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CHANGE OF BACTERIAL AMOUNT DURING SONICATION

Iryna Koval, Liliya Shevchuk
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Abstract: 
The dynamics of the change of microbial amounts in water medium in sonication time was determined. Gases bubbling of different nature into the reaction medium for water disinfection from bacteria under cavitation conditions is proposed in the article. The rate constants of destruction of Bacillus cereus bacteria type in the gas atmosphere are expected. It was determined that the processes microorganisms’ destruction at bubbling of all investigated gases are described by the kinetic equations of the first order.
References: 

[1] Dehghani M. H., 2005, Effectiveness of ultrasound on
the destruction of E. coli, American Journal of
Environmental Sciences, 1 (3), 187–189.
[2] Koval I., Shevchuk L., Starchevskyy V., 2011, Chemical
Engineering Transactions, 24 (3), 1315–1320.
[3] Ashokkumar M., Lee J., Kentish S. and Grieser F., 2007,
Bubbles in an acoustic field: an overview, Ultrasonics
Sonochemistry, 14 (4), 470–475.
[4] Koval I. Z., Starchevskyy V. L. at al. 2010, Dependence
of microbial cells disappearance rate of their
conсentration. 12th Meeting of the European Society of
Sonochemistry, Chania, Crete, Greece, May 30 – June
03, 2010.
[5] Koval I., 2016, Supplemented series of gas/US-action on
the Bacillus cereus destruction. XVIII Scientific youth
conference "Problems and achievements of the modern
chemistry", Odessa, Ukraine, May 17-20, 2016.
[6] Stamper D. M., Holm E. R., Brizzolara R. A., 2008,
J. Environ. Eng. Sci. 7 (2), 139–146.
[7] Марчук Л. В., Прокопенко Г. В. та ін., 2011, Влияние
ультразвуковой кавитации на жизнеспособность
микроорганизмов. Наукові праці ДонНТУ, 22 (195),
195–206.
[8] Генератор кавитации: SU1168300A, 4В06В1/16 /
В. М. Ивченко, М. Г. Руденко. – № 3612392/18-28;
заявл. 01.07.1983; опубл. 23.07.1985.
[9] Вихревой акустический генератор: SU1710141A1
СРСР, В 06В1/20 / Ю. А. Погосов, А. К. Лопатков. –
№ 4803778/28; заявл. 01.02.1990; опубл. 07.02.1992.
[10] Mason T., 1996, Advances in Sonochemistry. London.:
Copyright by JAI PRESS INC., 4, 285.
[11] Mason T., 2002, Applied sonochemistry: uses of power
ultrasound in chemistry. Coventry university: Wiley-
VCH Verlag GmbH&Co.KGaA, 293.
[12] Вітенько Т. М., 2009, Гідродинамічна кавітація у
масообмінних, хімічних і біологічних процесах: моног-
рафія. – Тернопіль: Вид-во ТДТУ ім. І. Пулюя, 224 с.
[13] Kidak R., A.-M. Wilhelm et al., 2009, Effect of process
parameters on the energy requirement in ultrasonical
treatment of waste sludge, Chem. Eng. and Process. 48,
№ 8, 1346–1352.
[14] Koval I., Falyk T., 2016, Ultrasonic treatment of cells of
investigated morphological and physiological features,
Problems of protection and rational exploitation, 92–95.
[15] Starchevskii V. L., Kislenko V. M., Maksymiv N. L.,
Koval I. Z., 2009, Variation kinetics of chemical and bacterial
contaminations of water containing yeast cells, Journal of
Water Chemistry and Technology, 31(4), 269–273.