Simulation of ultrasonic cleaning and ways to improve the efficiency

Worapol Tangsopha, J. Thongsri, W. Busayaporn
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引用次数: 17

Abstract

Based on practical problem in industrial ultrasonic cleaning, this research has an objective to simulate acoustic pressure leading to cavitation in a cleaning tank. By using Harmonic response in ANSYS as simulation software, acoustic pressure distribution has been simulated at different position in the cleaning tank. The result has been confirmed by aluminum foil corrosion test. The simulations show that increasing power of piezoelectric transducers can lead to increasing the power of acoustic pressure; however, it cannot lead to the change of acoustic pressure distribution. To change the acoustic pressure distribution, the difference of frequencies is required. For such typical ultrasonic cleaning tank, the position of the highest cleaning efficiency is at the middle of the tank. Finally, the result can lead to the optimization between the power and frequency of ultrasonic to reach the maximum cleaning efficiency.
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超声波清洗的仿真及提高效率的方法
本研究基于工业超声波清洗中的实际问题,目的是模拟导致清洗槽内空化的声压。利用ANSYS中的谐波响应软件作为仿真软件,模拟了清洗槽内不同位置的声压分布。结果经铝箔腐蚀试验证实。仿真结果表明,增加压电换能器的功率可以提高声压的功率;但不能引起声压分布的变化。为了改变声压分布,需要频率差。对于这种典型的超声波清洗槽,清洗效率最高的位置是在槽的中间。最后,对超声波的功率和频率进行优化,以达到最大的清洗效率。
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