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Entanglement Direction Field (EDF): A Novel Framework for Understanding Entangled States

Jincheng Zhang

Published Aug 17, 2026• 0 citations
Publisher

Abstract

This paper introduces the Entanglement Direction Field (EDF) framework, a novel approach to characterizing and manipulating entangled quantum states. The fundamental premise of the EDF is that entanglement possesses a directional component, moving beyond the traditional view of entanglement as a purely correlative phenomenon. We posit that the direction of entanglement can be quantified and exploited, offering a new degree of freedom in multi-particle quantum networks. The EDF provides a geometric representation of entangled states, allowing for a more intuitive and potentially more powerful method for control and measurement. This framework has the potential to significantly advance our understanding of entanglement and could represent a critical step towards realizing practical quantum technologies, including those with potential Nobel Prize-winning implications. The core mathematical concept is represented by the vector [Eij], where i and j represent the indices of the entangled particles.

DOI
10.5281/zenodo.21975135

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