Sulfate Promoted Zirconia as Promising Alkali-Resistant Support for Catalytic NOx Removal
Publication: Research › Poster – Annual report year: 2007
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Sulfate Promoted Zirconia as Promising Alkali-Resistant Support for Catalytic NOx Removal. / Due-Hansen, Johannes; Kustov, Arkadii; Christensen, Claus H.; Fehrmann, Rasmus.
2007. Poster session presented at 3rd International Conference on Green and Sustainable Chemistry, Delft, Netherlands.Publication: Research › Poster – Annual report year: 2007
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TY - CONF
T1 - Sulfate Promoted Zirconia as Promising Alkali-Resistant Support for Catalytic NOx Removal
A1 - Due-Hansen,Johannes
A1 - Kustov,Arkadii
A1 - Christensen,Claus H.
A1 - Fehrmann,Rasmus
AU - Due-Hansen,Johannes
AU - Kustov,Arkadii
AU - Christensen,Claus H.
AU - Fehrmann,Rasmus
PY - 2007
Y1 - 2007
N2 - The use of bio-fuels as alternatives to traditional fossil fuels has attracted much attention recent years since bio-fuels belong to a family of renewable types of energy sources and do not contribute to the green-house effect. Selective catalytic reduction (SCR) of NOx with ammonia as reductant is the most efficient method to eliminate NOx from flue gases in stationary sources. The traditional SCR catalyst suffers significant deactivation with time due to the presence of relative large amounts of potassium in bio-fuels. A possible solution to this problem is use of highly acidic supports, which would interact with potassium stronger than active metal species
AB - The use of bio-fuels as alternatives to traditional fossil fuels has attracted much attention recent years since bio-fuels belong to a family of renewable types of energy sources and do not contribute to the green-house effect. Selective catalytic reduction (SCR) of NOx with ammonia as reductant is the most efficient method to eliminate NOx from flue gases in stationary sources. The traditional SCR catalyst suffers significant deactivation with time due to the presence of relative large amounts of potassium in bio-fuels. A possible solution to this problem is use of highly acidic supports, which would interact with potassium stronger than active metal species
ER -