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arXiv 2310.20107quant-ph
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准备商用量子密钥分发系统以进行针对实现漏洞的认证

Preparing a commercial quantum key distribution system for certification against implementation loopholes

Vadim Makarov, Alexey Abrikosov, Poompong Chaiwongkhot, Aleksey K. Fedorov, Anqi Huang, Evgeny Kiktenko, Mikhail Petrov, Anastasiya Ponosova, Daria Ruzhitskaya,… 展开作者

Vadim Makarov, Alexey Abrikosov, Poompong Chaiwongkhot, Aleksey K. Fedorov, Anqi Huang, Evgeny Kiktenko, Mikhail Petrov, Anastasiya Ponosova, Daria Ruzhitskaya, Andrey Tayduganov, Daniil Trefilov, Konstantin Zaitsev

AI总结:

本文为商用光纤QKD系统准备针对实现漏洞的认证流程,详述诱骗态BB84协议的硬件与后处理,分析并修补已知及新漏洞,同时提出认证实验室的技术要求与结构。

摘要:

商用量子密钥分发(QKD)系统需要经过正式认证才能实现广泛部署。认证应包括系统抵御已知实现漏洞及利用这些漏洞的攻击的鲁棒性。在此,我们为该流程准备了一套光纤QKD系统。该系统采用基于诱骗态BB84协议的制备-测量方案、偏振编码,量子比特源速率为312.5 MHz,由QRate制造。我们详述了其硬件和后处理。我们分析硬件的已知实现漏洞,搜寻可能的新漏洞,并讨论对策。随后我们修改系统设计以解决所识别出的最高风险漏洞。我们还制定了认证实验室的技术要求并概述了其可能结构。

英文摘要:

A commercial quantum key distribution (QKD) system needs to be formally certified to enable its wide deployment. The certification should include the system's robustness against known implementation loopholes and attacks that exploit them. Here we ready a fiber-optic QKD system for this procedure. The system has a prepare-and-measure scheme with decoy-state BB84 protocol, polarisation encoding, qubit source rate of 312.5 MHz, and is manufactured by QRate. We detail its hardware and post-processing. We analyse the hardware for known implementation loopholes, search for possible new loopholes, and discuss countermeasures. We then amend the system design to address the highest-risk loopholes identified. We also work out technical requirements on the certification lab and outline its possible structure.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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