一种变形的片上网络,用于各种类型的并行应用

S. Tade, Hiroki Matsutani, H. Amano, M. Koibuchi
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引用次数: 0

摘要

为了在每个应用的基础上定制性能或能耗,提出了一种变形片上网络(NoC)架构。到目前为止,已经研究了在传统拓扑上添加可重构性,特别是对于可以静态分析的应用程序工作负载。在这种情况下,我们建议使用这样一个平台来处理静态和动态情况,即在给定性能或能量限制的情况下无法静态分析应用程序工作负载。我们的变形NoC基于以下三种模式重新配置其拓扑结构、路由、工作频率和电源电压。1)正则模式使用传统的网格拓扑进行相邻通信。由于链路长度短而均匀,可以在更高的频率和更高的电压下工作,而远程通信则增加了路径长度。2)随机模式对未知负载采用随机拓扑,利用小世界效应减少路径长度。由于路径长度减少,但导线延迟增加,因此用于较低的工作频率和较低的电压。3)自定义模式使用给定工作负载的优化拓扑。为了支持随机和自定义模式,组装的多路复用器被嵌入到变形NoC中。随机模式和规则/自定义模式分别是根据性能或能量限制随机或有选择地重新配置这些多路复用器而产生的。本文探讨了组合多路复用器的设计空间,并通过图形分析给出了合理的设计建议。从面积开销、工作频率、网络性能和能耗等方面进行了实验验证。结果表明,常规模式可以工作在1.27GHz,随机模式与具有网状拓扑结构的传统NoC相比,平均网络延迟降低19.6%,能耗降低44.2%。自定义模式可以减少它们以及随机模式。
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A metamorphotic Network-on-Chip for various types of parallel applications
A metamorphotic Network-on-Chip (NoC) architecture is proposed in order to customize for performance or energy consumption on a per-application basis. Adding reconfigurability on conventional topologies has been studied so far especially for application workloads that can be statically analyzed. In this context, we propose such a platform to take care of both the static and the dynamic cases where application workloads cannot be statically analyzed while performance or energy constraints are given. Our metamorphotic NoC reconfigures its topology, routing, operating frequency, and supply voltage based on the following three modes. 1) Regular mode uses a traditional mesh topology for neighboring communications. As the link length is short and uniform, it can be operated at a higher frequency and higher voltage, while a long-range communication increases the path length. 2) Random mode uses a random topology for unknown workloads to reduce the path length by exploiting the small-world effect. As the path length is reduced but the wire delay is increased, it is intended for a lower operating frequency and lower voltage. 3) Custom mode uses an optimized topology for given workloads. To support Random and Custom modes, assembled multiplexers are embedded into the metamorphotic NoC. Random and Regular/Custom modes are generated by randomly or selectively reconfiguring these multiplexers, respectively, based on the performance or energy constraints. This paper explores the design space of assembled multiplexers and provides a reasonable design recommendation through a graph analysis. It is demonstrated based on experimental results on the area overhead, operating frequency, network performance, and energy consumption. The results show that Regular mode can operate at 1.27GHz and Random mode can reduce the average network latency by 19.6% and the energy consumption by 44.2% compared with a traditional NoC that has mesh topology with little overhead. Custom mode can reduce them as well as Random mode.
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