Silicon-based high-frequency multiple-Fourier horn ultrasonic nozzles for atomization and pumping

C. Tsai, Y.L. Song, S. Tsai, Y. Chou, J. Cheng
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Abstract

This paper reports for the first time on successful atomization and pumping using microfabricated silicon-based high frequency ultrasonic nozzles of a novel design. The nozzle is made of a piezoelectric drive section with transducers isolated from the liquid and a silicon-resonator consisting of multiple Fourier horns with a central channel for liquid flow. Such nozzles possess a number of advantages over conventional metal-based bulk-type ultrasonic nozzles such as microelectromechanical-system (MEMS)-based microfabrication technology for mass production, much higher ultrasonic frequency and thus much smaller drop diameter, much narrower drop-size distribution, and much lower electric drive power requirement. Monodispersed droplets (mist) are produced at the resonance frequency due to pure capillary wave atomization mechanism. For example, more than 93% of the droplets 7.0 mum in diameter were produced at ultrasonic resonance frequency of 484.5 kHz. Pumping is also achieved at the resonance frequency as in atomization
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用于雾化和泵送的硅基高频多傅立叶喇叭超声喷嘴
本文首次报道了一种新型硅基高频超声喷嘴的雾化和泵送。喷嘴由压电驱动部分和与液体隔离的换能器以及由多个傅里叶角组成的硅谐振器组成,该硅谐振器具有用于液体流动的中心通道。与传统的金属本体型超声喷嘴相比,这种喷嘴具有许多优点,例如基于微机电系统(MEMS)的批量生产微加工技术,更高的超声波频率,从而更小的液滴直径,更窄的液滴尺寸分布,更低的电力驱动功率要求。由于纯毛细波雾化机制,在共振频率下产生单分散液滴(雾)。例如,在484.5 kHz的超声共振频率下,超过93%的直径为7.0 mum的液滴产生。泵送也实现在共振频率的雾化
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