Effect of lanthanum on the properties of copper, cerium and zirconium catalysts for preferential oxidation of carbon monoxide

Catalysts based on copper and cerium oxides are active and selective in preferential oxidation of carbon monoxide (CO-PROX) and then considered as promising for obtaining hydrogen with acceptable purity for proton exchange membrane fuel cell. However, the low specific surface area of cerium oxide le...

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Veröffentlicht in:Catalysis today 2014-06, Vol.228, p.40-50
Hauptverfasser: MOURA, Jadson Santos, DA SILVA LIMA FONSECA, Juliana, BION, Nicolas, EPRON, Florence, DE FREITAS SILVA, Tatiana, GUIMARAES MACIEL, Cristhiane, ASSAF, José Mansur, DO CARMO RANGEL, Maria
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container_title Catalysis today
container_volume 228
creator MOURA, Jadson Santos
DA SILVA LIMA FONSECA, Juliana
BION, Nicolas
EPRON, Florence
DE FREITAS SILVA, Tatiana
GUIMARAES MACIEL, Cristhiane
ASSAF, José Mansur
DO CARMO RANGEL, Maria
description Catalysts based on copper and cerium oxides are active and selective in preferential oxidation of carbon monoxide (CO-PROX) and then considered as promising for obtaining hydrogen with acceptable purity for proton exchange membrane fuel cell. However, the low specific surface area of cerium oxide leads to the production of large copper particles, which do not contribute to the catalyst activity. Aiming to find more efficient catalysts for this reaction, the effect of lanthanum on the properties of catalysts based on copper, cerium and zirconium was studied in this work. The samples (CuO–Ce1−xLaxO2−x/2 and CuO–Ce0.5−x/2Zr0.5−x/2LaxO2−x/2; x = 0.0; 0.05; 0.10) were prepared by precipitation in alkaline medium and heated under air flow at 450 °C. They were characterized by ICP-OES, Fourier transform infrared spectroscopy, X-ray diffraction, Raman spectroscopy, specific surface area and porosity measurements, temperature programmed reduction, oxygen storage capacity measurements and isotopic exchange with oxygen-18. The catalysts were evaluated in CO-PROX from 150 to 300 °C. The zirconium-containing samples presented tetragonal structure while the zirconium-free ones showed face-centered cubic structure. Lanthanum and copper were incorporated into ceria lattice, while zirconia and ceria formed solid solutions. Zirconium increases the specific surface area by decreasing the particle crystal size and also created mesoporosity. Lanthanum decreased the interaction between copper and ceria while zirconium did the opposite. On the other hand, lanthanum increased the oxygen storage capacity and oxygen mobility whereas zirconium decreased it. Lanthanum did not improve the activity and selectivity of the catalysts in CO-PROX. Moreover, zirconium increased the activity, by increasing the interaction between cerium and copper and then increasing the interface where the reaction occurs. All catalysts were resistant against deactivation by water and the activity and selectivity could be recovered after poisoning by carbon dioxide.
doi_str_mv 10.1016/j.cattod.2013.11.016
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However, the low specific surface area of cerium oxide leads to the production of large copper particles, which do not contribute to the catalyst activity. Aiming to find more efficient catalysts for this reaction, the effect of lanthanum on the properties of catalysts based on copper, cerium and zirconium was studied in this work. The samples (CuO–Ce1−xLaxO2−x/2 and CuO–Ce0.5−x/2Zr0.5−x/2LaxO2−x/2; x = 0.0; 0.05; 0.10) were prepared by precipitation in alkaline medium and heated under air flow at 450 °C. They were characterized by ICP-OES, Fourier transform infrared spectroscopy, X-ray diffraction, Raman spectroscopy, specific surface area and porosity measurements, temperature programmed reduction, oxygen storage capacity measurements and isotopic exchange with oxygen-18. The catalysts were evaluated in CO-PROX from 150 to 300 °C. The zirconium-containing samples presented tetragonal structure while the zirconium-free ones showed face-centered cubic structure. Lanthanum and copper were incorporated into ceria lattice, while zirconia and ceria formed solid solutions. Zirconium increases the specific surface area by decreasing the particle crystal size and also created mesoporosity. Lanthanum decreased the interaction between copper and ceria while zirconium did the opposite. On the other hand, lanthanum increased the oxygen storage capacity and oxygen mobility whereas zirconium decreased it. Lanthanum did not improve the activity and selectivity of the catalysts in CO-PROX. Moreover, zirconium increased the activity, by increasing the interaction between cerium and copper and then increasing the interface where the reaction occurs. 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However, the low specific surface area of cerium oxide leads to the production of large copper particles, which do not contribute to the catalyst activity. Aiming to find more efficient catalysts for this reaction, the effect of lanthanum on the properties of catalysts based on copper, cerium and zirconium was studied in this work. The samples (CuO–Ce1−xLaxO2−x/2 and CuO–Ce0.5−x/2Zr0.5−x/2LaxO2−x/2; x = 0.0; 0.05; 0.10) were prepared by precipitation in alkaline medium and heated under air flow at 450 °C. They were characterized by ICP-OES, Fourier transform infrared spectroscopy, X-ray diffraction, Raman spectroscopy, specific surface area and porosity measurements, temperature programmed reduction, oxygen storage capacity measurements and isotopic exchange with oxygen-18. The catalysts were evaluated in CO-PROX from 150 to 300 °C. The zirconium-containing samples presented tetragonal structure while the zirconium-free ones showed face-centered cubic structure. Lanthanum and copper were incorporated into ceria lattice, while zirconia and ceria formed solid solutions. Zirconium increases the specific surface area by decreasing the particle crystal size and also created mesoporosity. Lanthanum decreased the interaction between copper and ceria while zirconium did the opposite. On the other hand, lanthanum increased the oxygen storage capacity and oxygen mobility whereas zirconium decreased it. Lanthanum did not improve the activity and selectivity of the catalysts in CO-PROX. Moreover, zirconium increased the activity, by increasing the interaction between cerium and copper and then increasing the interface where the reaction occurs. 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However, the low specific surface area of cerium oxide leads to the production of large copper particles, which do not contribute to the catalyst activity. Aiming to find more efficient catalysts for this reaction, the effect of lanthanum on the properties of catalysts based on copper, cerium and zirconium was studied in this work. The samples (CuO–Ce1−xLaxO2−x/2 and CuO–Ce0.5−x/2Zr0.5−x/2LaxO2−x/2; x = 0.0; 0.05; 0.10) were prepared by precipitation in alkaline medium and heated under air flow at 450 °C. They were characterized by ICP-OES, Fourier transform infrared spectroscopy, X-ray diffraction, Raman spectroscopy, specific surface area and porosity measurements, temperature programmed reduction, oxygen storage capacity measurements and isotopic exchange with oxygen-18. The catalysts were evaluated in CO-PROX from 150 to 300 °C. The zirconium-containing samples presented tetragonal structure while the zirconium-free ones showed face-centered cubic structure. 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subjects Applied sciences
Catalysis
Chemical Sciences
Chemistry
Direct energy conversion and energy accumulation
Electrical engineering. Electrical power engineering
Electrical power engineering
Electrochemical conversion: primary and secondary batteries, fuel cells
Energy
Energy. Thermal use of fuels
Equipments for energy generation and conversion: thermal, electrical, mechanical energy, etc
Exact sciences and technology
Fuel cells
General and physical chemistry
Theory of reactions, general kinetics. Catalysis. Nomenclature, chemical documentation, computer chemistry
title Effect of lanthanum on the properties of copper, cerium and zirconium catalysts for preferential oxidation of carbon monoxide
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