一种抗攻击低开销忆阻物理不可克隆函数的建模

Xiaohan Yang, S. Khandelwal, Aiqi Jiang, A. Jabir
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引用次数: 0

摘要

忆阻器在记忆、逻辑、神经形态系统和数据安全方面的应用越来越广泛。为此,我们利用忆阻器的非线性行为,利用忆阻混沌电路与非线性忆阻编码器结合,设计出低开销的物理不可克隆函数。我们证明了这种架构在基于挑战-响应对的身份验证中的有效性,以及它的物理不可克隆性。这种架构是高度通用的,可以用单个编码器或并行运行的多个编码器来实现,每个编码器都有自己的优点,用于扩展crp的大小。为了证明其有效性,我们将该架构置于基于机器学习的建模攻击中,例如逻辑回归、支持向量机、随机森林以及人工神经网络分类器。我们发现,所建议的PUF体系结构能够更好地抵抗此类攻击,即使对于较小的位大小和较低的开销也是如此。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Modelling Attack Resistant Low Overhead Memristive Physical Unclonable Function
Memristors are finding applications in memory, logic, neuromorphic systems, and data security. To this end, we leverage the non-linear behaviour of memristors to devise a low overhead physical unclonable function using a memristive chaos circuit in conjunction with a non-linear memristive encoder. We demonstrate the effectiveness of this architecture in Challenge-Response-Pair based authentication, and for its physical uncloneability. This architecture is highly versatile and can be implemented with a single encoder or a number of encoders running in parallel, each one with its own merit, for extending the sizes of CRPs. To demonstrate its effectiveness, we subject the architecture to machine learning based modelling attacks e.g. Logistic Regression, Support Vector Machines, Random Forest, as well as Artificial Neural Network classifiers. We found out that the proposed PUF architecture provides better resistance to such attacks, even for smaller bit sizes and at reduced overheads.
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