用于电力系统仿真的浮动矢量处理器

M. Takatoo, S. Abe, T. Bando, K. Hirasawa, M. Goto, T. Kato, T. Kanke
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引用次数: 13

摘要

本文分析了稀疏矩阵解的微程序功能,以获得更快的电力系统仿真,如潮流计算和暂态稳定分析。介绍了实现仿真提速的浮动矢量处理器(FVP)的硬件结构和扩展指令。稀疏矩阵计算和功率流计算的实验结果表明:(1)FVP完成稀疏矩阵计算的速度比传统阵列处理器快1.6倍左右;(2)在FVP执行的程序采用与FVP体系结构相适应的微编程方式,V90/50执行的程序采用Fortran语言进行简单优化的条件下,FVP的处理速度比通用超小型计算机日立V90/50控制计算机快10 ~ 15倍;(3) V90/50结合FVP计算总潮流的速度比V90/50单独计算快2.6倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Floating Vector Processor for Power System Simulation
This paper analyzes microprogram functions of the sparse matrix solution to obtain faster power system simulations such as the power flow calculation and transient stability analysis. The hardware structure and extended instructions of a floating vector processor (FVP) which realize simulation speed up are presented. Experimental results of a sparse matrix calculation and a power flow calculation lead to the following results: (1) the sparse matrix calculation, by the FVP is completed about 1.6 times faster than by a conventional array processor; (2) the processing speed of the FVP is ten to fifteen times faster than that of the general purpose supermini- computer Hitachi V90/50 Control Computer on the conditions that the programming style of the programs executed by the FVP is microprogramming fit to the FVP architecture, and the programs executed by the V90/50 are programmed in Fortran with simple optimization; and (3) the speed of the total power flow calculation by the V90/50 with FVP is 2.6 times faster than that by the V90/50 alone.
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