An Integrated Interpretation of Quantum Mechanics and Relativity Based on LSIT

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1. Verfasser: LEE, WOOSUNG
Format: Recurso digital
Sprache:Englisch
Veröffentlicht: Zenodo 2026
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author LEE, WOOSUNG
author_facet LEE, WOOSUNG
contents <p><span lang="EN-US">This paper, based on the Lee’s Simultaneity Invariance Theorem (LSIT), derives a corollary referred to as the macroscopic indeterminacy theorem, which states that the descriptive requirements imposed on a single physical event are structurally incompatible. From this theorem, a minimal action scale required for the description of an event emerges naturally, and its numerical value is shown to coincide precisely with the Planck constant. This result reinterprets uncertainty not as an intrinsic randomness of nature, but as a universal limitation arising in the process of event description, while the Planck constant serves as the physical scale that quantifies this limitation. From this perspective, the present work provides an interpretative framework that alleviates the conceptual tension between relativity theory and quantum mechanics without introducing additional hypotheses.</span></p> <div></div>
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spellingShingle An Integrated Interpretation of Quantum Mechanics and Relativity Based on LSIT
LEE, WOOSUNG
Invariance of simultaneity
LSIT
Event-based ontology
Macroscopic indeterminacy
Planck constant
Minimum action scale
Event attribution
Foundations of quantum mechanics
Relativity–quantum mechanics unification
Spacetime geometry
Uncertainty principle (interpretation)
Measurement problem
Michelson–Morley experiment (reinterpretation)
Descriptive incompatibility
Event versus value realism
Geometric origin of uncertainty
Spacetime quantization
Event-centered physics
<p><span lang="EN-US">This paper, based on the Lee’s Simultaneity Invariance Theorem (LSIT), derives a corollary referred to as the macroscopic indeterminacy theorem, which states that the descriptive requirements imposed on a single physical event are structurally incompatible. From this theorem, a minimal action scale required for the description of an event emerges naturally, and its numerical value is shown to coincide precisely with the Planck constant. This result reinterprets uncertainty not as an intrinsic randomness of nature, but as a universal limitation arising in the process of event description, while the Planck constant serves as the physical scale that quantifies this limitation. From this perspective, the present work provides an interpretative framework that alleviates the conceptual tension between relativity theory and quantum mechanics without introducing additional hypotheses.</span></p> <div></div>
title An Integrated Interpretation of Quantum Mechanics and Relativity Based on LSIT
topic Invariance of simultaneity
LSIT
Event-based ontology
Macroscopic indeterminacy
Planck constant
Minimum action scale
Event attribution
Foundations of quantum mechanics
Relativity–quantum mechanics unification
Spacetime geometry
Uncertainty principle (interpretation)
Measurement problem
Michelson–Morley experiment (reinterpretation)
Descriptive incompatibility
Event versus value realism
Geometric origin of uncertainty
Spacetime quantization
Event-centered physics
url https://doi.org/10.5281/zenodo.18113094