The research team consisting of Oscar Custance and Tomoko Shimizu, group leader and senior scientist, respectively, at the Atomic Force Probe Group, NIMS, Daisuke Fujita and Keisuke Sagisaka, group leader and senior researcher, respectively, at the
Surface Characterization Group, NIMS, and scientists at Charles University in the Czech Republic, Autonomous University of Madrid in Spain, and other organizations combined simultaneous atomic force microscopy (AFM) and scanning tunneling microscopy (STM) measurements with first - principles calculations for the unambiguous identification of the atomic species at the most stable surface of the anatase form of titanium dioxide (hereinafter referred to as anatase) and its most common d
Surface Characterization Group, NIMS, and scientists at Charles University in the Czech Republic, Autonomous University of Madrid in Spain, and other organizations combined simultaneous atomic force microscopy (AFM) and scanning tunneling microscopy (STM) measurements with first - principles calculations for the unambiguous identification of the atomic species at the most stable
surface of the anatase form of titanium dioxide (hereinafter referred to as anatase) and its most common d
surface of the
anatase form of titanium dioxide (hereinafter referred to as
anatase) and its most common defects.
To enhance the catalytic reactivity of
anatase and the efficiency of devices for solar energy conversion based on
anatase, it is critical to gain in - depth understanding and control of the reactions taking place at the
surface of this material down to the atomic level.