Rose George Kunthara, N. K., Rekha K. James, Simi Zerine Sleeba
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引用次数: 0
摘要
多核处理器广泛应用于云计算、大数据处理、高性能计算和数据中心应用等领域。片上网络(NoC)是首选的互连解决方案,它可以克服与之相关的可扩展性问题和通信瓶颈。最小的延迟、面积和更好的吞吐量是片上网络设计的关键性能参数。通过使用3D NoC取代2D NoC通信基础设施,可以大大提高性能,其中多个NoC层使用高速通硅孔(TSV)垂直链路集成。3D路由器设计除了集成问题(如可靠性和制造问题)之外,还会产生额外的功率和面积,这些问题与基于TSV的互连相关。在本文中,我们在Mesh和CMesh拓扑中利用不对称路由技术,在3D缓冲片上网络中的边缘路由器之间建立交错连接,以提高NoC性能。仿真结果表明,与使用相同路由器数量的传统缓冲网络相比,我们设计的MML (Modified Multi Layer)网络在吞吐量和延迟降低方面有显著提高。
Interleaved Edge Routing in Buffered 3D Mesh & CMesh NoC
Many-core processors are widely used in areas such as cloud computing, big data processing, high performance computing and data centre applications. Network on Chip (NoC) is the preferred interconnect solution which can overcome scalability issues and communication bottleneck associated with them. Minimal latency, area and better throughput are the key performance parameters of on-chip network design. The performance can be greatly enhanced by replacing 2D NoC communication infrastructure with 3D NoC where multiple NoC layers are integrated using high-speed Through Silicon Via (TSV) based vertical links. 3D router designs incur extra power and area in addition to integration issues such as reliability and fabrication problems, related with TSV based interconnection. In this paper, we utilize an asymmetrical routing technique in Mesh & CMesh topologies where we make interleaved connections between edge routers in 3D buffered on-chip network to improve NoC performance. Simulation results indicate that our design approach, MML (Modified Multi Layer) network, has significant improvement in throughput and latency reduction on comparing with conventional buffered networks which employ same number of routers.