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Cover image for Acoustic cavitation theory & equipment design principles for industrial applications of high-intensity ultrasound
Title:
Acoustic cavitation theory & equipment design principles for industrial applications of high-intensity ultrasound
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Series:
Physics research and technology
Publication Information:
New York : Nova Science Pub., 2010
Physical Description:
viii, 60 p. : ill. ; 22 cm.
ISBN:
9781617610936
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30000010252713 TA367 P47 2010 Open Access Book Book
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Summary

Summary

A multitude of useful physical and chemical processes promoted by ultrasonic cavitation have been described in laboratory studies. Industrial-scale implementation of the high-intensity ultrasound has, however, been hindered by several technological limitations, making it difficult to directly scale up the ultrasonic systems in order to transfer the results of the laboratory studies to the plant floor. High-capacity flow-through ultrasonic reactor systems required for commercial-scale processing of liquids can only be properly designed if the energy parameters of the cavitation region are correctly evaluated. Conditions which must be fulfilled to ensure an effective and continuous operation of an ultrasonic reactor system are provided in this book.


Table of Contents

Introduction
Shock-wave model of acoustic cavitation
Visual observations of acoustic cavitation
Justification for the shock-wave approach
Theory
Oscillations of a single gas bubble
Cavitation region
Set-up of the equations for the experimental verification
Low oscillatory velocities of acoustic radiator
High oscillatory velocities of acoustic radiator
Interpretation of the experimental results of the work
Experimental setup
Experimental results
Section conclusion
Electromechanical transducer selection considerations
High Power Acoustic Horn Design Principles
Criteria for matching a magnetostrictive transducer to water at cavitation
Five-elements matching horns
Design principles
Analysis of five- element horns
Experimental results
Section conclusion
Ultrasonic reactor chamber geometry
Final remarks
Index
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