DocumentCode :
1761649
Title :
InP-Based Active and Passive Components for Communication Systems at 2 μm
Author :
Ye, N. ; Gleeson, M.R. ; Sadiq, M.U. ; Roycroft, B. ; Robert, C. ; Yang, H. ; Zhang, H. ; Morrissey, P.E. ; Mac Suibhne, N. ; Thomas, K. ; Gocalinska, A. ; Pelucchi, E. ; Phelan, R. ; Kelly, B. ; O´Carroll, J. ; Peters, F.H. ; Gunning, F. C. Garcia ; Corb
Author_Institution :
Tyndall Nat. Inst., Univ. Coll. Cork, Cork, Ireland
Volume :
33
Issue :
5
fYear :
2015
fDate :
March1, 1 2015
Firstpage :
971
Lastpage :
975
Abstract :
Progress on advanced active and passive photonic components that are required for high-speed optical communications over hollow-core photonic bandgap fiber at wavelengths around 2 μm is described in this paper. Single-frequency lasers capable of operating at 10 Gb/s and covering a wide spectral range are realized. A comparison is made between waveguide and surface normal photodiodes with the latter showing good sensitivity up to 15 Gb/s. Passive waveguides, 90° optical hybrids, and arrayed waveguide grating with 100-GHz channel spacing are demonstrated on a large spot-size waveguide platform. Finally, a strong electro-optic effect using the quantum confined Stark effect in strain-balanced multiple quantum wells is demonstrated and used in a Mach-Zehnder modulator capable of operating at 10 Gb/s.
Keywords :
indium compounds; optical fibre communication; optical modulation; phosphorus compounds; quantum wells; InP; Mach-Zehnder modulator; active components; arrayed waveguide grating; bit rate 15 Gbit/s; channel spacing; communication systems; electro-optic effect; high-speed optical communications; hollow-core photonic bandgap fiber; optical hybrids; passive components; passive waveguides; quantum confined Stark effect; single-frequency lasers; spot-size waveguide platform; strain-balanced multiple quantum wells; Arrayed waveguide gratings; Bandwidth; Indium phosphide; Modulation; Optical device fabrication; Waveguide lasers; Detectors; Optical communications; detectors; high bandwidth; lasers; optical communications; optical modulators; quantum confined Stark effect (QCSE);
fLanguage :
English
Journal_Title :
Lightwave Technology, Journal of
Publisher :
ieee
ISSN :
0733-8724
Type :
jour
DOI :
10.1109/JLT.2014.2383492
Filename :
6990488
Link To Document :
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