H. Irie, Daisuke Fujiwara, Kazuki Majima, T. Yoshinaga
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引用次数: 3
摘要
随着处理器芯片中内核数量的增加以及网络规模的增大,每个内核的性能对于整个芯片性能的提升更加关键。然而,要提高芯片的整体性能,必须提高每功率或单位面积的性能,这使得采用常规的超标量扩展方法变得困难。在本文中,我们探索了一种适用于多种核心处理器的新核心结构。我们回顾了先前对新的指令级(ILP)和线程级并行(TLP)架构的研究,并提出了我们新的STRAIGHT处理器架构。通过将分布式键值存储方案引入到集群微架构的寄存器文件中,直接执行大量逻辑寄存器的操作,这些寄存器只需要写入一次。通过对处理器结构、微体系结构和代码模型的讨论,证明了STRAIGHT在降低硬件和能源成本的同时,实现了大指令窗口和轻量级快速执行。初步的估计结果是有希望的,并且表明STRAIGHT将单线程性能提高了约30%,这是SPEC CPU 2006基准测试套件的几何平均值,而不会显着增加功耗和面积预算。
STRAIGHT: Realizing a Lightweight Large Instruction Window by Using Eventually Consistent Distributed Registers
As the number of cores as well as the network size in a processor chip increases, the performance of each core is more critical for the improvement of the total chip performance. However, to improve the total chip performance, the performance per power or per unit area must be improved, making it difficult to adopt a conventional approach of super scalar extension. In this paper, we explore a new core structure that is suitable for many core processors. We revisit prior studies of new instruction level (ILP) and thread-level parallelism (TLP) architectures and propose our novel STRAIGHT processor architecture. By introducing the scheme of distributed key-value-store to the register file of clustered micro architectures, STRAIGHT directly executes the operation with large logical registers, which are written only once. By discussing the processor structure, micro architecture, and code model, we show that STRAIGHT realizes both large instruction window and lightweight rapid execution, while suppressing the hardware and energy cost. Preliminary estimation results are promising, and show that STRAIGHT improves the single thread performance by about 30%, which is the geometric mean of the SPEC CPU 2006 benchmark suite, without significantly increasing the power and area budget.