Special Session: The Recent Advance in Hardware Implementation of Post-Quantum Cryptography

Jiafeng Xie, K. Basu, K. Gaj, Ujjwal Guin
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引用次数: 24

Abstract

The recent advancement in quantum technology has initiated a new round of cryptosystem innovation, i.e., the emergence of Post-Quantum Cryptography (PQC). This new class of cryptographic schemes is intended to be mathematically resistant against any known attacks using quantum computers, but, at the same time, be fully implementable using traditional semiconductor technology. The National Institutes of Standards and Technology (NIST) has already started the PQC standardization process, and the initial pool of 69 submissions has been reduced to 26 Round 2 candidates. Echoing the pace of the PQC "revolution," this paper gives a detailed and thorough introduction to recent advances in the hardware implementation of PQC schemes, including challenges, new implementation methods, and novel hardware architectures. Specifically, we have: (i) described the challenges and rewards of implementing PQC in hardware; (ii) presented the novel methodology for the design-space exploration of PQC implementations using high-level synthesis (HLS); (iii) introduced a new underexplored PQC scheme (binary Ring-Learning-with-Errors), as well as its novel hardware implementation for possible lightweight applications. The overall content delivered by this paper could serve multiple purposes: (i) provide useful references for the potential learners and the interested public; (ii) introduce new areas and directions for potential research to the VTS community; (iii) facilitate the PQC standardization process and the exploration of related new ways of implementing cryptography in existing and emerging applications.
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专题会议:后量子密码学硬件实现的最新进展
近年来,量子技术的进步引发了新一轮的密码系统创新,即后量子密码学(PQC)的出现。这种新型加密方案旨在在数学上抵抗使用量子计算机的任何已知攻击,但与此同时,可以使用传统的半导体技术完全实现。美国国家标准与技术研究院(NIST)已经开始了PQC标准化过程,最初的69份提交已经减少到26个第二轮候选人。为了响应PQC“革命”的步伐,本文详细而全面地介绍了PQC方案的硬件实现的最新进展,包括挑战、新的实现方法和新的硬件架构。具体来说,我们已经:(i)描述了在硬件中实现PQC的挑战和回报;(ii)提出了利用高级综合(HLS)探索PQC实现的设计空间的新方法;(iii)引入了一种新的未被充分开发的PQC方案(带误差的二进制环学习),以及它为可能的轻量级应用程序提供的新颖硬件实现。本文提供的整体内容可以达到多种目的:(i)为潜在的学习者和感兴趣的公众提供有用的参考;(ii)向VTS业界介绍可能进行研究的新领域和方向;(iii)促进PQC标准化进程,并探索在现有和新兴应用中实现加密的相关新方法。
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