Performance analysis of GPU-accelerated fast decoupled power flow using direct linear solver

Shengjun Huang, V. Dinavahi
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引用次数: 6

Abstract

Achieving high solution efficiency for alternating current power flow (ACPF) analysis from high-performance computing (HPC) architecture is a leading and important challenge in power system analytics and computation. This paper investigates the performance of the fast decoupled (FD) method, which is based on the direct linear solver and implemented on the graphics processing unit (GPU), for the solution of ACPF. Implementation platforms, linear equations solution strategies, data storage formats, and fill-in reduction algorithms are compared and discussed on five benchmark systems ranging from 300 to 13,659 buses. Within the GPU's compute unified device architecture (CUDA) environment, the shortest ACPF solution time for the largest test case is 0.313s, which is 4.16 x faster than its Matlab counterpart.
gpu加速快速解耦潮流的直接线性解算性能分析
从高性能计算(HPC)架构中实现交流潮流(ACPF)分析的高求解效率是电力系统分析和计算领域的一个重要挑战。本文研究了在图形处理单元(GPU)上实现的基于直接线性求解器的快速解耦(FD)方法求解ACPF问题的性能。在从300到13659总线的5个基准系统上,对实现平台、线性方程求解策略、数据存储格式和填充约简算法进行了比较和讨论。在GPU的计算统一设备架构(CUDA)环境中,最大测试用例的最短ACPF解决时间为0.313s,比Matlab解决方案快4.16倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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