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Strategic Evolution of Quantum Communication Leveraging Non-Local Topological Robustness and Dynamic Protocols

Sreeja Poduri, Lalit Kovvuri, Lavanya Addepalli, S. D. Vidya Sagar, Jaime Lloret

Published Sep 10, 2026• 0 citations

Abstract

In this paper we propose a new Topological Quantum Network (TQN) for ultra-secure communication that prevents these limitations of conventional networks in dynamic and noisy environments. The methodology proposed here encodes and transmits information using topological quantum states which can survive noise from the environment and physical disruptions. We integrate fault tolerant quantum repeaters for reliable long-distance communication and an adaptive error correction protocol to dynamically optimize the performance depending on the real time noise profiles. The effectiveness of the network is validated through simulations over urban, underwater, and space-based scenarios that show reductions in error rate as well as improvements in communication fidelity and cost efficiency. This work introduces a scalable and resilient solution to secure quantum communication and toward the deployment in global and interplanetary networks. Finally, future directions of the research are discussed to push practical implementations a step further, including experimental validation and hardware advancements.

DOI: 10.1201/9781042005376-40

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