命名状态寄存器文件:实现和性能

P. Nuth, W. Dally
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引用次数: 31

摘要

在传统处理器中,上下文切换速度很慢,因为必须保存和恢复整个处理器状态,即使在下一次上下文切换之前大部分状态未被使用。本文介绍了一种细粒度关联寄存器文件——命名状态寄存器文件。NSF使用硬件和软件技术来有效地管理顺序或并行过程激活之间的寄存器。与传统的寄存器文件相比,NSF每个寄存器保存更多的实时数据,并且在并发上下文之间切换所需的溢出和重新加载流量要少得多。NSF使一些顺序和并行程序的执行速度比其他寄存器文件组织快9%到17%。NSF的访问时间与传统的寄存器文件相当,并且只增加了典型处理器芯片面积的5%。
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The Named-State Register File: implementation and performance
Context switches are slow in conventional processors because the entire processor state must be saved and restored, even if much of the state is not used before the next context switch. This paper introduces the Named-State Register File, a fine-grain associative register file. The NSF uses hardware and software techniques to efficiently manage registers among sequential or parallel procedure activations. The NSF holds more live data per register than conventional register files, and requires much less spill and reload traffic to switch between concurrent contexts. The NSF speeds execution of some sequential and parallel programs by 9% to 17% over alternative register file organizations. The NSF has access time comparable to a conventional register file and only adds 5% to the area of a typical processor chip.<>
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