J.A.Z. Pieterse
Energy Research Centre of the Netherlands
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Featured researches published by J.A.Z. Pieterse.
Applied Catalysis B-environmental | 2003
J.A.Z. Pieterse; R.W.C. van den Brink; S. Booneveld; F.A. de Bruijn
Abstract Selective catalytic reduction of NO with CH4 was studied over ZSM-5, MOR, FER and BEA zeolite-based cobalt (Co) and palladium (Pd) catalysts in the presence of oxygen and water. As compared to other catalytic systems reported in literature for CH4-SCR in the presence of water, zeolite supported Co-Pd combination catalysts are very active and selective. The most active catalysts, based on MOR and ZSM-5, are characterised by well-dispersed Pd ions in the zeolite that activate methane. Wet ion exchange is a good method to achieve high dispersion of Pd provided that it is carried out in a competitive manner. The presence of cobalt (Co3O4, Co-oxo ions) boosts SCR activity by oxidising NO to NO2. The activity of the zeolite-based Co-Pd combination catalysts decreases with prolonged times on stream. The severity of the deactivation was found to be different for different zeolite topologies. The characterisation and evaluation of freshly calcined catalysts and spent catalysts show two things that occur during reaction: (1) zeolite solvated metal cations disappear in favour of (inactive) metal oxides and presumably larger metal entities, i.e. loss of dispersion; (2) loss of crystallinity affiliated with steam-dealumination and the concomitant formation of extra-framework aluminium (EFAL) in the presence of water. Both phenomena strongly depend on the (reaction) temperature. The deactivation of Co-Pd-zeolite resembles the deactivation of Pd-zeolite. Hence, future research could encompass the stabilisation of Pd (cations) in the zeolite pores by exploring additives other than cobalt. For this, detailed understanding on the siting of Pd in zeolites is important.
Studies in Surface Science and Catalysis | 2005
J.A.Z. Pieterse; S. Booneveld; Guido Mul; R.W.C. van den Brink
Oxygen, water and nitrogen oxide (NO) inhibit N 2 O decomposition over noble metal catalysts. The inhibiting effect of NO on N 2 O decomposition over zeolite supported noble metal catalysts can be (partly) eliminated by combining the noble metals with iron. In the presence of NO, the overall conversion of N 2 O over Fe-Ru-FER exceeds the sum of conversions over the monometallic analogues of the individual components. This synergistic effect gives superior N 2 O decomposition activity under realistic conditions, i.e. in the presence of water, O 2 and NO, at temperatures as low as 623 K. The role of oxygen in the synergistic effect is discussed.
Applied Catalysis B-environmental | 2004
J.A.Z. Pieterse; S. Booneveld; R.W.C. van den Brink
Journal of Membrane Science | 2010
Hui Li; Jan Wilco Dijkstra; J.A.Z. Pieterse; Jurriaan Boon; R.W. van den Brink; Daniel Jansen
Catalysis Communications | 2005
I. Melián-Cabrera; C. Mentruit; J.A.Z. Pieterse; R.W. van den Brink; G. Mul; Freek Kapteijn; Jacob A. Moulijn
Applied Catalysis B-environmental | 2002
J.A.Z. Pieterse; R.W.C. van den Brink; S. Booneveld; F.A. de Bruijn
Energy Procedia | 2011
Jan Wilco Dijkstra; J.A.Z. Pieterse; Hui Li; Jurriaan Boon; Yvonne C. van Delft; Gunabalan Raju; Gerard Peppink; Ruud W. van den Brink; Daniel Jansen
Catalysis Letters | 2005
J.A.Z. Pieterse; Guido Mul; I. Melián-Cabrera; R.W.C. van den Brink
Catalysis Today | 2010
J.A.Z. Pieterse; Jurriaan Boon; Y.C. van Delft; Jan Wilco Dijkstra; R.W.C. van den Brink
Journal of Membrane Science | 2011
Hui Li; J.A.Z. Pieterse; Jan Wilco Dijkstra; Wim G. Haije; Hengyong Xu; C. Bao; R.W. van den Brink; Daniel Jansen