Cache analysis for risc in call processing applications

V. Phung, H. Johnson
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引用次数: 1

Abstract

To ensure that ample call processing and other telecommunication processing capacity is available for future demand, the DMS computing core has been undergoing a continuous evolution. Since the introduction of the DMS-100 line of digital switching products, the demand for call processing capacity has steadily increased, justifying our selection of a highly evolvable technology base. Three factors account for this change: increasing requirements to support larger numbers of subscriber lines, in creasing feature penetrations, and increasing real-time requirements for complex features. A recent step in this evolution is the introduction of the DMS-SuperNode using high performance MC68OXX microprocessors. We are now incorporating the benefits of Reduced Instruction Set Computing or RISC technology which has the potential to satisfy future demand for call processing and telecommunication process capacity into the DMS computing core. Because of its highly regular architecture, a RISC processor can pipeline instructions very effectively and hence can operate at very high instruction issuing rates. RISC processors use cache, a high speed buffer inserted between the processor and the main memory, to increase the effective memory access speed. To effectively deploy RISC technology in telecommunications, a deep understanding of cache performance is needed. In developing RISC strategy, BKR scientists carried out an extensive cache analysis. This paper describes the analysis and its results.
呼叫处理应用程序中risc的缓存分析
为了确保有足够的呼叫处理和其他电信处理能力满足未来的需求,DMS计算核心一直在不断发展。自从DMS-100系列数字交换产品推出以来,对呼叫处理能力的需求稳步增长,这证明了我们选择高度可发展的技术基础是合理的。造成这种变化的原因有三个:不断增加的需求以支持更多的用户线路,不断增加的功能渗透,以及不断增加的对复杂功能的实时需求。这一发展的最新进展是采用高性能MC68OXX微处理器的DMS-SuperNode的推出。我们现在正在将精简指令集计算或RISC技术的优势整合到DMS计算核心中,该技术有可能满足未来对呼叫处理和电信处理能力的需求。由于其高度规则的架构,RISC处理器可以非常有效地流水线指令,因此可以以非常高的指令发布率运行。RISC处理器使用高速缓存,即插入在处理器和主存储器之间的高速缓冲区,以提高存储器的有效访问速度。为了有效地在电信中部署RISC技术,需要对缓存性能有深入的了解。在制定RISC策略时,BKR科学家进行了广泛的缓存分析。本文介绍了分析结果。
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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