直流电场作用下乙醇-油系统液体喷射及小液滴形成的实验研究

Dongbao Wang, Junfeng Wang, Piyaphong Yongphet
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摘要

在微观尺度上对毛细管通道中带电液体的变形和破碎演化过程进行了详细的实验研究。利用高速显微镜技术,对不同流速和电压下的液体喷射方式和液滴形成过程进行了详细的研究。分析了雷诺数(Re)和电键数(BoE)对液滴尺寸分布的影响。液滴尺寸随Re的增大而增大,随BoE的增大而减小。实验结果表明,在低流速下,电场可以通过降低界面张力来扩大界面面积,增加非混相液体间的传质。随着流速和电势的增大,液体喷雾经历了滴注、变形、破裂和喷射等模式。在临界Re为170时,电场对液体动力学行为影响不大。
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Experimental study on liquid spray and small droplet formation in ethanol-oil system in a DC electric field
A detailed experimental study on the evolution process of charged liquid deformation and breakup in another immiscible liquid from a capillary channel was conducted at micro-scale. By means of high-speed microscopy technique, various liquid spray modes and droplet formation processes were illustrated in detail at different flow rates and voltages. The effects of Reynolds (Re) and electric Bond (BoE) number on droplet size distribution were analyzed. It was found that droplet sizes rose with increasing Re while declined with increasing BoE. The experimental results show that electric field could promote interfacial area through decreasing interfacial tension to augment mass transfer between immiscible liquids at low flow rates. Besides, liquid spray experienced drip, deformation, breakup and jet modes with the increase of flow rate and electric potential. A critical Re of 170 was obtained beyond which electric field had little effect on liquid dynamic behaviors.
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