Zobrazeno 1 - 5
of 5
pro vyhledávání: '"Tobias W. Morris"'
Autor:
Jonathan P. Hopwood, David L. Wisman, Christopher D. Tempas, Steven L. Tait, Miao Wang, L. L. Kesmodel, Tobias W. Morris, Jacob W. Ciszek, Christopher G. Williams
Publikováno v:
Surface Science. 683:23-30
Hydrocarbon reactivity at surfaces has long been a topic of high interest for heterogeneous catalysis and is now gaining new importance for the development of surface nanostructures. To expand these structural libraries, molecules with larger functio
Autor:
Duy Le, Naseem Ud Din, Kenneth G. Caulton, David L. Wisman, Steven L. Tait, Tobias W. Morris, I. J. Huerfano, Alexander V. Polezhaev, Christopher D. Tempas, Alyssa C. Cabelof, Miao Wang, Talat S. Rahman
Publikováno v:
Chemistry – A European Journal. 25:5565-5573
Metal-ligand complexation at surfaces utilizing redox-active ligands has been demonstrated to produce uniform single-site metals centers in regular coordination networks. Two key design considerations are the electron storage capacity of the ligand a
Autor:
Christopher D. Tempas, David L. Wisman, Naseem Ud Din, Kenneth G. Caulton, Alexander V. Polezhaev, Duy Le, Tobias W. Morris, Steven L. Tait, Talat S. Rahman, Christopher G. Williams, Miao Wang
Publikováno v:
Chemical Science. 9:1674-1685
Metal-organic coordination networks at surfaces, formed by on-surface redox assembly, are of interest for designing specific and selective chemical function at surfaces for heterogeneous catalysts and other applications. The chemical reactivity of si
Publikováno v:
Surface Science. 712:121888
The creation of single-site metal centers (SSMCs) through the formation of metal-organic coordination networks is an area of interest due to the proven ability of SSMCs to improve selectivity for heterogeneous catalysts. In order to better understand
Autor:
Tobias W. Morris, Jihwan Choi, Colleen Q. Trainor, David L. Wisman, Christopher D. Tempas, Seyong Kim, Steven L. Tait, Dongwhan Lee
Publikováno v:
Langmuir : the ACS journal of surfaces and colloids. 35(19)
Surface-assisted molecular self-assembly is a powerful strategy for forming molecular-scale architectures on surfaces. These molecular self-assemblies have potential applications in organic electronics, catalysis, photovoltaics, and many other techno