Abstract
Here, we show that the pathways, products, and efficiencies of reactions occurring on a metal surface can be spatially modulated by varying the type and energy of hot carriers produced by injecting tunneling electrons or holes from a scanning tunneling microscope tip into the metal surface. Control over the metal surface reactions was demonstrated for the large-scale dissociation reaction of O2 molecules on a Ag(110) surface. Hot electrons (or holes) transported through the metal surface to chemisorbed O2 selectively dissociated the molecule into two oxygen atoms separated along the [11̄0] (or 001) lattice direction. The reaction selectivity was enhanced compared to the selectivity of a direct reaction involving tunneling carriers. © 2013 AIP Publishing LLC.
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CITATION STYLE
Hahn, J. R., Jang, S. H., Kim, K. W., & Son, S. B. (2013). Hot carrier-selective chemical reactions on Ag(110). Journal of Chemical Physics, 139(7). https://doi.org/10.1063/1.4817947
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