Solutions for Real Chip Implementation Issues of NoC and Their Application to Memory-Centric NoC

Donghyun Kim, Kwanho Kim, Joo-Young Kim, Seungjin Lee, H. Yoo
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引用次数: 38

Abstract

This paper describes real chip implementation issues of network-on-chip (NoC) and their solutions along with series of chip design examples. The solutions described in this paper cover both architectural aspects and circuit level techniques for practical chip implementation of NoC. As for architecture level solutions, topology selection, chip-aware protocol design, and on-chip serialization (OCS) for link area reduction are explained. For circuit level techniques, SERDES and synchronizer design, crossbar switch partial activation, and low-voltage link are presented as the foundations for power and area efficient NoC implementation. Regarding presented solutions for NoC implementation, this paper proposes memory centric NoC (MC-NoC) for homogeneous multi processor SoC (MPSoC). Flexibility and feasibility of task mapping on homogeneous SoC is the key feature of the MC-NoC. 8 dual port SRAMs connected to crossbar switches in hierarchical star topology network facilitate data communication between processors, regardless of task mapping into the MC-NoC. Experimental result obtained by mapping edge detection tasks on the MC-NoC in various configurations shows almost constant performance. This result proves the effectiveness of the proposed architecture. The MC-NoC based SoC is also implemented on TSMC 0.18 um process technology
NoC实际芯片实现问题的解决方案及其在以内存为中心的NoC中的应用
本文介绍了片上网络(NoC)的实际芯片实现问题及其解决方案,并给出了一系列的芯片设计实例。本文描述的解决方案涵盖了NoC的实际芯片实现的架构方面和电路级技术。至于架构级解决方案,拓扑选择,芯片感知协议设计,以及片上串行化(OCS)的链路面积减少的解释。对于电路级技术,提出了SERDES和同步器设计,交叉开关部分激活和低压链路作为功率和面积效率NoC实现的基础。针对现有的NoC实现方案,本文提出了面向同构多处理器SoC (MPSoC)的以内存为中心的NoC (MC-NoC)。同构SoC上任务映射的灵活性和可行性是MC-NoC的关键特征。8个双端口sram连接到分层星形拓扑网络中的交叉开关,方便处理器之间的数据通信,无论任务映射到MC-NoC。将边缘检测任务映射到不同配置的MC-NoC上的实验结果表明,其性能基本不变。该结果证明了所提体系结构的有效性。基于MC-NoC的SoC也采用台积电0.18 um制程技术实现
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