Dynamic Construction of Quantum Entanglement Topological Networks and Information Transmission

Jincheng Zhang

Published Sep 5, 2026• 0 citations

Abstract

This research investigates the construction of dynamic quantum entanglement topological networks using self-assembled topological defects within superconducting materials. The core aim is to achieve real-time control of entangled states and adaptive adjustment of the topological network structure, ultimately enabling high-efficiency and fault-tolerant quantum information transmission. The proposed method leverages quantum tunneling effects within the material to induce the formation of quantum dots or magnetic heterostructures, naturally creating topological defects. Precise control of parameters such as temperature and magnetic field is employed to guide the formation and maintenance of entanglement states. Programmable control circuits enable dynamic reconfiguration of the topological network structure, altering the connectivity and topology of entangled states. This approach represents a novel strategy, moving beyond the limitations of fixed-defect quantum networks and offering new possibilities for quantum communication and computation. The key innovations lie in the dynamic control and adaptive nature of the network, allowing for resilience against environmental fluctuations and facilitating complex quantum operations. The theoretical framework presented here provides a foundation for developing practical quantum networks with enhanced performance characteristics.

DOI: 10.5281/zenodo.22337954

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