Enhancing Security in the Industrial IoT Sector using Quantum Computing

Syed Farhan Ahmad, Mohamed Yassine Ferjani, Keshav Kasliwal
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引用次数: 1

Abstract

The development of edge computing and machine learning technologies have led to the growth of Industrial IoT systems. Autonomous decision making and smart manufacturing are flourishing in the current age of Industry 4.0. By providing more compute power to edge devices and connecting them to the internet, the so-called Cyber Physical Systems are prone to security threats like never before. Security in the current industry is based on cryptographic techniques that use pseudorandom number keys. Keys generated by a pseudo-random number generator pose a security threat as they can be predicted by a malicious third party. In this work, we propose a secure Industrial IoT Architecture that makes use of true random numbers generated by a quantum random number generator (QRNG). CITRIOT's FireConnect IoT node is used to show the proof of concept in a quantum-safe network where the random keys are generated by a cloud based quantum device. We provide an implementation of QRNG on both real quantum computer and quantum simulator. Then, we compare the results with pseudorandom numbers generated by a classical computer.
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利用量子计算增强工业物联网领域的安全性
边缘计算和机器学习技术的发展促进了工业物联网系统的发展。自主决策和智能制造在当前工业4.0时代蓬勃发展。通过为边缘设备提供更多的计算能力并将其连接到互联网,所谓的网络物理系统很容易受到前所未有的安全威胁。当前行业的安全性是基于使用伪随机数密钥的加密技术。伪随机数生成器生成的密钥构成安全威胁,因为它们可以被恶意第三方预测。在这项工作中,我们提出了一种安全的工业物联网架构,该架构利用量子随机数生成器(QRNG)生成的真随机数。CITRIOT的FireConnect物联网节点用于展示量子安全网络中的概念验证,其中随机密钥由基于云的量子设备生成。我们在真实的量子计算机和量子模拟器上提供了一个QRNG的实现。然后,我们将结果与经典计算机生成的伪随机数进行了比较。
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