Photonic interconnects for gigabit multicomputer communications

IEEE LTS Pub Date : 1992-08-01 DOI:10.1109/80.166999
J.R. Sauer;D.J. Blumenthal;A.V. Ramanan
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引用次数: 10

Abstract

The ways in which photonic and optoelectronic technologies could play an important role in future highly scalable and flexible interconnects for multicomputer parallel processing systems are discussed. For electronic interconnect implementation, the primary limitations arise from transmission drive power requirements, limited bandwidth, and the crosstalk-limited length. It is shown that photonic interconnects can relieve these bottlenecks in order to allow systems to scale to large numbers of nodes without degrading the interconnect performance. As an example, a network architecture capable of interconnecting thousands of processors with multigigabit average access rate per user, and peak access rates an order of magnitude higher is presented. The network topology is a shuffle-exchange, multihop, multipath, wraparound direct interconnect that utilizes self-routing and a deflection flow control technique to simplify and speed the processing. An experimental 2*2 photonic switching node based on the presented techniques is described.< >
用于千兆多计算机通信的光子互连
讨论了光子和光电子技术在未来多计算机并行处理系统的高度可扩展和灵活互连中发挥重要作用的方式。对于电子互连实现,主要限制来自传输驱动功率要求、有限带宽和串扰有限长度。研究表明,光子互连可以缓解这些瓶颈,使系统能够在不降低互连性能的情况下扩展到大量节点。作为一个例子,提出了一种网络架构,该架构能够以每个用户的多千兆比特平均访问率和高一个数量级的峰值访问率互连数千个处理器。网络拓扑是一种混洗交换、多跳、多路径、环绕式直接互连,它利用自路由和偏转流控制技术来简化和加快处理。介绍了一种基于上述技术的实验性2*2光子开关节点>;
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