People » William Kaden

Dr. Kaden received his B.S. in Chemistry from the State University of New York at Oswego and his Ph.D. in Analytical Chemistry from the University of Utah before working as an Alexander von Humboldt postdoctoral fellow in the Chemical-Physics department at the Fritz Haber Institute of the Max Planck Society. The Spring of 2015 will mark his first full-semester as a faculty member within the Physics Department at UCF.

My research focuses on the fundamental studies of model catalytic systems with an emphasis on utilizing recent technological advances to investigate a more flexible range of materials than typically afforded via conventional ultra-high-vacuum surface-science techniques. The two main effects that I am interested in exploring relate to changes in the nature of the support as a function of thickness, structure, and electronic properties and the ways by which various factors associated with conventional liquid-based catalyst preparation techniques may act to alter their resultant physical and chemical properties in ways that may be commonly neglected by more conventional model-catalyst research. This research will be performed within a state-of-the-art ultrahigh vacuum surface-science machine with capabilities for various photoemission techniques, ion scattering, electron diffraction, mass spectroscopy, and low-temperature scan-probe techniques. Future plans include the inclusion of an infrared reflection-absorption cell to allow for better comparisons with theory and the possibility for in situ pressure-dependent studies as well as collaborative efforts at various synchrotron facilities within the U.S.

Büchner, C, Lichtenstein, L, Stuckenholz, S, Heyde, M, Ringleb, F, Sterrer, M, Kaden, WE, Giordano, L, Pacchioni, G, Freund, H-J, “Adsorption of Au and Pd on Ruthenium-Supported Bilayer SIlica,” Journal of Physical Chemistry C 118 (36), 20959-20969 (2014)
Kaden, WE, Kunkel, WA, Roberts, FS, Kane, M, and Anderson, SL, “Thermal and Adsorbate Effects on the Activity and Morphology of Size-Selected Pdn/TiO2 Model Catalysts, “Thermal and Adsorbate Effects on the Activity and Morphology of Size-Selected Pdn/TiO2 Model Catalysts,” Surface Science621, 40-50 (2014)
Kaden, WE, Büchner, C, Lichtenstein, L, Stuckenholz, S, Ringleb, F, Heyde, F, Sterrer, M, Freund, H-J, Giordano, L, Pacchioni, G, Nelin, CJ, and Bagus, PS, “Understanding Surface Core-Level Shifts Using the Auger Parameter: A Study of Pd Atoms Adsorbed on Ultrathin SiO2 Films,” Physical Review B 89 (11), 115436-115443 (2014)
Kaden, WE, Kunkel, WA, Roberts, FS, Kane, M, and Anderson, SL, “CO Adsorption and Desorption on Size-Selected Pdn/TiO2(110) Model Catalysts: Size Dependence of Binding Sites and Energies, and Support Mediated Adsorption,” Journal of Chemical Physics 136 (20), 204705-204716 (2012)
Wang, HF, Kaden, WE, Dowler, R, Sterrer, M, and Freund, H-J, “Metal Oxide-Supported Metal Catalysts-Comparision of Ultrahigh Vacuum and Solution Based Preparation of Pd Nanoparticles on a Single-Crystalline Oxide Substrate,” Physical Chemistry Chemical Physics 14 (32), 11525-11533 (2012)
Yang, B, Kaden, WE, Yu, X, Boscoboinik, JA, Martynova, Y, Lichtenstein, L, Heyde, M, Sterrer, M, Włodarczyk, R, Sierka, M, Sauer, J, Shaikhutdinov, S, and Freund, H-J, “Thin Silica Films on Ru (0001): Monolayer, Bilayer, and Three-Dimensional Networks of [SiO4] Tetrahedra,” Physical Chemistry Chemical Physics 14 (32), 11344-11351 (2012)
Kaden, WE, Kunkel WA, Kane, MD, Roberts, FS, and Anderson, SL, “Size-Dependent Oxygen Activation Efficiency over Pdn/TiO2(110) for the CO Oxidation Reaction,” Journal of the American Chemical Society 132 (38), 13097-13099 (2010)
Kaden, WE, Wu, T, Kunkel, WA, and Anderson, SL, “Electronic Structure Controls Reactivity of Size-Selected Pd Clusters adsorbed on TiO2 Surfaces,” Science 326 (5954), 826-829 (2009)

Oversees the following Graduate Students