Acceleration of mass transfer in methane-producing loop reactors

Gas bubbles entrapped in methanogenic granules subjected to hydrostatic pressure oscillations during recirculation in loop reactors will induce intraparticle liquid flows, and thereby enhance mass transfer in excess of diffusion. This 'breathing particle' concept was clearly demonstrated i...

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Veröffentlicht in:Antonie van Leeuwenhoek 1995-01, Vol.67 (1), p.125-130
Hauptverfasser: Van den Heuvel, J C, Vredenbregt, L H, Portegies-Zwart, I, Ottengraf, S P
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container_issue 1
container_start_page 125
container_title Antonie van Leeuwenhoek
container_volume 67
creator Van den Heuvel, J C
Vredenbregt, L H
Portegies-Zwart, I
Ottengraf, S P
description Gas bubbles entrapped in methanogenic granules subjected to hydrostatic pressure oscillations during recirculation in loop reactors will induce intraparticle liquid flows, and thereby enhance mass transfer in excess of diffusion. This 'breathing particle' concept was clearly demonstrated in a well defined inorganic model system. The experimental results could be described satisfactory with a structured mathematical model, while a 30% improvement is predicted for methanogenic loop reactors as compared to constant pressure systems. It is concluded that acceleration of mass transfer in gas-producing systems offers challenging perspectives for both heterogeneous catalysis and biological fermentations.
doi_str_mv 10.1007/BF00872200
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subjects Biodegradation, Environmental
Euryarchaeota - metabolism
Hydrostatic Pressure
Industrial Microbiology
Industrial Waste
Models, Theoretical
title Acceleration of mass transfer in methane-producing loop reactors
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