具有量子密钥分配的随机密钥仿真及应用目的

IF 0.5 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC Electrical Control and Communication Engineering Pub Date : 2022-06-01 DOI:10.2478/ecce-2022-0006
Olaf Grote, A. Ahrens
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引用次数: 0

摘要

量子密钥分发(QKD)是一种经过研究的安全通信方法,用于交换只有共享参与者知道的加密密钥。密钥分发的脆弱问题是在不安全或不可信的通道上进行协商和传输。QKD通信方法的新进一步发展是通信设备(如卫星)的现场技术和应用的一部分。然而,为了提高涉及量子力学和量子物理定律的加密协议的新应用可能性,需要昂贵的物理测试装置。因此,光学仿真软件可以在基本的量子密钥分配仿真和进一步发展量子密码系统中发挥作用。在本文中,作者考虑了一种可行的基于BB84协议的QKD设置,通过光学仿真软件实现线性密钥速率来创建对称密钥材料。本文还提供了两种将QKD用于密码系统的实验体系结构设计。
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Simulation and Application Purpose of a Randomized Secret Key with Quantum Key Distribution
Abstract The Quantum Key Distribution (QKD) is a well-researched secure communication method for exchanging cryptographic keys only known by the shared participants. The vulnerable problem of a secret key distribution is the negotiation and the transfer over an insecure or untrusted channel. Novel further developments of the QKD communication method are part of in-field technologies and applications in communication devices, such as satellites. However, expensive physical test setups are necessary to improve new application possibilities of cryptographic protocol involving components of quantum mechanics and quantum laws of physics. Therefore, optical simulation software can play a part in essential QKD simulating and further developing quantum-based cryptosystems. In the paper, the authors consider a feasible QKD setup based on the BB84 protocol to create a symmetric key material based on achieving a linear key rate via optical simulation software. The paper still provides two experimental architecture designs to use the QKD for a cryptosystem.
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来源期刊
Electrical Control and Communication Engineering
Electrical Control and Communication Engineering ENGINEERING, ELECTRICAL & ELECTRONIC-
自引率
14.30%
发文量
0
审稿时长
12 weeks
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