A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics

The manufacturer of an ultrasonic cleaning tank (UCT) received advise from a customer to seek the cause to why the UCT could not clean their products effectively and develop a novel UCT to replace the conventional model. This UCT had a capacity of 10 L, a frequency of 28 kHz, four horn transducers,...

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Main Authors: Worapol Tangsopa, Jatuporn Thongsri
Format: Article
Language:English
Published: MDPI AG 2020-03-01
Series:Metals
Subjects:
Online Access:https://www.mdpi.com/2075-4701/10/3/335
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spelling doaj-5f5a998ff9d54436aa8ef59dcaf4f9292020-11-25T02:57:38ZengMDPI AGMetals2075-47012020-03-0110333510.3390/met10030335met10030335A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid DynamicsWorapol Tangsopa0Jatuporn Thongsri1Computer Simulation in Engineering Research Group, College of Advanced Manufacturing Innovation, King Mongkut’s Institute of Technology Ladkrabang, Bangkok 10520, ThailandComputer Simulation in Engineering Research Group, College of Advanced Manufacturing Innovation, King Mongkut’s Institute of Technology Ladkrabang, Bangkok 10520, ThailandThe manufacturer of an ultrasonic cleaning tank (UCT) received advise from a customer to seek the cause to why the UCT could not clean their products effectively and develop a novel UCT to replace the conventional model. This UCT had a capacity of 10 L, a frequency of 28 kHz, four horn transducers, and a total power of 200 W. To resolve that problem and respond to customers’ needs, we presented new methods to develop the UCT using the harmonic response analysis (HRA) and computational fluid dynamics (CFD) to simulate the cleaning process which occurred within the UCT based on the actual conditions. Results from the HRA showed that the acoustic pressure in a problematic UCT was low, resulting in a smaller cleaning area, which was consistent with the results from the foil corrosion test, and thus caused the cleaning process to be ineffective. We developed a novel UCT with improved effectiveness by adjusting the design and adding a water circulation system. From the HRA, we were able to design the dimensions of the UTC and position of the transducer to be suitable to increase the acoustic pressure and cleaning area. CFD results enabled us to design proper inlet and outlet shapes, as well as simulate the water flow behavior to find the optimal cleaning condition so the novel UCT had a water circulation system that could eliminate the excess particles.https://www.mdpi.com/2075-4701/10/3/335acoustic pressurecavitationcomputational fluid dynamicsharmonic response analysispiezoelectric transducersimulationultrasonic cleaning
collection DOAJ
language English
format Article
sources DOAJ
author Worapol Tangsopa
Jatuporn Thongsri
spellingShingle Worapol Tangsopa
Jatuporn Thongsri
A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics
Metals
acoustic pressure
cavitation
computational fluid dynamics
harmonic response analysis
piezoelectric transducer
simulation
ultrasonic cleaning
author_facet Worapol Tangsopa
Jatuporn Thongsri
author_sort Worapol Tangsopa
title A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics
title_short A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics
title_full A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics
title_fullStr A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics
title_full_unstemmed A Novel Ultrasonic Cleaning Tank Developed by Harmonic Response Analysis and Computational Fluid Dynamics
title_sort novel ultrasonic cleaning tank developed by harmonic response analysis and computational fluid dynamics
publisher MDPI AG
series Metals
issn 2075-4701
publishDate 2020-03-01
description The manufacturer of an ultrasonic cleaning tank (UCT) received advise from a customer to seek the cause to why the UCT could not clean their products effectively and develop a novel UCT to replace the conventional model. This UCT had a capacity of 10 L, a frequency of 28 kHz, four horn transducers, and a total power of 200 W. To resolve that problem and respond to customers’ needs, we presented new methods to develop the UCT using the harmonic response analysis (HRA) and computational fluid dynamics (CFD) to simulate the cleaning process which occurred within the UCT based on the actual conditions. Results from the HRA showed that the acoustic pressure in a problematic UCT was low, resulting in a smaller cleaning area, which was consistent with the results from the foil corrosion test, and thus caused the cleaning process to be ineffective. We developed a novel UCT with improved effectiveness by adjusting the design and adding a water circulation system. From the HRA, we were able to design the dimensions of the UTC and position of the transducer to be suitable to increase the acoustic pressure and cleaning area. CFD results enabled us to design proper inlet and outlet shapes, as well as simulate the water flow behavior to find the optimal cleaning condition so the novel UCT had a water circulation system that could eliminate the excess particles.
topic acoustic pressure
cavitation
computational fluid dynamics
harmonic response analysis
piezoelectric transducer
simulation
ultrasonic cleaning
url https://www.mdpi.com/2075-4701/10/3/335
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