DocumentCode
105040
Title
Quasi-Phase-Matched Faraday Rotation in Semiconductor Waveguides With a Magnetooptic Cladding for Monolithically Integrated Optical Isolators
Author
Hutchings, D.C. ; Holmes, B.M. ; Cui Zhang ; Dulal, P. ; Block, A.D. ; Sang-Yeob Sung ; Seaton, Nicholas C. A. ; Stadler, B.J.H.
Author_Institution
Sch. of Eng., Univ. of Glasgow, Glasgow, UK
Volume
5
Issue
6
fYear
2013
fDate
Dec. 2013
Firstpage
6602512
Lastpage
6602512
Abstract
Strategies are developed for obtaining nonreciprocal polarization mode conversion, also known as Faraday rotation, in waveguides in a format consistent with silicon-on-insulator or III-V semiconductor photonic integrated circuits. Fabrication techniques are developed using liftoff lithography and sputtering to obtain garnet segments as upper claddings, which have an evanescent wave interaction with the guided light. A mode solver approach is used to determine the modal Stokes parameters for such structures, and design considerations indicate that quasi-phase-matched Faraday rotation for optical isolator applications could be obtained with devices on the millimeter length scale.
Keywords
Faraday effect; III-V semiconductors; aluminium compounds; gallium arsenide; garnets; integrated optics; optical fabrication; optical phase matching; optical waveguides; sputtering; Al0.27Ga0.73As; GaAs; evanescent wave interaction; liftoff lithography; magnetooptic cladding; modal Stokes parameter; monolithically integrated optical isolator; nonreciprocal polarization mode conversion; optical fabrication techniques; quasiphase matched Faraday rotation; semiconductor photonic integrated circuit; semiconductor waveguide; silicon-on-insulator; sputtering method; Magnetophotonics; integrated photonic systems; waveguide devices;
fLanguage
English
Journal_Title
Photonics Journal, IEEE
Publisher
ieee
ISSN
1943-0655
Type
jour
DOI
10.1109/JPHOT.2013.2292339
Filename
6671937
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