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Quantum State Transition Direction (QSTD): A Novel Framework for Understanding Quantum Measurement

Jincheng Zhang

Published Aug 17, 2026• 0 citations
Publisher

Abstract

This paper introduces the Quantum State Transition Direction (QSTD) theory, a fundamentally new approach to interpreting quantum measurement and the arrow of time within quantum mechanics. The core premise of QSTD is that quantum state transitions are not random but possess a directional component, analogous to thermodynamic forces. This direction, denoted as [$\vec{D}_\psi$], represents the inherent tendency of a quantum system to evolve along a specific trajectory within its Hilbert space. We explore the implications of this directional nature, proposing a quantum version of the time arrow based on these transitions. The theory utilizes quantum dynamics as a foundational element and aims to provide a more intuitive and potentially Nobel-worthy understanding of the measurement problem and the fundamental nature of time in the quantum realm. This framework offers a novel perspective that challenges the traditional view of quantum measurement as a purely probabilistic event.

DOI
10.5281/zenodo.21975365

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