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This paper introduces SurfNet, a novel quantum network architecture that combines entanglement-based teleportation with direct message transfer to mitigate channel noise. By leveraging surface codes for logical qubit encoding and implementing parallel fault-tolerant channels, the proposed system significantly improves communication fidelity and throughput against operational errors and photon loss. The work represents a critical advancement in scaling reliable long-distance quantum communications through advanced error correction protocols.
Quantum Network Routing based on Surface Code Error Correction
arXiv:2606.12781v1 Announce Type: new Abstract: Quantum networks encounter unavoidable channel noises and erasure errors, presenting a huge obstacle in designing protocols that attain both high reliability and efficiency. Typically, quantum networks fall into two categories: those utilize quantum entanglements for quantum teleportation, and those directly transfer the actual quantum messages. In this paper, we present SurfNet, a quantum network that inherits the main advantages from both categories. It employs surface codes as logical qubits for encoding messages, and utilizes two parallel communication channels to fault-tolerantly transfer each surface code in a modular manner. Our approach of using surface codes can timely correct both operational and photon loss errors within the network, and the integration of the two channels within the network can greatly improve network throughput. For the implementation of SurfNet, we propose a novel network architecture, designed to better integrate surface codes into quantum networks. We also propose a novel error correction decoder, designed to fully utilize the modular characteristic of surface codes within our network. Simulation results demonstrate that SurfNet with its decoder significantly enhances the communication fidelity within quantum networks.
Abstract:Quantum networks encounter unavoidable channel noises and erasure errors, presenting a huge obstacle in designing protocols that attain both high reliability and efficiency. Typically, quantum networks fall into two categories: those utilize quantum entanglements for quantum teleportation, and those directly transfer the actual quantum messages. In this paper, we present SurfNet, a quantum network that inherits the main advantages from both categories. It employs surface codes as logical qubits for encoding messages, and utilizes two parallel communication channels to fault-tolerantly transfer each surface code in a modular manner. Our approach of using surface codes can timely correct both operational and photon loss errors within the network, and the integration of the two channels within the network can greatly improve network throughput. For the implementation of SurfNet, we propose a novel network architecture, designed to better integrate surface codes into quantum networks. We also propose a novel error correction decoder, designed to fully utilize the modular characteristic of surface codes within our network. Simulation results demonstrate that SurfNet with its decoder significantly enhances the communication fidelity within quantum networks.
arXiv:2606.12781 [quant-ph]
(or arXiv:2606.12781v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2606.12781 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
https://doi.org/10.1109/ICDCS60910.2024.00117 Focus to learn more DOI(s) linking to related resources
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