用于GF(p) Montgomery模逆计算的可扩展VLSI架构

A. Gutub, A. Tenca, Ç. Koç
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引用次数: 36

摘要

在一些公钥加密应用中需要模逆计算。在这项工作中,我们提出了两种用于计算Montgomery模逆运算的VLSI硬件实现。实现基于相同的反转算法,然而,一个是固定的(完全并行),另一个是可扩展的。可扩展设计是对固定硬件进行的新颖修改,使其占用更小的面积,并以更好或相似的速度运行。两种硬件设计基于它们的速度和面积进行了比较。可扩展设计的面积平均比固定设计小42%。然而,设计的延迟取决于实际数据大小和硬件可以处理的最大数量。当实际数据量接近硬件限制时,可扩展的硬件加速比固定的硬件加速减少,但其延迟仍然是实用的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Scalable VLSI architecture for GF(p) Montgomery modular inverse computation
Modular inverse computation is needed in several public key cryptographic applications. In this work, we present two VLSI hardware implementations used in the calculation of Montgomery modular inverse operation. The implementations are based on the same inversion algorithm, however, one is fixed (fully parallel) and the other is scalable. The scalable design is the novel modification performed on the fixed hardware to make it occupy a small area and operate within better or similar speed. Both hardware designs are compared based on their speed and area. The area of the scalable design is on average 42% smaller than the fixed one. The delay of the designs, however, depends on the actual data size and the maximum numbers the hardware can handle. As the actual data size approaches the hardware limit the scalable hardware speedup reduces in comparison to the fixed one, but still its delay is practical.
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