$Separation of motions and vibrational separation of fractions for biocide brass$
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Separation of motions and vibrational separation of fractions for biocide brass

The mathematical method of separation of motions represents the effect of fast high-frequency oscillations by an effective averaged force or potential. Ultrasound acoustic vibrations are an example of such rapid oscillations leading to cavitation in water due to the gas phase formation (bubbles). Ul...

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Autores principales:	Mirna Sabbouh, Anna Nikitina, Elizaveta Rogacheva, Lyudmila Kraeva, Sviatlana A. Ulasevich, Ekaterina V. Skorb, Michael Nosonovsky
Formato:	article
Lenguaje:	EN
Publicado:	Elsevier 2021
Materias:	Ultrasonic treatment Sonication Sonochemistry Acoustic cavitation Brass Biocide activity Chemistry QD1-999 Acoustics. Sound QC221-246
Acceso en línea:	https://doaj.org/article/0bc542cfaf7d41089c691e270eddfad4
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id	oai:doaj.org-article:0bc542cfaf7d41089c691e270eddfad4
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spelling	oai:doaj.org-article:0bc542cfaf7d41089c691e270eddfad42021-12-02T04:59:49ZSeparation of motions and vibrational separation of fractions for biocide brass1350-417710.1016/j.ultsonch.2021.105817https://doaj.org/article/0bc542cfaf7d41089c691e270eddfad42021-12-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S135041772100359Xhttps://doaj.org/toc/1350-4177The mathematical method of separation of motions represents the effect of fast high-frequency oscillations by an effective averaged force or potential. Ultrasound acoustic vibrations are an example of such rapid oscillations leading to cavitation in water due to the gas phase formation (bubbles). Ultrasound cavitation is used to treat the surface of brass microparticles submerged in water. The formation of bubbles and their collapse triggers the modification of surface roughness and chemical composition. Consequently, the suspension separates into various fractions related to demonstrating biocide properties. While the exact mechanism of this process is complex, it can be explained phenomenologically by using the Onsager reciprocal relations for coupling the copper ion diffusion with the gas phase separation in water as a result of the action of the effective average vibrational force.Mirna SabbouhAnna NikitinaElizaveta RogachevaLyudmila KraevaSviatlana A. UlasevichEkaterina V. SkorbMichael NosonovskyElsevierarticleUltrasonic treatmentSonicationSonochemistryAcoustic cavitationBrassBiocide activityChemistryQD1-999Acoustics. SoundQC221-246ENUltrasonics Sonochemistry, Vol 80, Iss , Pp 105817- (2021)
institution	DOAJ
collection	DOAJ
language	EN
topic	Ultrasonic treatment Sonication Sonochemistry Acoustic cavitation Brass Biocide activity Chemistry QD1-999 Acoustics. Sound QC221-246
spellingShingle	Ultrasonic treatment Sonication Sonochemistry Acoustic cavitation Brass Biocide activity Chemistry QD1-999 Acoustics. Sound QC221-246 Mirna Sabbouh Anna Nikitina Elizaveta Rogacheva Lyudmila Kraeva Sviatlana A. Ulasevich Ekaterina V. Skorb Michael Nosonovsky Separation of motions and vibrational separation of fractions for biocide brass
description	The mathematical method of separation of motions represents the effect of fast high-frequency oscillations by an effective averaged force or potential. Ultrasound acoustic vibrations are an example of such rapid oscillations leading to cavitation in water due to the gas phase formation (bubbles). Ultrasound cavitation is used to treat the surface of brass microparticles submerged in water. The formation of bubbles and their collapse triggers the modification of surface roughness and chemical composition. Consequently, the suspension separates into various fractions related to demonstrating biocide properties. While the exact mechanism of this process is complex, it can be explained phenomenologically by using the Onsager reciprocal relations for coupling the copper ion diffusion with the gas phase separation in water as a result of the action of the effective average vibrational force.
format	article
author	Mirna Sabbouh Anna Nikitina Elizaveta Rogacheva Lyudmila Kraeva Sviatlana A. Ulasevich Ekaterina V. Skorb Michael Nosonovsky
author_facet	Mirna Sabbouh Anna Nikitina Elizaveta Rogacheva Lyudmila Kraeva Sviatlana A. Ulasevich Ekaterina V. Skorb Michael Nosonovsky
author_sort	Mirna Sabbouh
title	Separation of motions and vibrational separation of fractions for biocide brass
title_short	Separation of motions and vibrational separation of fractions for biocide brass
title_full	Separation of motions and vibrational separation of fractions for biocide brass
title_fullStr	Separation of motions and vibrational separation of fractions for biocide brass
title_full_unstemmed	Separation of motions and vibrational separation of fractions for biocide brass
title_sort	separation of motions and vibrational separation of fractions for biocide brass
publisher	Elsevier
publishDate	2021
url	https://doaj.org/article/0bc542cfaf7d41089c691e270eddfad4
work_keys_str_mv	AT mirnasabbouh separationofmotionsandvibrationalseparationoffractionsforbiocidebrass AT annanikitina separationofmotionsandvibrationalseparationoffractionsforbiocidebrass AT elizavetarogacheva separationofmotionsandvibrationalseparationoffractionsforbiocidebrass AT lyudmilakraeva separationofmotionsandvibrationalseparationoffractionsforbiocidebrass AT sviatlanaaulasevich separationofmotionsandvibrationalseparationoffractionsforbiocidebrass AT ekaterinavskorb separationofmotionsandvibrationalseparationoffractionsforbiocidebrass AT michaelnosonovsky separationofmotionsandvibrationalseparationoffractionsforbiocidebrass
_version_	1718400872906489856

Separation of motions and vibrational separation of fractions for biocide brass

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