Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts

Methane steam reforming is still the most economical route for hydrogen production. It generates hydrogen for refining processes, food industry, and recently for fuel cell applications. Recent studies focused on the application of structured catalysts in mass transfer limited-reactions indicated tha...

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Main Authors: V. Palma, A. Ricca, E. Meloni, M. Miccio, M. Martino, P. Ciambelli
Format: Article
Language:English
Published: AIDIC Servizi S.r.l. 2015-05-01
Series:Chemical Engineering Transactions
Online Access:https://www.cetjournal.it/index.php/cet/article/view/4921
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spelling doaj-83dc68b81f6d46e3a07243d5016b1c942021-02-20T21:13:30ZengAIDIC Servizi S.r.l.Chemical Engineering Transactions2283-92162015-05-014310.3303/CET1543154Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic CatalystsV. PalmaA. RiccaE. MeloniM. MiccioM. MartinoP. CiambelliMethane steam reforming is still the most economical route for hydrogen production. It generates hydrogen for refining processes, food industry, and recently for fuel cell applications. Recent studies focused on the application of structured catalysts in mass transfer limited-reactions indicated that there are potentially several advantages for monolithic reactor as compared to the packed reactors such as, especially in terms of lower pressure drop and better mass and heat transfer performances. So highly thermal conductive honeycomb structures were proposed as catalyst supports to enhance the heat and material transfer properties of the final catalysts. This work focuses on the experimental testing of the methane steam reforming reaction performed on a Ni-loaded SiC monolith packaged into an externally heated tube. In particular, the two flow configurations of Flow Through and Wall Flow were investigated and compared, the effect of a washcoat deposition was evaluated. The experimental tests indicate that the Wall Flow configuration may overcome the fixed-bed reactor problems, yielding a more uniform temperature distribution and more effective mass transport.https://www.cetjournal.it/index.php/cet/article/view/4921
collection DOAJ
language English
format Article
sources DOAJ
author V. Palma
A. Ricca
E. Meloni
M. Miccio
M. Martino
P. Ciambelli
spellingShingle V. Palma
A. Ricca
E. Meloni
M. Miccio
M. Martino
P. Ciambelli
Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts
Chemical Engineering Transactions
author_facet V. Palma
A. Ricca
E. Meloni
M. Miccio
M. Martino
P. Ciambelli
author_sort V. Palma
title Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts
title_short Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts
title_full Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts
title_fullStr Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts
title_full_unstemmed Methane Steam Reforming Intensification: Experimental and Numerical Investigations on Monolithic Catalysts
title_sort methane steam reforming intensification: experimental and numerical investigations on monolithic catalysts
publisher AIDIC Servizi S.r.l.
series Chemical Engineering Transactions
issn 2283-9216
publishDate 2015-05-01
description Methane steam reforming is still the most economical route for hydrogen production. It generates hydrogen for refining processes, food industry, and recently for fuel cell applications. Recent studies focused on the application of structured catalysts in mass transfer limited-reactions indicated that there are potentially several advantages for monolithic reactor as compared to the packed reactors such as, especially in terms of lower pressure drop and better mass and heat transfer performances. So highly thermal conductive honeycomb structures were proposed as catalyst supports to enhance the heat and material transfer properties of the final catalysts. This work focuses on the experimental testing of the methane steam reforming reaction performed on a Ni-loaded SiC monolith packaged into an externally heated tube. In particular, the two flow configurations of Flow Through and Wall Flow were investigated and compared, the effect of a washcoat deposition was evaluated. The experimental tests indicate that the Wall Flow configuration may overcome the fixed-bed reactor problems, yielding a more uniform temperature distribution and more effective mass transport.
url https://www.cetjournal.it/index.php/cet/article/view/4921
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