Title :
High-gain 1310-nm reflective semiconductor optical amplifiers with low-gain uncertainty
Author :
Tiemeijer, L.F. ; van den Hoven, G.N. ; Thijs, P.J.A. ; Van Dongen, T. ; Binsma, J.J.M. ; Jansen, E.J. ; Verboven, A.J.M.
Author_Institution :
Philips Optoelectron. Centre, Eindhoven, Netherlands
Abstract :
A 1310-nm reflective semiconductor optical amplifier with a gain uncertainty of only 0.8 dB at an average gain level of over 30 dB has been demonstrated using a microoptic polarization reversing retroreflector. For this amplifier 3-dB saturation output powers of up to 10 dBm and a noise figure of 7.5 dB have been obtained. A low gain uncertainty for undefined input signal polarization states and input signal wavelengths (which may vary over several nanometers) is of primary importance in switching applications.
Keywords :
electro-optical switches; infrared sources; laser mirrors; laser noise; laser transitions; light polarisation; optical saturation; quantum well lasers; reflectivity; semiconductor device noise; semiconductor switches; 1310 nm; 30 dB; average gain level; dB saturation output powers; gain uncertainty; input signal wavelengths; low gain uncertainty; low-gain uncertainty; microoptic polarization reversing retroreflector; nm reflective semiconductor optical amplifiers; noise figure; switching applications; undefined input signal polarization states; Optical amplifiers; Optical feedback; Optical noise; Optical polarization; Optical saturation; Page description languages; Power amplifiers; Semiconductor optical amplifiers; Stimulated emission; Uncertainty;
Journal_Title :
Photonics Technology Letters, IEEE