Effects of Ultrasound Working Parameters on the Ultrasonic Power Density Some Neglected Problems in the Application of Ultrasound Bath

Document Type : Research Article

Authors

Lab. of Food & Physical Field Processing, School of Food Engineering and Nutrition Sciences, Shaanxi Normal University, Xi’an, 710062 Shaanxi Province, PR CHINA

Abstract

Ultrasound has been widely employed in food industry, while some of its working parameters are usually neglected to be described in its application, which caused the difficulty of reproducing and comparing the results obtained by different groups. So it is definitely not sufficient to simply state the ultrasound conditions such as ultrasound power, frequency and temperature, additionally, other parameters including the geometry of the reaction vessel, vessel distance, initial temperature of water, ultrasonic power density and positions used for fixing vessel are also very important for the actual/practical ultrasound power delivered to the targeted solution. Considering these facts, the above-mentioned factors were systematically conducted to study their effects on the actual ultrasound power, i.e. ultrasound power density for achieving maximum benefit, as a result, to highlight the importance of fully describing the ultrasound working parameters about its application.As expected, the results confirmed our assumption that nearly all the studied parameters did have a great influence on the actual ultrasound power density dissipated into the targeted solution, excluding vessel position. In a word, this research would make this paper valuable to the scientific community, underline the importance of these neglected or rejected problems in the application of ultrasound bath, and persuade the readers to give some more thoughts to these issues.

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Main Subjects


[1] Chemat F., Zill-e H., Khan M.K., Applications of Ultrasound in Food Technology: Processing, Preservation and Extraction, Ultrasonics Sonochemistry, 18: 813-835(2011).
[3] Kouchakzadeh A., Ghobadi P., Modeling of Ultrasonic-Convective Drying of Pistachios, Agricultural Engineering International: CIGR Journal, 14: 144-149 (2012).
[4] Ghosh V., Saranya S., Mukherjee A., Chandrasekaran N., Cinnamon Oil Nanoemulsion Formulation by Ultrasonic Emulsification: Investigation of Its Bactericidal Activity, Nanoscience and Nanotechnology, 13: 114-122 (2013).
[5] Mason T.J., Some Neglected or Rejected Paths in Sonochemistry--a Very Personal View, Ultrasonics Sonochemistry, 25: 89-93 (2015).
[6] Juan Francisco G.M., Sun D.W., Ultrasound and Electric Fields as Novel Techniques for Assisting the Wine Ageing Process: The state-of-the-art Research, Trends in Food Science & Technology, 33: 40-53(2013).
[7] Dodds J., Espitalier F., Louisnard O., Grossier R., David R., Hassoun M., Baillon F., Gatumel C., Lyczko N., The Effect of Ultrasound on Crystallisation-Precipitation Processes: Some Examples and a New Segregation Model, Particle & Particle Systems Characterization, 24: 18-28 (2007).
[9] Mason T.J., Lorimer J.P., Bates D.M., Quantifying Sonochemistry: Casting Some Light on a "Black Art", Ultrasonics 30: 40-42 (1992).
[11] Weber M.E., Chon W.Y., Distribution of Ultrasonic Cavitation Intensities in a Liquid System, The Canadian Journal of Chemical Engineering, 45: 238-240(1967).
[12] Sivakumar M., Pandit A.B., Ultrasound Enhanced Degradation of Rhodamine B: Optimization with Power Density, Ultrasonics Sonochemistry, 8: 233-240 (2001).
[13] Kikuchi T., Uchida T., Calorimetric Method for Measuring High Ultrasonic Power Uing Distilled Water as Heating Material- Effects of Water Bath Material and Structure, Proceedings of Symposium on Ultrasonic Electronics, 30: 31-32 (2009).
[14] Feng R., Li H.M., Sonochemistry and Application, Hefei: Anhui Press of Science and Technology, (1992).
[15] Kimura T., Sakamoto T., Leveque J.M., Sohmiya H., Fujita M., Ikeda S., Ando T., Standardization of Ultrasonic Power for Sonochemical Reaction, Ultrasonics Sonochemistry, 3: S157-S161(1996).
[16] Uchida T., Kikuchi T., Effect of Heat Generation of Ultrasound Transducer on Ultrasonic Power Measured by Calorimetric Method, Japanese Journal of Applied Physics, 52: 07HC01(2013).
[17] Uchida T., Kikuchi T., Ultrasonic Power Measurement by Calotimetric Method by Using Water an Heating Material- Comparison with Radiation Balance Method, Proceedings of Symposium on Ultrasonic Electronics, 33: 55-56 (2012).
[18] Ratoarinoro., Contamine F., Wilhelm A.M., Berlan J., Delmas H., Power Measurement in Sonochemistry, Ultrasonics Sonochemistry, 2: S43-S47(1995).
[19] Saez V., Frias-Ferrer A., Iniesta J., Gonzalez-Garcia J., Aldaz A., Riera E., Characterization of a 20 kHz Sonoreactor. Part II: Analysis of Chemical Effects by Classical and Electrochemical Methods, Ultrasonics Sonochemistry, 12: 67-72 (2005).
[20] Morison K.R., Hutchinson C.A., Limitations of the Weissler Reaction as a Model Reaction for Measuring the Efficiency of Hydrodynamic Cavitation, Ultrasonics Sonochemistry, 16: 176-183 (2009).
[21] Shaw A., Haar G.t., Requirements for Measurement Standards in High Intensity Focused Ultrasound (HIFU) Fields, National Physical Laboratory, (2006).
[22] Zhang Q.A., Shen H., Fan X.H., Shen Y., Wang X., Song Y., Changes of Gallic Acid Mediated by Ultrasound in a Model Extraction Solution, Ultrasonics Sonochemistry, 22: 149-154(2015).
[23] Vinatoru M., An Overview of the Ultrasonically Assisted Extraction of Bioactive Principles from Herbs, Ultrasonics Sonochemistry, 8: 303-313 (2001).
[24] Koda S., Kimura T., Kondo T., Mitome H., A Standard Method to Calibrate Sonochemical Efficiency of an Individual Reaction System, Ultrasonics Sonochemistry, 10: 149-156 (2003).
[25] Beckett M.A., Hua I., Impact of Ultrasonic Frequency on Aqueous Sonoluminescence and Sonochemistry, Journal of Chemical Physics, 105: 3796-3802(2001).
[26] Yao J.J., Gao N.Y., Li C., Li L., Xu B., Mechanism and Kinetics of Parathion Degradation under Ultrasonic Irradiation, Journal of Hazardous Materials, 175: 138-145 (2010).
[27] Soria A.C., Villamiel M., Effect of Ultrasound on the Technological Properties and Bioactivity of Food: a Review, Trends in Food Science & Technology, 21: 323-331 (2010).
[29] Li Y.C., Yin Q.G., “Ultrasonic Chemistry”, BeiJing: Science Press, (1995).
[30] Mason T.J., Lorimer J.P., Bates D.M., Zhao Y., Dosimetry in Sonochemistry: the Use of Aqueous Terephthalate Ion as a Fluorescence Monitor, Ultrasonics Sonochemistry, 1: S91-S95 (1994).
[31] Kanthale P.M., Gogate P.R., Pandit A.B., Marie Wilhelm A., Mapping of an Ultrasonic Horn: Link Primary and Secondary Effects of Ultrasound, Ultrasonics sonochemistry, 10: 331-335 (2003).
[32] Niemczewski B., A Comparison of Ultrasonic Cavitation Intensity in Liquids, Ultrasonics, 18: 107-110 (1980).
[33] Weber M.E., Chon W.Y., Distribution of Ultrasonic Cavitation Intensities in a Liquid System, The Canadian Journal of Chenrical Engineering, 45: 238-240 (1967).