ASIP中快速卷积的有效实现

A. Venkatesan, S. Venkat Kumar
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引用次数: 2

摘要

本文讨论了实现硬件高效快速卷积的各种方法。在FPGA上实现的长长度卷积不具有面积和功耗效率,也不能在单个FPGA上实现。为了提高长卷积的速度和满足单个FPGA芯片的计算能力,可以将长系数序列划分为短子序列。然后,通过将每个短长度卷积作为卷积ASIP实现,可以以降低速度为代价使其具有面积效率。异步ASIP仍然比同步ASIP快。异步卷积处理器的速度可以通过应用算法强度降低(ASR)进一步提高,其中以增加卷积过程中所需的加法数量为代价,减轻了乘法的数量(比加法更耗时)。讨论了几种基于ASR的快速卷积ASIP算法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Efficient implementation of fast convolution in ASIP
In this paper various approaches of implementing a hardware efficient fast convolution have been discussed. Long length convolutions implemented on a FPGA are not area, power efficient and also it cannot be implemented on a single FPGA. To increase the speed of long convolutions and to meet the calculation capacity of each single FPGA chip, the long coefficient sequence can be partitioned into short sub-sequences. Each short length convolution can then be made area efficient at the expense of decrease in speed by implementing them as a convolution ASIP. The asynchronous ASIP is still faster than a synchronous ASIP. The speed of an asynchronous convolution processor can be further increased by applying Algorithmic Strength Reduction (ASR) where the number of multiplications, (which is more time consuming than an addition) is alleviated at the expense of increase in the number of additions required in a convolution process. Several algorithms based on ASR which would lead to a faster convolution ASIP have been discussed.
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