DocumentCode
752672
Title
Fabrication of ultrathin and highly flexible InP-based membranes for microoptoelectromechanical systems at 1.55 μm
Author
Strassner, M. ; Esnault, J.C. ; Leroy, L. ; Leclercq, J.-L. ; Garrigues, M. ; Sagnes, I.
Author_Institution
Lab. de Photoniques et de Nanostruct., CNRS, Marcoussis, France
Volume
17
Issue
4
fYear
2005
fDate
4/1/2005 12:00:00 AM
Firstpage
804
Lastpage
806
Abstract
Tunable microcavities have been fabricated to evaluate their tunability in dependence on the membrane thickness. The membrane thickness has been decreased from 615 nm down to a record thickness of 123 nm yielding in a maximum mechanical tunability of 15.15 nm/V2. Furthermore, a three-period /spl lambda//4 InP/air-gap high reflective mirror (R > 99.8% at 1.55 μm) with a record wide stopband of more than 1100 nm has been fabricated. These results are achieved thanks to specific metal-organic vapor-phase epitaxy growth parameters.
Keywords
Fourier transform spectra; III-V semiconductors; distributed Bragg reflectors; indium compounds; infrared spectra; integrated optics; membranes; micro-optics; microcavities; micromechanical devices; optical fabrication; optical tuning; refractive index; semiconductor epitaxial layers; vapour phase epitaxial growth; 1.55 mum; 123 nm; InP; flexible InP-based membranes; mechanical tunability; metal-organic vapor-phase epitaxy growth parameters; microoptoelectromechanical systems; mirror; stopband; tunable microcavities; ultrathin InP-based membranes; Air gaps; Biomembranes; Epitaxial growth; Fabrication; Indium phosphide; Microcavities; Mirrors; Optical materials; Tunable circuits and devices; Vertical cavity surface emitting lasers; Distributed Bragg reflector (DBR); microactuators; micromachining; microresonators; wavelength-division multiplexing;
fLanguage
English
Journal_Title
Photonics Technology Letters, IEEE
Publisher
ieee
ISSN
1041-1135
Type
jour
DOI
10.1109/LPT.2005.844007
Filename
1411882
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