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  4. Chemical Reactions at Freely Ascending Single Bubbles

Chemical Reactions at Freely Ascending Single Bubbles

Publikationstyp
Book Part
Date Issued
2021-07-30
Sprache
English
Author(s)
Böhme, Lutz
Merker, David
Strassl, Florian
Herres-Pawlis, Sonja
Oßberger, Martin
Klüfers, Peter
Schindler, Siegfried
Guhathakurta, Jajnabalkya
Grottke, Daniel
Simon, Sven
Rinke, Günter
Hlawitschka, Mark
Kameke, Alexandra von
Kexel, Felix
Schlüter, Michael
Gast, Sebastian
Tuttlies, Ute
Nieken, Ulrich
Hillenbrand, Dennis
Marschall, Holger
Weiner, Andre
Bothe, Dieter
Kraume, Matthias
Institut
Mehrphasenströmungen V-5
TORE-URI
http://hdl.handle.net/11420/10124
First published in
Fluid mechanics and its applications
Number in series
128
Start Page
545
End Page
581
Citation
in: Reactive Bubbly Flows. Fluid Mechanics and Its Applications 128: 545-581 (2021)
Publisher DOI
10.1007/978-3-030-72361-3_22
Scopus ID
2-s2.0-85111834090
Publisher
Springer
ISBN
978-3-030-72361-3
978-3-030-72360-6
ISBN of container
978-3-030-72361-3
978-3-030-72360-6
A joint approach of chemists, mathematicians and engineers in the field of chemical reaction enhanced gas-liquid mass transfer on single bubbles is presented. New chemical systems are developed for homogenous chemical reactions in the liquid. By applying different metal-complex based reaction systems with diverse ligands in different reaction media (water and organic solvents) a broad range of reaction kinetics is available. As one measure, the bubble size change over time is investigated. The shrinking of the bubble allows the determination of overall mass transfer rates under diverse conditions. Numerous groups investigated the wake region of the bubble. The influence of the mixing behavior in this region on the mass transfer in general but also, e.g., on competitive consecutive chemical reactions is visualized. For a deeper understanding of the effect of surfactants on mass transfer, simulations are performed providing a high temporal and spatial resolution of the flow and concentration field near the bubbles surface. Furthermore, a compartment model for the description of the mass transfer near a single bubble is developed which allows the calculation of competitive consecutive chemical reactions with reasonable numerical effort.
DDC Class
540: Chemistry
Funding(s)
Experimentelle Untersuchung zum Einfluss der Grenzschichtdynamik in Blasenströmungen auf Stofftransport und chemische Reaktionen
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