一种自适应重叠流水线多任务超标量处理器

Mong Tee Sim, Qing Yi
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引用次数: 0

摘要

从微型物联网设备到通用多核片上系统,低功耗、高性能和小芯片尺寸是现代CPU设计的三个基本考虑因素。考虑到这些因素,我们引入了一种新的CPU设计,它具有自适应重叠多任务管道,以更好地平衡传统标量和超标量CPU的设计权衡。通过提供动态可重构性,我们使用户应用程序能够在运行时决定是以高性能模式运行CPU还是以低功耗模式运行CPU,以满足各自的应用程序截止日期或功耗预算。低功耗模式还提供冗余,允许CPU继续运行,即使它的一些管道阶段损坏。我们使用RISC-V ISA测试套件,Dhrystone, Coremark和其他十个基准测试来验证我们的CPU设计的功能和性能。我们的CPU可以持续提供高达每周期2.0条指令,并在Dhrystone和Coremark基准测试中获得3.924 DMIPS/MHz和6.556 Coremark/MHz。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Adaptive Overlap-Pipelined Multitasking Superscalar Processor
Low power consumption, high performance, and small die size are the three essential considerations in modern CPU design, from tiny IoT devices to General Purpose Manycore System-on-Chip. With these considerations, we introduce a new CPU design that features Adaptive Overlapping Multitasking pipelines, to better balance the design tradeoffs of the traditional scalar and superscalar CPUs. By providing dynamic reconfigurability, we enable user applications to decide at run-time whether to run the CPU in a high-performance or a low-power mode, to meet their respective application deadlines or power budgets. The low-power mode also provides redundancies that allow the CPU to continue operating, even when some of its pipeline stages are damaged. We used the RISC-V ISA test suite, Dhrystone, Coremark, and ten other benchmarks to validate our CPU design's functionality and performance. Our CPU can consistently deliver up to 2.0 Instruction Per Cycle and score a 3.924 DMIPS/MHz and 6.556 Coremark/MHz with Dhrystone and Coremark benchmarks.
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