Broadband highly efficient nonlinear optical processes in on-chip integrated lithium niobate microdisk resonators of Q-factor above 108

Microresonators of ultrahigh quality (Q) factors represent a crucial type of photonic devices aiming at ultra-high spectral resolution, ultra-high sensitivity to the environmental perturbations, and efficient nonlinear wavelength conversions at low threshold pump powers. Lithium niobate on insulator...

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Veröffentlicht in:New journal of physics 2021-12, Vol.23 (12), p.123027
Hauptverfasser: Gao, Renhong, Zhang, Haisu, Bo, Fang, Fang, Wei, Hao, Zhenzhong, Yao, Ni, Lin, Jintian, Guan, Jianglin, Deng, Li, Wang, Min, Qiao, Lingling, Cheng, Ya
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container_issue 12
container_start_page 123027
container_title New journal of physics
container_volume 23
creator Gao, Renhong
Zhang, Haisu
Bo, Fang
Fang, Wei
Hao, Zhenzhong
Yao, Ni
Lin, Jintian
Guan, Jianglin
Deng, Li
Wang, Min
Qiao, Lingling
Cheng, Ya
description Microresonators of ultrahigh quality (Q) factors represent a crucial type of photonic devices aiming at ultra-high spectral resolution, ultra-high sensitivity to the environmental perturbations, and efficient nonlinear wavelength conversions at low threshold pump powers. Lithium niobate on insulator (LNOI) microdisks of high Q factors are particularly attractive due to its large second-order nonlinear coefficient and strong electro-optic property. In this letter, we break through the long standing bottleneck in achieving the Q factors of LNOI microresonators beyond 108, which approaches the intrinsic material absorption limit of lithium niobate (LN). The ultra-high Q factors give rise to a rich family of nonlinear optical phenomena from optical parametric oscillation (OPO) to harmonics generation with unprecedented characteristics including ultra-low pump threshold, high wavelength conversion efficiency, and ultra-broad operation bandwidth. Specifically, the threshold of OPO is measured to be only 19.6 μW, and the absolute conversion efficiency observed in the second harmonic generation reaches 23%. The record-breaking performances of the on-chip ultra-high Q LNOI microresonators will have profound implication for both photonic research and industry.
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subjects Broadband
Collaboration
Conversion
Efficiency
Etching
Interfaces
Laboratories
Lasers
Light
lithium niobate
Lithium niobates
Material absorption
microcavities
Nonlinear optics
Optics
Perturbation
Photonics
Physics
Q factors
Science
Second harmonic generation
Spectral resolution
Spectral sensitivity
Thin films
title Broadband highly efficient nonlinear optical processes in on-chip integrated lithium niobate microdisk resonators of Q-factor above 108
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