下一代高性能计算机器的设计空间探索

Constantino Gómez, Francesc Martínez, Adrià Armejach, Miquel Moretó, F. Mantovani, Marc Casas
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引用次数: 5

摘要

高性能计算(HPC)系统架构随着新技术和复杂性的增加而不断扩展。为了提高下一代大型高性能计算系统的效率,设计人员需要工具来分析和预测新架构特性对大规模复杂科学应用程序性能的影响。我们模拟了五种混合(MPI+OpenMP)应用程序,基于最先进的和新兴的高性能计算技术,在工业和研究中都有相关的864种架构方案。本文通过多尺度仿真方法(MUSA)极大地扩展了我们以前的工作,使大规模高性能计算系统的性能和功率能够准确估计。我们揭示了几个应用程序存在关键的可伸缩性问题,主要是由于软件并行化方法。着眼于加速和能耗探索设计空间(即,改变内存带宽、内核数量和内核类型),我们提供了基于证据的架构建议,这些建议将作为硬件和软件协同设计指南。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design Space Exploration of Next-Generation HPC Machines
The landscape of High Performance Computing (HPC) system architectures keeps expanding with new technologies and increased complexity. With the goal of improving the efficiency of next-generation large HPC systems, designers require tools for analyzing and predicting the impact of new architectural features on the performance of complex scientific applications at scale. We simulate five hybrid (MPI+OpenMP) applications over 864 architectural proposals based on state-of-the-art and emerging HPC technologies, relevant both in industry and research. This paper significantly extends our previous work with MUltiscale Simulation Approach (MUSA) enabling accurate performance and power estimations of large-scale HPC systems. We reveal that several applications present critical scalability issues mostly due to the software parallelization approach. Looking at speedup and energy consumption exploring the design space (i.e., changing memory bandwidth, number of cores, and type of cores), we provide evidence-based architectural recommendations that will serve as hardware and software co-design guidelines.
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