积极流水线高性能微处理器的缓存含义

T. J. Dysart, Branden J. Moore, Lambert Schaelicke, P. Kogge
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引用次数: 5

摘要

开发新微处理器时的主要设计决策之一是确定目标管道深度和时钟速率,因为这两个因素相互作用密切。处理器的最佳管道深度已经被研究过,但是存储系统对管道性能的影响却很少被关注。本研究分析了不同的一级缓存设计对一系列管道深度的影响,以确定存储系统设计在为微处理器选择时钟速率和管道深度时所起的作用。这里研究的管道深度范围从当前处理器中发现的深度到未来处理器中预测的深度。对于每个管道深度,模拟了各种一级缓存大小,以探索时钟速率,管道深度,缓存大小和访问延迟之间的关系。结果表明,由较短的管道和较慢的时钟提供的较大缓存优于具有较小缓存和较高时钟速率的较长的管道。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cache implications of aggressively pipelined high performance microprocessors
One of the major design decisions when developing a new microprocessor is determining the target pipeline depth and clock rate since both factors interact closely with one another. The optimal pipeline depth of a processor has been studied before, but the impact of the memory system on pipeline performance has received less attention. This study analyzes the affect of different level-1 cache designs across a range of pipeline depths to determine what role the memory system design plays in choosing a clock rate and pipeline depth for a microprocessor. The pipeline depths studied here range from those found in current processors to those predicted for future processors. For each pipeline depth a variety of level-1 cache sizes are simulated to explore the relationship between clock rate, pipeline depth, cache size and access latency. Results show that the larger caches afforded by shorter pipelines with slower clocks outperform longer pipelines with smaller caches and higher clock rates.
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