纳米尺度精密监测微毛细管内水滴蒸发动力学

K. Tokmakov, M. Sumetsky
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引用次数: 0

摘要

液滴微流体在物理、化学、生物学、表面科学、胶体流体动力学等领域的应用越来越受到人们的关注[1,2]。通常,光学传感方法用由光波长决定的空间分辨率来表征液滴,即相当于1微米。另外,参考文献[3]中提出的方法允许确定靠近微血管表面的亚微米厚液体层的折射率变化。通过测量共振低语通道模式(WGM)光谱,实现了Ref.[3]的微流控传感。具体来说,如图1(a)所示,wgm通过连接光源和光谱分析仪(OSA)的双锥形纤维锥度的正常附着的微米直径腰部发射到微毛细管中。微微毛细管内部的微模耦合可以通过监测微模共振的位移来检测液体的折射率变化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Monitoring the Evaporation Dynamics of a Water Droplet Inside a Microcapillary with Nanometre-Scale Precision
There is a growing interest to the multi-disciplinary field of droplet microfluidics having applications in physics, chemistry, biology, surface science, colloidal liquid dynamics etc. [1, 2]. Usually, optical sensing methods characterize the droplets with the spatial resolution determined by the wavelength of light, i.e., comparable with 1 micron. Alternatively, the approach suggested in Ref. [3] allows to determine the refractive index variation of submicron-thick liquid layers adjacent to the surface of microcapillaries. Microfluidic sensing in Ref. [3] was performed by measurement of the resonant whispering gallery mode (WGM) spectrum. Specifically, WGMs were launched into the microcapillary using the normally attached micron-diameter waist of a biconical fibre taper connected to the light source and optical spectrum analyser (OSA) as illustrated in Fig. 1(a). Evanescent coupling of WGMs to the interior of the microcapillary allowed to detect the refractive index variation of liquid by monitoring the shifts of the WGM resonances.
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