Design, fabrication and performance test of a 3 MHz megasonic waveguide for nano-particle cleaning

Hyunse Kim, Y. Lee, Euisu Lim
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引用次数: 2

Abstract

In this article, a 3 MHz near-field megasonic waveguide for nano-particle control was developed. In the design process, an impedance graph of the megasonic system with the piezoelectric actuator was obtained by analysis using finite element method (FEM) software ANSYS. After analysis, the maximum value of the anti-resonance frequency was obtained as 2997 kHz, which coincided with the design value. Additionally, acoustic pressure distribution of the system was predicted by FEM. After fabricating the waveguide using the analysis results, the system performance was assessed by measuring acoustic pressures. The maximum value and standard deviation of measured data were analyzed and compared with a conventional megasonic system to evaluate the system performance. As a result, the maximum value was decreased by 35.6%, and the standard deviation of the developed system was decreased by 10.4% compared to the conventional type both at the same average acoustic pressure. And to evaluate cleaning ability, the particle removal efficiency (PRE) test was performed with 80 nm particles. The PRE result showed that the system cleaned 93.1% particles. Considering these results, the developed megasonic system is thought to have an improved cleaning ability with more uniform acoustic pressures. These imply that the megasonic system can be applied to nano-particle cleaning process with higher energy efficiency and lower consumption of chemical and ultra pure water (UPW).
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用于纳米颗粒清洗的3mhz超高频波导的设计、制造和性能测试
本文研制了一种用于纳米粒子控制的3mhz近场超声速波导。在设计过程中,利用有限元分析软件ANSYS对压电作动器的超声速系统进行了阻抗图分析。经分析,得到抗共振频率最大值为2997 kHz,与设计值吻合。利用有限元法对系统的声压分布进行了预测。利用分析结果制作波导后,通过测量声压来评估系统性能。对测量数据的最大值和标准差进行了分析,并与传统的超声速系统进行了比较,以评价系统的性能。结果表明,在相同的平均声压条件下,该系统的最大值比常规系统降低了35.6%,标准差比常规系统降低了10.4%。为评价其清洁能力,采用80 nm粒径颗粒进行了颗粒去除效率(PRE)测试。PRE结果表明,该系统对颗粒的去除率为93.1%。考虑到这些结果,我们认为所开发的超声速系统具有更均匀声压的清洁能力。这意味着该系统可以应用于纳米颗粒的清洁过程,具有更高的能源效率和更低的化学和超纯水(UPW)的消耗。
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