自动化结构化矩阵-矩阵乘法流处理

Thaddeus Koehn, P. Athanas
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引用次数: 2

摘要

已知至少有一个元素总是为零的结构化矩阵通常出现在各种应用中,包括马尔可夫过程、MIMO通信和特征值分解。由于已知零的矩阵需要较少的计算,因此生成利用这一点的硬件可以提高吞吐量。本文中的方法可以生成从非常稀疏到完全满矩阵的任何硬件。当生成密集(所有元素非零)矩阵乘法硬件时,吞吐量可与商用生成器相媲美。随着稀疏性的增加,吞吐量也相应提高。与其他稀疏矩阵处理技术相比,该方法具有更短的处理延迟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Automating structured matrix-matrix multiplication for stream processing
Structured matrices in which at least one element is known to always be zero commonly appear in a variety of applications, including Markov processes, MIMO communications, and eigenvalue decomposition. Since matrices with known zeros require fewer computations, generating hardware to take advantage of this allows increased throughput. The approach in this paper can generate hardware for anything ranging from very sparse to completely full matrices. When dense (all elements non-zero) matrix multiplication hardware is generated, throughput is comparable to commercially available generators. As sparsity increases, throughput improves proportionally. This method also achieves a shorter processing delay compared with other techniques for sparse matrices.
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