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The effect of synthesis gas composition on the performance of Ni-based solid oxide fuel cells
Journal article   Open access   Peer reviewed

The effect of synthesis gas composition on the performance of Ni-based solid oxide fuel cells

M. Drewery, E. Kennedy, F. Alenazey, B. Dlugogorski and M. Stockenhuber
Chemical Engineering Research and Design, Vol.101, pp.22-26
2015
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Abstract

An increased interest in using hydrocarbons in solid oxide fuel cells for the production of power has led to research into operation on synthesis (syn) gas, a mixture of hydrogen and carbon monoxide. Hydrocarbons are typically reformed, either internally or in an external reformer prior to the fuel cell, producing syngas with various H2:CO ratios depending on the hydrocarbon used. This paper examines the effect of varying the H2:CO ratio with respect to C1 to C4 steam reforming reactions and additionally a mixture containing a higher ratio of carbon monoxide. It was found that there was no significant relationship between cell performance and H2:CO ratio when a high feed rate was employed. For low flow rates, however, the high carbon monoxide concentration resulted in a significant decrease in cell performance. It was determined that this was caused by reversible carbon deposition as opposed to a decrease in carbon monoxide reactivity.

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Source: InCites

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Collaboration types
Domestic collaboration
International collaboration
Citation topics
5 Physics
5.77 Applied Physics
5.77.285 Solid Oxide Fuel Cell
Web Of Science research areas
Engineering, Chemical
ESI research areas
Chemistry
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