GaAs-on-insulator ridge waveguide nanobeam cavities with integrated InAs quantum dots

Yueguang Zhou, Yuhui Yang, Yujing Wang, A. Koulas‐Simos, C. Palekar, I. Limame, Shulun Li, Hanqing Liu, H. Ni, Zhichuan Niu, Kresten Yvind, N. Gregersen, M. Pu, S. Reitzenstein
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Abstract

This study investigates nanobeam cavities on a GaAs-on-insulator chip with InAs quantum dots, including design, fabrication, and experimental characterization. The nanobeam cavities are optimized for high photon coupling efficiency and pronounced light-matter coupling. Numerical studies yield Q factors up to about 1400, a coupling efficiency of nearly 70% and a maximum Purcell factor of approximately 100. Experimentally, these devices have a $Q$ factor of about 1300, and comparing the lifetime of quantum dots in on-resonance and off-resonance conditions, a Purcell factor of 10.46±0.14 is obtained. Moreover, in the single-emitter regime, we observe strong multiphoton suppression with g(2)(0) = 0.295. Our results demonstrate the high potential of nanobeam cavity on a GaAs-on-insulator platform for quantum photonic applications.
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集成砷化镓量子点的砷化镓绝缘体脊波导纳米束腔
本研究探讨了在带有 InAs 量子点的 GaAs-on-insulator 芯片上的纳米光束腔,包括设计、制造和实验表征。纳米光束腔经过优化,具有很高的光子耦合效率和明显的光物质耦合。数值研究得出的 Q 值系数高达约 1400,耦合效率接近 70%,最大珀塞尔系数约为 100。在实验中,这些器件的 Q$ 因子约为 1300,比较量子点在共振和非共振条件下的寿命,得出的珀塞尔因子为 10.46±0.14。此外,在单发射极体系中,我们观察到强烈的多光子抑制(g(2)(0) = 0.295)。我们的研究结果证明了在砷化镓绝缘体平台上的纳米光束腔在量子光子应用方面的巨大潜力。
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