量子模拟:基于量子密钥分发的智能电网通信的开源联合仿真平台

William Lardier, Quentin Varo, Jun Yan
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引用次数: 6

摘要

采用最新信息和通信技术的电网现代化工作将在未来几年显著有利于智能电网。消费者和控制中心之间更多的光纤通信将保证更好的需求响应和客户参与,但越来越多的攻击面和中间人(MITM)威胁可能导致安全和隐私挑战。在智能电网安全通信的研究中,量子密钥分发协议(QKD)已成为一种有前途的选择。然而,为了将量子通信的理论优势与实际应用相结合,必须对现实的网络物理智能电网结构和场景进行全面的研究。为了促进这一方向的研究,本文提出了一个开源的研究型联合仿真平台,该平台在MOSAIK框架下协调网络和电力模拟器。所提出的平台允许对量子通信和电网进行灵活和现实的基于功率流的联合模拟,可以研究不同的网络和电源拓扑、QKD协议和攻击威胁。利用MITM攻击下的基于量子的通信,本文给出了详细的案例研究,以演示该平台如何快速建立低压配电网,实现不同的协议和密码系统,以及评估针对MITM攻击的通信效率和安全性。该平台已在网上提供,以授权研究人员对基于量子的网络物理系统进行建模,对智能电网中的量子通信进行试点研究,以及提高对恶意入侵者的攻击弹性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Quantum-Sim: An Open-Source Co-Simulation Platform for Quantum Key Distribution-Based Smart Grid Communications
Grid modernization efforts with the latest information and communication technologies will significantly benefit smart grids in the coming years. More optical fibre communications between consumers and the control center will promise better demand response and customer engagement, yet the increasing attack surface and man-in-the-middle (MITM) threats can result in security and privacy challenges. Among the studies for more secure smart grid communications, quantum key distribution protocols (QKD) have emerged as a promising option. To bridge the theoretical advantages of quantum communication to its practical utilization, however, comprehensive investigations have to be conducted with realistic cyber-physical smart grid structures and scenarios. To facilitate research in this direction, this paper proposes an open-source, research-oriented co-simulation platform that orchestrates cyber and power simulators under the MOSAIK framework. The proposed platform allows flexible and realistic power flow-based co-simulation of quantum communications and electrical grids, where different cyber and power topologies, QKD protocols, and attack threats can be investigated. Using quantum-based communication under MITM attacks, the paper presented detailed case studies to demonstrate how the platform enables quick setup of a lowvoltage distribution grid, implementation of different protocols and cryptosystems, as well as evaluations of both communication efficiency and security against MITM attacks. The platform has been made available online to empower researchers in the modelling of quantum-based cyber-physical systems, pilot studies on quantum communications in smart grid, as well as improved attack resilience against malicious intruders.
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