Integrated Optical Signal Processing Devices Employing Magnetostatic Waves

A. Fisher, John N. Lee
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Abstract

Optical techniques are being increasingly called upon to meet the ever-growing data rate requirements of communications and signal processing applications. A new class of magneto-optical devices1,2 based on Bragg diffraction of light by magnetostatic waves (MSWs) offers the potential of extending optical processing capabilities from the present acousto-optical Limitation of a few GHz to large time-bandwidth signal processing at 20 GHz and beyond. These devices take a thin-film integrated optical form in order to avoid shape-factor demagnetization effects.1,3 The interacting MSW and guided-optical waves thus propagate in a common ferrite film, as illustrated in Fig. 1.
采用静磁波的集成光信号处理装置
为了满足通信和信号处理应用中不断增长的数据速率要求,人们越来越需要光学技术。一类基于静磁波Bragg衍射的新型磁光器件1,2提供了将光学处理能力从目前几GHz的声光限制扩展到20 GHz及以上的大时间带宽信号处理的潜力。这些器件采用薄膜集成光学形式,以避免形状因子退磁效应。因此,相互作用的生活垃圾和导光波在一个共同的铁氧体薄膜中传播,如图1所示。
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