集成光学信道路由

Christopher Condrat, P. Kalla, S. Blair
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引用次数: 7

摘要

集成光学的应用范围和应用范围的扩大,要求光学系统物理设计自动化技术的发展。提出了一种集成光波导的自动平面通道布线技术。集成光学是一种平面技术,缺乏静态cmos固有的信号恢复能力。因此,信号损失最小化——作为波导交叉和弯曲的函数——是该技术的主要目标。这与传统VLSI路由的轨道和线长最小化形成对比。我们的光通道路由器通过绘制基于排序的波导路由技术来保证最小的波导交叉。为了进一步改善我们在信号损耗方面的解决方案,我们扩展了路由器,以减少路由过程中产生的弯曲次数。最后,我们实现了光通道路由技术并描述了实验结果,比较了路由解决方案在波导交叉、弯曲和通道高度方面的成本。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Channel routing for integrated optics
Increasing scope and applications of integrated optics necessitates the development of automated techniques for physical design of optical systems. This paper presents an automated, planar channel routing technique for integrated optical waveguides. Integrated optics is a planar technology and lacks the inherent signal restoration capabilities of static-CMOS. Therefore, signal loss minimization - as a function of waveguide crossings and bends-is the primary objective of this technique. This is in contrast to track and wire-length minimization of traditional VLSI routing. Our optical channel router guarantees minimal waveguide crossings by drawing upon sorting-based techniques for waveguide routing. To further improve our solutions in terms of signal loss, we extend the router to reduce the number of bends produced during routing. Finally, we implement the optical channel routing technique and describe the experimental results, comparing the costs of routing solutions with respect to waveguide crossings, bends, and channel height.
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