Effect of Molybdenum on the Sulfur-Tolerance of Cerium–Cobalt Mixed Oxide Water–Gas Shift Catalysts

As traditional sources of energy become depleted, significant research interest has gone into conversion of biomass into renewable fuels. Biomass-derived synthesis gas typically contains concentrations ranging from ~30 to 600 ppm H 2 S. H 2 S is a catalyst poison which adversely impacts downstream p...

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Veröffentlicht in:Topics in catalysis 2013-12, Vol.56 (18-20), p.1892-1898
Hauptverfasser: Roberge, Timothy M., Blavo, Selasi O., Holt, Chris, Matter, Paul H., Kuhn, John N.
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Sprache:eng
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Zusammenfassung:As traditional sources of energy become depleted, significant research interest has gone into conversion of biomass into renewable fuels. Biomass-derived synthesis gas typically contains concentrations ranging from ~30 to 600 ppm H 2 S. H 2 S is a catalyst poison which adversely impacts downstream processing of hydrogen for gas-to-liquid plants and the deactivation of water–gas shift catalysts by sulfur is typical. Novel catalysts are needed to remain active in the presence of sulfur in order to boost efficiency and mitigate costs. Previous studies have shown molybdenum to be active in concentrations of sulfur >300 ppm. Cobalt has been shown to be active as a spinel in concentrations of sulfur
ISSN:1022-5528
1572-9028
DOI:10.1007/s11244-013-0125-z