在FPGA上最大化阈值保护AES-GCM实现的吞吐量

Jo Vliegen, Oscar Reparaz, N. Mentens
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引用次数: 14

摘要

在本文中,我们在FPGA上最大限度地提高了侧信道保护AES-GCM实现的吞吐量。我们提出了一个完全展开的流水线架构,它使用布尔屏蔽对策(特别是阈值实现)来抵抗一阶DPA。使用高端的Virtex-7设备,我们获得了15.24 Gbit/s的吞吐量。由于掩码实现每次执行都需要一个随机比特流,因此高吞吐量的掩码实现还需要一个高吞吐量的伪随机数生成器。这项工作决定了为了在fpga上实现超高吞吐量、阈值保护的AES-GCM实现,应该以多快的速度生成随机数。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Maximizing the throughput of threshold-protected AES-GCM implementations on FPGA
In this paper, we push the limits in maximizing the throughput of side-channel-protected AES-GCM implementations on an FPGA. We present a fully unrolled and pipelined architecture that uses a Boolean masking countermeasure (specifically, threshold implementation) for first-order DPA resistance. Using a high-end Virtex-7 device, we obtain a throughput of 15.24 Gbit/s. Since masked implementations require a stream of random bits for each execution, a high-throughput masked implementation requires a high-throughput pseudorandom number generator as well. This work determines how fast random numbers should be generated in order for ultra-high throughput, threshold-protected AES-GCM implementations to be feasible on FPGAs.
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