Dynamic Construction and Control of Quantum Entanglement Topological Networks

Jincheng Zhang

Published Sep 2, 2026• 0 citations

Abstract

This paper presents a novel approach to constructing and controlling quantum entanglement networks leveraging programmable photonic crystals and topological defects. The core claim is the development of a dynamic network capable of adapting its topology and entanglement properties, moving beyond static, fixed architectures. This is achieved through the injection of topological defects within an array of photonic crystals, coupled with polarization control and time-resolved measurements. The system enables real-time manipulation of entanglement qubits and facilitates adaptive reconfiguration of the network topology. The key innovation lies in the dynamic control mechanism, addressing a significant limitation of existing topological quantum computing approaches which primarily rely on static network structures. The theoretical framework and underlying mechanisms are detailed, outlining a pathway towards scalable and adaptable quantum information processing. The presented methodology offers a fundamental shift in topology-protected quantum computation, paving the way for more flexible and robust quantum networks.

DOI: 10.5281/zenodo.22243356

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