ESPN: A case for energy-star photonic on-chip network

Zhongqi Li, Tao Li
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引用次数: 7

Abstract

Photonic Network-on-Chips (NoCs) have recently been proposed due to their inherent low latency and high bandwidth. However, the high static power of the photonic components (e.g. laser source, resonators and waveguides) often results in energy-inefficient architectures. In this paper, we advocate the Energy-Star Photonic Network (ESPN) architecture that optimizes energy utilization via a two-pronged approach: (1) by enabling dynamic resource provisioning, ESPN adapts photonic network resources based on runtime traffic characteristics and (2) by utilizing all-optical adaptive routing, ESPN improves energy efficiency by intelligently exploiting existing network resources without introducing high latency and power hungry auxiliary routing mechanisms. Our evaluation results show that compared to the baseline design, ESPN reduces power and energy consumption under synthetic traffic patterns by 50% and 58% respectively.
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ESPN:能源之星光子片上网络的案例
光子片上网络(NoCs)由于其固有的低延迟和高带宽而近年来被提出。然而,光子元件(如激光源、谐振器和波导)的高静态功率往往导致能源效率低下的架构。在本文中,我们提倡energy - star光子网络(ESPN)架构,该架构通过两方面的方法优化能源利用:(1)通过启用动态资源供应,ESPN根据运行时流量特征适应光子网络资源;(2)通过利用全光自适应路由,ESPN通过智能地利用现有网络资源来提高能源效率,而不引入高延迟和耗电的辅助路由机制。我们的评估结果表明,与基线设计相比,ESPN在综合交通模式下的功耗和能耗分别降低了50%和58%。
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