Monolithically Integrated III–V Heterostructure Photonic Crystal Lasers on Silicon‐on‐Insulator

IF 6.8 2区 物理与天体物理 Q1 MATERIALS SCIENCE, MULTIDISCIPLINARY
Nanophotonics Pub Date : 2026-10-06 DOI:10.1002/nap2.70314
Zhaojie Ren,Zili Lei,Cong Zeng,Donghui Fu,Ying Yu,Yu Han,Siyuan Yu
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引用次数: 0

Abstract

ABSTRACT Improving modal gain and suppressing etch‐induced losses is vital for III–V microcavity lasers. Here, we demonstrate monolithically integrated heterostructure photonic crystal (HPhC) lasers on SOI using selective lateral heteroepitaxy with slow‐light enhancement. The laterally grown gain medium is fully buried inside the InP membrane and placed precisely and exclusively within the line defect of a HPhC cavity. This unique design enables an unetched active gain medium and allows for amplified modal gain via the slow‐light effect. The fabricated devices operate around 1459 nm under optical pumping with a threshold of 21.5 μJ/cm 2 at room temperature and sustain lasing operation up to 353 K with a characteristic temperature of 100 K. Observation of the enhanced spontaneous emission and amplified polarization‐dependent intensity indicate a slow‐light‐enhanced behavior.
硅上绝缘体上单片集成III-V异质结构光子晶体激光器
提高模态增益和抑制蚀刻引起的损耗对III-V型微腔激光器至关重要。在这里,我们展示了单片集成异质结构光子晶体(HPhC)激光器在SOI上使用选择性横向异质外延与慢光增强。横向生长的增益介质完全埋在InP膜内,并精确地和完全地放置在HPhC腔的线缺陷内。这种独特的设计实现了无蚀刻的有源增益介质,并允许通过慢光效应放大模态增益。所制备的器件在室温光泵浦下工作在1459 nm左右,阈值为21.5 μJ/ cm2,持续激光工作到353 K,特征温度为100 K。自发辐射的增强和极化依赖强度的放大表明了一种慢光增强行为。
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来源期刊
Nanophotonics
Nanophotonics NANOSCIENCE & NANOTECHNOLOGY-MATERIALS SCIENCE, MULTIDISCIPLINARY
CiteScore
13.50
自引率
6.70%
发文量
358
审稿时长
7 weeks
期刊介绍: Nanophotonics, published in collaboration with Sciencewise, is a prestigious journal that showcases recent international research results, notable advancements in the field, and innovative applications. It is regarded as one of the leading publications in the realm of nanophotonics and encompasses a range of article types including research articles, selectively invited reviews, letters, and perspectives. The journal specifically delves into the study of photon interaction with nano-structures, such as carbon nano-tubes, nano metal particles, nano crystals, semiconductor nano dots, photonic crystals, tissue, and DNA. It offers comprehensive coverage of the most up-to-date discoveries, making it an essential resource for physicists, engineers, and material scientists.
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