ASTRA SIMD机器上的并行算法

G. Ódor, F. Rohrbach, György Vesztergombi, G. Varga, F. Tatrai
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引用次数: 0

摘要

鉴于现代RISC处理器的巨大计算能力的飞跃,对并行计算的兴趣似乎正在减少。如果单个强大的微芯片就能解决问题,为什么还要使用复杂的并行处理器系统呢?这是一个普遍的规律,然而,指数增长总是以某种饱和而结束,然后并行将再次成为一个热门话题。我们尽力为这种可能发生的事情做好准备。MPPC项目始于1990年并行的鼎盛时期,并生产了四台ASTRA机器(在CHEP'92上展示),带有4k处理器(可扩展到16k),基于“昨天的芯片技术”(芯片在CHEP'91上展示)。这些机器现在在一个完整的、真实的环境中为算法开发提供了极好的测试平台。例如,我们正在开发快速模式识别算法,该算法可用于大型强子对撞机(计划2004年后在欧洲核子研究中心投入使用)的高能物理实验,用于触发和数据缩减。我们的ASP(关联字符串处理器)方法的基本特征是使用极其简单(因此非常便宜)的处理器元素,但数量巨大(多达数百万个处理器)通过非常简单的字符串式通信链连接在一起。在本文中,我们提出了基于该架构的强大算法,表明硬件(即芯片制造)质量达到“当前甚至未来的技术水平”时的性能前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Parallel Algorithms on the ASTRA SIMD Machine
In view of the tremendous computing power jump of modern RISC processors the interest in parallel computing seems to be thinning out. Why use a complicated system of parallel processors, if the problem can be solved by a single powerful micro-chip? It is a general law, however, that exponential growth will always end by some kind of a saturation, and then parallelism will again become a hot topic. We try to prepare ourselves for this eventuality. The MPPC project started in 1990 in the heydeys of parallelism and produced four ASTRA machines (presented at CHEP'92) with 4k processors (which are expandable to 16k) based on `yesterday's chip-technology' (chip presented at CHEP'91). These machines now provide excellent test-beds for algorithmic developments in a complete, real environment. We are developing for example fast-pattern recognition algorithms which could be used in high-energy physics experiments at the LHC (planned to be operational after 2004 at CERN) for triggering and data reduction. The basic feature of our ASP (Associative String Processor) approach is to use extremely simple (thus very cheap) processor elements but in huge quantities (up to millions of processors) connected together by a very simple string-like communication chain. In this paper we present powerful algorithms based on this architecture indicating the performance perspectives if the hardware (i.e. chip fabrication) quality reaches `present or even future technology levels'.
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