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Quantum Reality Boundary Tension (QRBT)

Jincheng Zhang

Published Aug 17, 2026• 0 citations
Publisher

Abstract

This paper introduces the Quantum Reality Boundary Tension (QRBT) framework, a novel approach to understanding the persistent challenge of reconciling quantum mechanics with classical reality. The core proposition is that a fundamental tension exists at the boundary between these realms, driving observable phenomena. Specifically, the framework posits that macroscopic superposition states are not merely a consequence of quantum mechanics but are actively maintained by this tension. This tension, represented mathematically as [Tq], is proposed as a key element in resolving longstanding paradoxes within the interpretation of quantum theory. The framework aims to provide a tangible, mathematically-defined concept to explore the dynamics of quantum systems and potentially unlock solutions to fundamental problems in quantum gravity and the measurement problem. The work explores the implications of this tension for understanding the transition from quantum to classical behavior, highlighting the role of decoherence and the potential for new technological advancements based on a deeper understanding of this underlying force. ---

DOI
10.5281/zenodo.21975082

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