DSNOC:一种用于高效可扩展计算的混合密集-稀疏片上网络架构

T. Xu, V. Leppänen, M. Forsell
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引用次数: 4

摘要

在本文中,我们提出了一种新型的混合密集-稀疏片上网络(DSNOC)设计,它同时利用了密集和稀疏网络的优势。为了解决数百核甚至数千核多核处理器的通信瓶颈,提高系统的可扩展性,引入了NoC范式。密集网状网络由于其设计和实现的简单性,在网络通信中得到了广泛的应用。然而,密集网络的可扩展性成为大流量系统的瓶颈。稀疏网络可以提供比密集网络更高的带宽和更好的可扩展性,但对于大型系统来说,互连系统的规模变得不切实际。通过结合两种网络的优点,通过适当的混合设计可以提高系统的性能和效率。对典型网状网络的路由器利用率和流量分布进行了分析和研究。对混合方案进行了理论分析和实现考虑。实验采用全系统仿真环境进行。评价结果表明,与密集网络相比,DSNOC的平均网络时延和能量延迟积分别提高了10.3%和33%。
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DSNOC: A Hybrid Dense-Sparse Network-on-Chip Architecture for Efficient Scalable Computing
In this paper, we propose a novel hybrid Dense-Sparse Network-on-Chip (DSNOC) design that takes advantage of both dense and sparse networks. The NoC paradigm is introduced to solve the communication bottleneck and improve system scalability for multicore processors with hundreds or even thousands of cores. Dense mesh network has been used widely in NoCs due to the simplicity of the design and implementation. However the scalability of dense network can be a bottleneck in systems with high traffic volume. Sparse network has been proposed to provide higher bandwidth and better scalability than the dense network, while the size of the interconnection system becomes impractical for large systems. By combining the benefits of both networks, system performance and efficiency can be improved with a proper hybrid design. We analyse and investigate router utilization and traffic distribution of typical mesh networks. The hybrid solution is explored with theoretical analysis and implementation considerations. Experiments are performed by using a full system simulation environment. The evaluation results show that, compared with the dense network, the average network latency and energy delay product of DSNOC are improved by 10.3% and 33% respectively.
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