Microstructured catalytic hollow fiber reactor for methane steam reforming

Gouveia Gil, Ana, Wu, Zhentao, Chadwick, David and Li, K. (2015). Microstructured catalytic hollow fiber reactor for methane steam reforming. Industrial and Engineering Chemistry Research, 54 (21), pp. 5563-5571.


Microstructured alumina hollow fibers, which contain a plurality of radial microchannels with significant openings on the inner surface, have been fabricated in this study and used to develop an efficient catalytic hollow fiber reactor. Apart from low mass-transfer resistance, a unique structure of this type facilitates the incorporation of Ni-based catalysts, which can be with or without the aged secondary support, SBA-15. In contrast to a fixed bed reactor, the catalytic hollow fiber reactor shows similar methane conversion, with a gas hourly space velocity that is approximately 6.5 times higher, a significantly greater CO2 selectivity, and better productivity rates. These results demonstrate the advantages of dispersing the catalyst inside the microstructured hollow fiber as well as the potential to reduce the required quantity of catalyst.

Publication DOI: https://doi.org/10.1021/ie504953j
Divisions: Engineering & Applied Sciences > Aston Institute of Materials Research (AIMR)
Engineering & Applied Sciences
Engineering & Applied Sciences > European Bioenergy Research Institute (EBRI)
Additional Information: This document is the Accepted Manuscript version of a Published Work that appeared in final form in I&EC Research, copyright © American Chemical Society after peer review and technical editing by the publisher. To access the final edited and published work see https://pubs.acs.org/doi/10.1021/ie504953j
Uncontrolled Keywords: Chemical Engineering(all),Chemistry(all),Industrial and Manufacturing Engineering
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Related URLs: http://www.scop ... tnerID=8YFLogxK (Scopus URL)
https://pubs.ac ... .1021/ie504953j (Publisher URL)
Published Date: 2015-06-03
Authors: Gouveia Gil, Ana
Wu, Zhentao ( 0000-0002-4934-8046)
Chadwick, David
Li, K.



Version: Accepted Version

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