模块化超级计算设计支持机器学习应用

E. Erlingsson, Gabriele Cavallaro, A. Galonska, M. Riedel, Helmut Neukirchen
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引用次数: 1

摘要

DEEP- est (DEEP - Extreme Scale Technologies)项目设计并创建了一个模块化超级计算机体系结构(MSA),其中每个模块具有不同的特征,作为未来百亿亿级系统的蓝图。这些模块的设计是由来自不同领域的科学应用程序驱动的,这些应用程序利用了当今高性能计算(HPC)系统中各种不同的功能和技术。在此背景下,本文主要关注遥感应用领域的机器学习,但使用了支持向量机(svm)等方法,这些方法也用于生命科学和其他科学领域。遥感面临的挑战之一是根据机载和卫星传感器获得的多光谱或高光谱数据集将土地覆盖划分为不同的类别。因此,本文描述了几个创新的DEEP-EST模块是如何由这个特定的应用程序共同设计的,并随后使用,不仅可以提高应用程序的性能,还可以提高下一代HPC系统的利用率。本文的结果表明,分类技术的不同阶段(即训练,模型生成和存储,测试等)可以很好地分布在不同的集群模块上,从而利用独特的功能,如网络附加内存(NAM)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modular supercomputing design supporting machine learning applications
The DEEP-EST (DEEP — Extreme Scale Technologies) project designs and creates a Modular Supercomputer Architecture (MSA) whereby each module has different characteristics to serve as blueprint for future exascale systems. The design of these modules is driven by scientific applications from different domains that take advantage of a wide variety of different functionalities and technologies in High Performance Computing (HPC) systems today. In this context, this paper focuses on machine learning in the remote sensing application domain but uses methods like Support Vector Machines (SVMs) that are also used in life sciences and other scientific fields. One of the challenges in remote sensing is to classify land cover into distinct classes based on multi-spectral or hyper-spectral datasets obtained from airborne and satellite sensors. The paper therefore describes how several of the innovative DEEP-EST modules are co-designed by this particular application and subsequently used in order to not only improve the performance of the application but also the utilization of the next generation of HPC systems. The paper results show that the different phases of the classification technique (i.e. training, model generation and storing, testing, etc.) can be nicely distributed across the various cluster modules and thus leverage unique functionality such as the Network Attached Memory (NAM).
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