International audienceBimetallic catalysts have manifold technological applications; their reactivity can greatly exceed that of the original single metals. In this work, we investigate an ideal model-system consisting of a complete monolayer of Pd underneath the surface of Au(111). First, we investigate the stability of this system, and then its interaction with hydrogen. We analyze in detail the energetics and the electronic interactions for the Volmer step of the hydrogen evolution reaction (HER), and the further absorption below the surface layer of gold. We combine Density Functional Theory based on computational techniques with the theory of electrocatalysis
Searching for none or less Pt-containing electrocatalytic materials for hydrogen evolution is a prom...
After decades of research, understanding the origins of electrocatalytic activity remains a fundamen...
Hydrogen evolution reaction was studied on Au(111) modified by palladium spontaneously deposited on ...
Bimetallic catalysts have manifold technological applications; their reactivity can greatly exceed t...
We have investigated the electrocatalytic properties of multilayers of Pd epitaxially deposited on A...
We have investigated the electrocatalytic properties of multilayers of Pd epitaxially deposited on A...
Hydrogen interaction with bimetallic Au(Pd) and Au(Rh) systems are studied with the density function...
The hydrogen absorption into overlayers of Pd deposited on Au(111) has been investigated by density ...
Density functional calculations along with in situ X-ray absorption spectroscopy data show that AuPd...
In the present contribution we have focused on the electrochemical adsorption of a proton from the s...
We have investigated the stability and catalytic activity of epitaxial overlayers of rhodium on Au(1...
ABSTRACT: Density functional theory (DFT) studies of mercury oxidation on Au(111) are conducted to d...
Hydrogen evolution reaction (HER: H<sup>+</sup> + e<sup>–</sup> → <sup>1</sup>/<sub>2</sub>H<sub>2</...
Hydrogen-catalyst interaction is the foundation of many technologies and processes. Herein we employ...
Hydrogen-catalyst interaction is the foundation of many technologies and processes. Herein we employ...
Searching for none or less Pt-containing electrocatalytic materials for hydrogen evolution is a prom...
After decades of research, understanding the origins of electrocatalytic activity remains a fundamen...
Hydrogen evolution reaction was studied on Au(111) modified by palladium spontaneously deposited on ...
Bimetallic catalysts have manifold technological applications; their reactivity can greatly exceed t...
We have investigated the electrocatalytic properties of multilayers of Pd epitaxially deposited on A...
We have investigated the electrocatalytic properties of multilayers of Pd epitaxially deposited on A...
Hydrogen interaction with bimetallic Au(Pd) and Au(Rh) systems are studied with the density function...
The hydrogen absorption into overlayers of Pd deposited on Au(111) has been investigated by density ...
Density functional calculations along with in situ X-ray absorption spectroscopy data show that AuPd...
In the present contribution we have focused on the electrochemical adsorption of a proton from the s...
We have investigated the stability and catalytic activity of epitaxial overlayers of rhodium on Au(1...
ABSTRACT: Density functional theory (DFT) studies of mercury oxidation on Au(111) are conducted to d...
Hydrogen evolution reaction (HER: H<sup>+</sup> + e<sup>–</sup> → <sup>1</sup>/<sub>2</sub>H<sub>2</...
Hydrogen-catalyst interaction is the foundation of many technologies and processes. Herein we employ...
Hydrogen-catalyst interaction is the foundation of many technologies and processes. Herein we employ...
Searching for none or less Pt-containing electrocatalytic materials for hydrogen evolution is a prom...
After decades of research, understanding the origins of electrocatalytic activity remains a fundamen...
Hydrogen evolution reaction was studied on Au(111) modified by palladium spontaneously deposited on ...