加密实现的硬件优化(特邀论文)

M. Basiri, Sandeep K. Shukla
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引用次数: 4

摘要

延迟、面积和功耗是VLSI设计人员希望优化的三个重要指标。然而,通常其中一个可能必须以另一个或其他两个为代价来优化。根据应用程序场景,选择要优化的度量。在本文中,我们考虑了一些加密原语的硬件实现,并提出了一些优化。我们考虑密码工程的三个领域。他们正在构建物理不可克隆功能(puf),实现加密/解密算法,以及侧信道证明加密实现。我们采用的技术范围从区域优化到定制的多路复用器设计,将多个操作融合到单个硬件元素中,折叠和展开迭代算法,创建可重构的实现以实现使用同一组硬件元素的多个操作,到混淆技术以挫败基于故障注入的加密实现攻击。所有提出和现有的设计都是用45纳米CMOS库实现的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hardware optimizations for crypto implementations (Invited paper)
Latency, Area, and Power are three important metrics that a VLSI designer wants to optimize. However, often one of these may have to be optimized at the cost of another or the other two. Depending on the application scenario, choice of the metric to optimize is made. In this paper, we consider hardware implementations of a number of cryptographic primitives and present a number of optimizations. We consider three areas of cryptoengineering. They are building physical unclonable functions (PUFs), implementing encryption/decryption algorithms, and side channel proof crypto implementations. The techniques we employ range from area optimization through customized multiplexer design, fusing multiple operations into a single hardware element, folding and unrolling of iterative algorithms, creating reconfigurable implementations to achieve multiple operations with the same set of hardware elements, to techniques of obfuscation to defeat fault injection based attacks on the crypto implementation. All the proposed and existing designs are implemented with 45 nm CMOS library.
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