Slices: Provisioning Heterogeneous HPC Systems

A. Merritt, N. Farooqui, M. Slawinska, Ada Gavrilovska, K. Schwan, Vishakha Gupta
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引用次数: 1

Abstract

High-end computing systems are becoming increasingly heterogeneous, with nodes comprised of multiple CPUs and accelerators, like GPGPUs, and with potential additional heterogeneity in memory configurations and network connectivities. Further, as we move to exascale systems, the view of their future use is one in which simulations co-run with online analytics or visualization methods, or where a high fidelity simulation may co-run with lower order methods and/or with programs performing uncertainty quantification. To explore and understand the challenges when multiple applications are mapped to heterogeneous machine resources, our research has developed methods that make it easy to construct 'virtual hardware platforms' comprised of sets of CPUs and GPGPUs custom-configured for applications when and as required. Specifically, the 'slicing' runtime presented in this paper manages for each application a set of resources, and at any one time, multiple such slices operate on shared underlying hardware. This paper describes the slicing abstraction and its ability to configure cluster hardware resources. It experiments with application scale-out, focusing on their computationally intensive GPGPU-based computations, and it evaluates cluster-level resource sharing across multiple slices on the Keeneland machine, an XSEDE resource.
切片:提供异构HPC系统
高端计算系统正变得越来越异构,节点由多个cpu和加速器(如gpgpu)组成,并且在内存配置和网络连接方面可能存在额外的异构性。此外,随着我们转向百亿亿级系统,它们未来的用途是模拟与在线分析或可视化方法共同运行,或者高保真度模拟可能与低阶方法和/或执行不确定性量化的程序共同运行。为了探索和理解当多个应用程序映射到异构机器资源时所面临的挑战,我们的研究开发了一种方法,可以轻松构建由cpu和gpgpu组成的“虚拟硬件平台”,这些cpu和gpgpu是根据需要为应用程序定制的。具体来说,本文提出的“切片”运行时为每个应用程序管理一组资源,并且在任何时候,多个这样的切片在共享的底层硬件上操作。本文描述了切片抽象及其配置集群硬件资源的能力。它对应用程序的横向扩展进行了实验,重点关注基于gpgpu的计算密集型计算,并评估Keeneland机器(一种XSEDE资源)上的多个片之间的集群级资源共享。
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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