Skip to content

Opening book details…

Can I read Unique Catalytic Decomposition and Reduction of Hydrogen Peroxide and Organic Peroxides on Magnesia (001) Promoted by Oxide-metal Hybrid Nanostructure on EtoBox?

Unique Catalytic Decomposition and Reduction of Hydrogen Peroxide and Organic Peroxides on Magnesia (001) Promoted by Oxide-metal Hybrid Nanostructure by Song, Zhenjun; Zhao, Bin; Wang, Qiang; Cheng, Peng is a scholarly article available to read on EtoBox.

What is Unique Catalytic Decomposition and Reduction of Hydrogen Peroxide and Organic Peroxides on Magnesia (001) Promoted by Oxide-metal Hybrid Nanostructure about?

The detection, removal and reduction of hydrogen peroxide is of significant importance for its increasing application in the areas of environment, food, electrochemistry and clinical laboratory. Herein the dissociative adsorption behavior of hydrogen peroxide on ultrathin magnesia (001) films deposited on transition metal is uncovered for the first time by employing periodic density-functional theory calculations with van der Waals corrections. The hydrogen peroxide is dissociated smoothly and reduced to surface hydroxyls on MgO(001)/TM, and the dissociative adsorption energies of all the considered fragmentation configurations are substantially negative, demonstrating dissociation and reduction of hydrogen peroxide on MgO(001)/TM is thermodynamically favorable. The dissociative adsorption energy decreases monotonously with increasing film thickness, demonstrating the lower reactivity of thick oxide films. Moreover, we examined the suitability of several transition metal slabs (molybdenum, silver, vanadium, tungsten and gold) combined with magnesia for splitting hydrogen peroxide. The dissociative adsorption energies enhance when the lattice constants of substrate slabs increase, i

Author
Song, Zhenjun; Zhao, Bin; Wang, Qiang; Cheng, Peng
Published
2016
Language
EN

More by Song, Zhenjun; Zhao, Bin; Wang, Qiang; Cheng, Peng

Browse all works by Song, Zhenjun; Zhao, Bin; Wang, Qiang; Cheng, Peng