Title :
An InP Monolithically Integrated Unicast and Multicast Wavelength Converter
Author :
Bontempi, F. ; Faralli, Stefano ; Andriolli, N. ; Contestabile, G.
Author_Institution :
Scuola Superiore Sant´Anna, Pisa, Italy
Abstract :
We experimentally demonstrate a novel Indium Phosphide monolithically integrated optical circuit for all-optical wavelength conversion. The circuit exploits two cascaded cross gain modulation (XGM) interactions in semiconductor optical amplifiers. In a first XGM stage, the input signal and a continuous wave light at the desired output wavelength generate a wavelength converted yet not ideal copy of the input signal, whereas, in the second XGM stage, the quality of the wavelength converted signal is significantly improved because of the cross gain compression effect. We report 10 Gb/s wavelength conversion performance for both the unicast (single output wavelength) and the multicast (multiple output wavelengths) conversion. Experimental results confirm the effectiveness of the present photonic integrated circuit in both cases, showing only a moderate bit error rate power penalty.
Keywords :
III-V semiconductors; error statistics; indium compounds; integrated optics; monolithic integrated circuits; optical fibre networks; optical wavelength conversion; semiconductor optical amplifiers; InP; XGM; all-optical wavelength conversion; bit error rate power penalty; cascaded cross gain modulation; cross gain compression effect; monolithic integration; monolithically integrated optical circuit; multicast wavelength converter; photonic integrated circuit; semiconductor optical amplifiers; unicast wavelength converter; Band-pass filters; Bit error rate; Integrated optics; Optical filters; Optical wavelength conversion; Semiconductor optical amplifiers; Unicast; Photonic integrated circuits; optical wavelength conversion; semiconductor optical amplifiers;
Journal_Title :
Photonics Technology Letters, IEEE
DOI :
10.1109/LPT.2013.2281509