Young Jae Lee
article en

Abstract

This study interprets black holes from the perspective of the speed-limit structure . Within this structure, the event horizon is defined as the boundary at which and , and this condition is interpreted as a state in which energy attraction reaches its maximum and energy transport is halted. Based on this condition, the divergent behavior appearing at the event horizon is analyzed, and it is interpreted not as an actual divergence of physical quantities but as a limiting behavior that appears in a state where energy transport cannot be established. In addition, within this perspective, the variations of the effective speed of light, time delay, wave propagation, gravitational potential, and escape velocity are analyzed within a consistent structure. As a result, this study presents an interpretation of black holes as an energy-stationary state in which, under the condition of maximum attraction between energies, transport cannot exist.

Zenodo (CERN European Organization for Nuclear Research)
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