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使用集成加热器的流体谐振器的纳米机械传感

Nanomechanical Sensing Using Heater-Integrated Fluidic Resonators.

作者信息

Ko Juhee, Khan Faheem, Nam Youngsuk, Lee Bong Jae, Lee Jungchul

机构信息

Department of Mechanical Engineering, Korea Advanced Institute of Science and Technology, Daejeon, 34141, South Korea.

Center for Extreme Thermal Physics and Manufacturing, Korea Advanced Institute of Science and Technology, Daejeon, 34141, South Korea.

出版信息

Nano Lett. 2022 Oct 12;22(19):7768-7775. doi: 10.1021/acs.nanolett.2c01572. Epub 2022 Aug 18.

Abstract

Micro/nanochannel resonators have been used to measure cells, suspended nanoparticles, or liquids, primarily at or near room temperature while their high temperature operation can offer promising applications such as calorimetric measurements and thermogravimetric analysis. To date, global electrothermal or local photothermal heating mechanisms have been attempted for channel resonators, but both approaches are intrinsically limited by a narrow temperature modulation range, slow heating/cooling, less quantitative heating, or time-consuming optical alignment. Here, we introduce heater-integrated fluidic resonators (HFRs) that enable fast, quantitative, alignment-free, and wide-range temperature modulation and simultaneously offer resistive thermometry and resonant densitometry. HFRs with or without a dispensing nozzle are fabricated, thoroughly characterized, and used for high throughput thermophysical properties measurements, microchannel boiling studies, and atomized spray dispensing. The HFR, without a doubt, opens a new avenue for nanoscale thermal analysis and processing and further encourages the integration of additional functions into channel resonators.

摘要

微纳通道谐振器已被用于测量细胞、悬浮纳米颗粒或液体,主要是在室温或接近室温的条件下,而其在高温下的运行可以提供诸如量热测量和热重分析等有前景的应用。到目前为止,已经尝试了用于通道谐振器的全局电热或局部光热加热机制,但这两种方法本质上都受到温度调制范围窄、加热/冷却速度慢、加热定量性差或光学对准耗时等限制。在这里,我们介绍了集成加热器的流体谐振器(HFR),它能够实现快速、定量、无需对准且宽范围的温度调制,同时提供电阻测温和谐振密度测量。制造了带有或不带有分配喷嘴的HFR,对其进行了全面表征,并用于高通量热物理性质测量、微通道沸腾研究和雾化喷雾分配。毫无疑问,HFR为纳米级热分析和处理开辟了一条新途径,并进一步推动了将更多功能集成到通道谐振器中。

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