Performance Investigations of InAs/InP Quantum-Dash Semiconductor Optical Amplifiers with Different Numbers of Dash Layers
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Published:2023-12-12
Issue:12
Volume:14
Page:2230
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ISSN:2072-666X
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Container-title:Micromachines
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language:en
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Short-container-title:Micromachines
Author:
Mao Youxin1ORCID, Xie Xiaoran1, Song Chunying1, Lu Zhenguo1, Poole Philip J.1, Liu Jiaren1, Toreja Mia1, Qi Yang1ORCID, Liu Guocheng1, Barrios Pedro1, Poitras Daniel1ORCID, Weber John1, Zhao Ping1, Vachon Martin1, Rahim Mohamed1, Ma Penghui1, Chen Silas1, Atieh Ahmad2ORCID
Affiliation:
1. Advanced Electronics and Photonics Research Centre, National Research Council, Ottawa, ON K1A 0R6, Canada 2. Optiwave Systems Inc., 7 Capella Court, Suite 300, Ottawa, ON K1N 6N5, Canada
Abstract
We present here a performance comparison of quantum-dash (Qdash) semiconductor amplifiers (SOAs) with three, five, eight, and twelve InAs dash layers grown on InP substrates. Other than the number of Qdash layers, the structures were identical. The eight-layer Qdash SOA gave the highest amplified spontaneous emission power (4.3 dBm) and chip gain (26.4 dB) at 1550 nm, with a 300 mA CW bias current and at 25 °C temperature, while SOAs with fewer Qdash layers (for example, three-layer Qdash SOA), had a wider ASE bandwidth (90 nm) and larger 3 dB gain saturated output power (18.2 dBm) in a shorter wavelength range. The noise figure (NF) of the SOAs increased nearly linearly with the number of Qdash layers. The longest gain peak wavelength of 1570 nm was observed for the 12-layer Qdash SOA. The most balanced performance was obtained with a five-layer Qdash SOA, with a 25.4 dB small-signal chip gain, 15.2 dBm 3 dB output saturated power, and 5.7 dB NF at 1532 nm, 300 mA and 25 °C. These results are better than those of quantum well SOAs reported in a recent review paper. The high performance of InAs/InP Qdash SOAs with different Qdash layers shown in this paper could be important for many applications with distinct requirements under uncooled scenarios.
Funder
NRC-AEP’s internal research project
Subject
Electrical and Electronic Engineering,Mechanical Engineering,Control and Systems Engineering
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