基于流固耦合模态分析的压电微液滴发生器喷嘴布置频率设计

Yanying Feng, Zhaoying Zhou, Guibin Du, Junhua Zhu
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引用次数: 1

摘要

一般来说,微液滴发生器的性能与其谐振频率有关,在谐振频率附近,液腔内的压力波达到最大振幅。然而,在不同频率下,压力波的分布是不同的,这就导致在某一频率下,并非所有的喷嘴在一个工作周期内都产生喷射液滴。这些不工作的喷嘴会对正常工作的喷嘴产生负面影响,甚至会导致设备故障。本文通过数值模拟和实验研究了喷嘴布置对阵列式液滴产生器中液滴喷射的影响。实验结果与数值预测结果吻合较好,证明仅增加喷嘴数量并不能增强液滴的生成,从压力波谐振模式的角度对喷嘴阵列液滴发生器进行布置设计是必要的。
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The frequency design of nozzles layout of the piezoelectrically actuated micro droplet generator based on a fluid-solid interaction modal analysis
Generally, the behavior of a micro droplet generator is related to its resonant frequency, near which the pressure wave in the liquid chamber reaches maximum amplitude. However, the pressure wave distributes differently under different frequencies, and this leads to the fact that not all nozzles produce droplet ejection in one operating cycle under a certain frequency. Those nozzles not working negatively affect those working well, and even make the device fail. We study numerically and experimentally the effect of nozzle layout on the droplet ejection of a droplet generator with arrayed nozzles. The experimental and numerically predicted results agree very well and prove that only increasing the number of nozzles may not enhance droplet generation, and the design of nozzle layout from the point of view of the pressure wave resonant mode is necessary for a nozzle array droplet generator.
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