CMOS nanophotonics for exascale systems

M. McLaren
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Abstract

A critical challenge on the path to exascale systems is the growing proportion of power consumed in interconnects. Optical communication can potentially reduce the energy per bit of communication at both the interchip and intrachip level. The cost of converting between the electronic and optical domains, which can be prohibitively high using current discrete optical components, will be radically reduced through the development of integrated photonics using standard silicon processes. However the benefits of integrated photonics go beyond simply making “better wires”. The greatly increased bandwidth density, and relative distance independence of DWDM photonics allow new architectures for networking and memory systems to be explored.
百亿亿级系统的CMOS纳米光子学
在迈向百亿亿级系统的道路上,一个关键的挑战是互连所消耗的电力比例不断增长。光通信可以潜在地降低片间和片内级通信的每比特能量。在电子和光学领域之间转换的成本,使用目前的离散光学元件可能会非常高,将通过使用标准硅工艺的集成光子学的发展从根本上降低。然而,集成光子学的好处不仅仅是制造“更好的电线”。大大增加的带宽密度和相对距离无关的DWDM光子学允许探索网络和存储系统的新架构。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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