Dynamic Topological Quantum Entanglement Network

Jincheng Zhang

Published Aug 28, 2026• 0 citations

Abstract

This paper proposes a novel approach to quantum communication utilizing a dynamically adjusted topological quantum entanglement network. The core concept involves leveraging the coherence time window through adaptive control of the entanglement topology. This eliminates the need for classical communication channels, theoretically enabling superluminal information transfer. The mechanism relies on an adaptive optical system that monitors and responds to environmental noise and changes in quantum coherence, adjusting the topological structure of entangled particles – specifically, manipulating microcrystal quantum dots via acoustic or optical methods – to maintain high-fidelity entanglement. The inherent topological protection offered by this dynamic network significantly reduces information transmission errors. The research addresses the limitations of current quantum communication methods, which predominantly rely on static entanglement sources and classical channels, by introducing a dynamic system that adapts to environmental fluctuations. The presented methodology represents a significant step toward robust and efficient quantum communication protocols.

DOI: 10.5281/zenodo.22136517

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