Monitoring and identifying pendant droplets in microbottle resonators

Author:

Wang Zijie1,Zhang Xiaobei1ORCID,Zhang Qi1,Chen Yiqi1,Yang Yong1,Yu Yang1,Wang Yang1,Dong Yanhua1,Huang Yi1,Wang Tingyun1

Affiliation:

1. Shanghai University

Abstract

Optofluidic resonators are capable of characterizing various fluidic media. Here, we propose an optofluidic microbottle resonator (OFMBR) that is applied to generate pendant droplets, whose maximum mass is related to the liquid surface tension. Mass and type of droplets forming along the OFMBR stem can be monitored in real time by spectrum variation. As a pendant droplet grows, increased droplet gravity introduces a decreased coupling gap and compressive force between the tapered fiber and OFMBR, leading to a resonance wavelength shift. The operation mechanism of the proposed sensors is validated by theoretical simulation and experimental results. From the experimental spectra, a liquid mass sensor with maximum sensitivity of 3.34    pm / mg is obtained, and distilled water and alcohol can be identified. This scheme provides a new thread for droplet generation as well as fluidic properties characterization.

Funder

National Natural Science Foundation of China

the Open Project Program of Wuhan National Laboratory for Optoelectronics

111 Project

the Advanced Optical Waveguide Intelligent Manufacturing and Testing Professional Technical Service Platform of Shanghai

Publisher

Optica Publishing Group

Subject

Atomic and Molecular Physics, and Optics,Electronic, Optical and Magnetic Materials

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