Paul Cobden

Mr. Paul Cobden

orcid

Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2015 in Chemical Engineering Science
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Journal Article
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JBJurriaan Boon
Jurriaan Boon
PCPaul Cobden
Paul Cobden
HDH.A.J. van Dijk
H.A.J. van Dijk
Martin Van Sint AnnalandMartin Van Sint Annaland
Martin Van Sint Annaland

1 February 2023 in Industrial Chemistry & Materials
Verified
Journal Article
Open access
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YLYangshuo Li
Yangshuo Li
FLFangfang Li
Fangfang Li
ALAatto Laaksonen
Aatto Laaksonen
CWChuan Wang
Chuan Wang
PCPaul Cobden
Paul Cobden
Xiaoyan JiXiaoyan Ji
Xiaoyan Ji
Evaluation for electrochemical CO2reduction to C1 with Ionic liquids.

1 May 2014 in Journal of Catalysis
Verified
Journal Article
Open access
ABAndrew M. Beale
Andrew M. Beale
EGEmma Gibson
Emma Gibson
MOMatthew G. O’bRien
Matthew G. O’bRien
SJSimon D.M. Jacques
Simon D.M. Jacques
RCRobert J. Cernik
Robert J. Cernik
BWBert Weckhuysen
Bert Weckhuysen

18 July 2000 in Journal of Molecular Catalysis A: Chemical
Verified
Journal Article
Closed access
PCPaul Cobden
Paul Cobden
CWC.A de Wolf
C.A de Wolf
MSM.YU Smirnov
M.YU Smirnov
AMA Makeev
A Makeev
BNB.E Nieuwenhuys
B.E Nieuwenhuys

1 June 2006 in Applied Catalysis A: General
Verified
Journal Article
Closed access
GGG. Grubert
G. Grubert
SKS. Kolf
S. Kolf
MBM. Baerns
M. Baerns
IVI. Vauthey
I. Vauthey
DFDavid Farrussseng
David Farrussseng
PCPaul Cobden
Paul Cobden

15 July 1997 in The Journal of Chemical Physics
Verified
Journal Article
Open access
AMA. G. Makeev
A. G. Makeev
NJN. M. H. Janssen
N. M. H. Janssen
PCPaul Cobden
Paul Cobden
MSM. M. Slinko
M. M. Slinko
BNB. E. Nieuwenhuys
B. E. Nieuwenhuys
Recent investigations with the photoemissionelectron microscope showed the formation of spatialpatterns (target patterns, spiral waves, disordered patterns) during the NO+H 2 reaction over a Rh(111) single crystalsurface. A five-variable mathematical model of the reaction-diffusion type has been developed to describe the experimental observations. A simplified version of this model was originally designed to explain the complex temporal behavior (e.g., oscillatory) found for the NO+H 2 reaction on Rh(111). The simulation results successfully reproduce the main experimental findings and explain the underlying reasons for spatialpattern formation. In addition, the numerical studies predict a variety of self-organization phenomena which should be experimentally verified.