The water gas shift reaction is an important and commonly employed reaction in the
industry. In the water gas shift reaction, hydrogen is produced from water or steam while …

This Review discusses the structural and catalytic aspects of the recently introduced reactive
metal–support interaction. This special term was coined to account for the inability of the …

An overview of the catalytic properties of intermetallic compounds has been made to provide
a comprehensive understanding regarding (1) what intermetallic catalysts can do,(2) their …

The direct hydrogenation of CO 2 into methanol is crucial for providing a means of CO 2
fixation and a way to store cleanly produced hydrogen in a more energy-dense and …

The reactive metal–support interaction (RMSI) offers electronic, geometric and
compositional effects that can be used to tune catalytic active sites. Generally, supports other …

Intermetallic alloying of one active metal to another inert metal provides not only the
improved dispersion of active centers but also a unique and homogeneous ensemble of …

The water–gas shift (WGS) reaction rate per total mole of Au under 7% CO, 8.5% CO2, 22%
H2O, and 37% H2 at 1 atm for Au/Al2O3 catalysts at 180° C and Au/TiO2 catalysts at 120° C …

The formation of methane as the undesired side product is one of the major issues in the
water–gas shift (WGS) reaction, particularly for nickel-based catalysts. A detailed study of Ni …

Catalytic CO2 methanation at mild conditions (T≤ 200° C) was studied over catalysts
prepared by mechanically mixing in different proportions Rh (2 wt%)/γ-Al2O3 and Pd (5 …

The formation of a PdZn alloy from a 4.3% Pd/ZnO catalyst was characterized by combined
in situ high-resolution X-ray diffraction (HRXRD) and X-ray absorption spectroscopy (XAS) …