Plenary Address 2: Computing in the '90s, Microsoft, and Supercomputers

George Spix
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Abstract

After 50 years of building high performance scientific computers, two major architectures exist: (1) clusters of “Cray-style” vector supercomputers; (2) clusters of scalar uniand multi-processors. Clusters are in transition from (a) massively parallel computers and clusters running proprietary software to (b) proprietary clusters running standard software, and (c) do-it-yourself Beowulf clusters built from commodity hardware and software. In 2001, only five years after its introduction, Beowulf has mobilized a community around a standard architecture and tools. Beowulf’s economics and sociology are poised to kill off the other architectural lines – and will likely affect traditional super-computer centers as well. Peer-to-peer and Grid communities are beginning to provide significant advantages for embarrassingly parallel problems and sharing vast numbers of files. The Computational Grid can federate systems into supercomputers far beyond the power of any current computing center. The centers will become super-data and super-application centers. While these trends make highperformance computing much less expensive and much more accessible, there is a dark side. Clusters perform poorly on applications that require large shared memory. Although there is vibrant computer architecture activity on microprocessors and on high-end cellular architectures, we appear to be entering an era of super-computing mono-culture. Investing in next generation software and hardware supercomputer architecture is essential to improve the efficiency and efficacy of systems.
全体会议演讲2:90年代的计算机、微软和超级计算机
经过50年的高性能科学计算机构建,存在两种主要架构:(1)“克雷式”矢量超级计算机集群;(2)标量单处理器和多处理器集群。集群正在从(a)运行专有软件的大规模并行计算机和集群过渡到(b)运行标准软件的专有集群,以及(c)由商用硬件和软件构建的自助式Beowulf集群。2001年,在推出仅仅5年后,Beowulf就动员了一个围绕标准体系结构和工具的社区。贝奥武夫的经济学和社会学正准备消灭其他的架构线——也可能影响到传统的超级计算机中心。点对点和网格社区开始为令人尴尬的并行问题和共享大量文件提供显著的优势。计算网格可以将系统联合成超级计算机,远远超过当前任何计算中心的能力。这些中心将成为超级数据中心和超级应用中心。虽然这些趋势使高性能计算变得更便宜,更容易获得,但也有不好的一面。集群在需要大量共享内存的应用程序上表现不佳。尽管在微处理器和高端蜂窝架构上有活跃的计算机架构活动,但我们似乎正在进入一个超级计算单一文化的时代。投资下一代软件和硬件超级计算机架构对于提高系统的效率和功效至关重要。
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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