This review focuses on various catalytic CO 2 hydrogenation approaches for converting CO
2 to fuels such as CH 4. The catalytic CO 2 methanation using thermal, catalytic-membrane …

The separation of hydrogen isotopes is a vital step in preparing tritium and deuterium fuels
for future fusion power plants. This represents a fundamental challenge to fusion energy …

Transitioning to energy-saving and renewable energy sources is impossible without
accelerated development of hydrogen energy and hydrogen technologies. This review …

In the face of a series of global challenges caused by the dependence on fossil fuels, such
as the greenhouse effect, energy shortage and air pollution, the development and utilization …

Hydrogen containing a minimum amount of contaminants is required for its application in
fuel-cell technology. For this purpose, palladium and palladium binary alloy membranes …

Coupling of dehydrogenation reactions (propane dehydrogenation) and CO 2
hydrogenation reactions in a membrane reactor has synergetic effect on the overall …

A catalytic membrane reactor was constructed using inner coated Pd 0.77 Ag 0.23 (mass
fraction) alloy membrane on Al 2 O 3 hollow fiber substrate, prepared by electroless plating …

Dry reforming of methane (DRM) is an important way of conversion of CH 4 and CO 2, two
greenhouse gases, for the production of hydrogen. In this study, a catalytic membrane …

Methods of modifying the surface of Pd–23% Ag alloy films have been developed in order to
increase the rate of hydrogen permeability and to produce palladium-containing nanostar …

Pd-based membranes are used for separation of H2 from different feed stocks; however,
their application is limited in the presence of hydrocarbons due to coke deposition on the …