Doping of carbon nanotubes (CNTs) effectively provides a route to tune their
physicochemical properties towards specific applications. Heteroatoms, such as boron (B) …

Hydrogen storage using the metal hydrides and complex hydrides is the most convenient
method because it is safe, enables high hydrogen capacity and requires optimum operating …

Hydrogen is regarded as an ideal fuel for vehicle applications owing to its high chemical
energy. However, for on-board energy storage, fuel cell electric vehicles need compact …

A solid-state storage system is the most practical option for hydrogen because it is more
convenient and safer. Metal hydrides, especially MgH 2, are the most promising materials …

Storage is a challenging issue that cuts across distribution, delivery, and safe end-uses of
hydrogen as fuel. All the fuel cell vehicles are equipped with inefficient and unsafe high …

Hydrogen is one of the cleanest energies with potential to have zero carbon emission.
Hydrogen storage is a challenging phase for the hydrogen energy application. The safety …

The development of high-efficiency carbon-based multifunctional catalysts is of great
significance for improving solid-state hydrogen storage materials. Herein, it was confirmed …

The present investigation describes the hydrogen sorption (de/absorption) behavior of
MgH2 catalyzed by graphene sheet templated Fe3O4 nanoparticles (Fe3O4@ GS) …

The present investigation reports the effect of TiH 2 templated over graphene (TiH 2@ Gr) on
the hydrogen sorption characteristics of MgH 2/Mg. The as synthesized TiH 2@ Gr leads to …

High dehydrogenation temperature and slow dehydrogenation kinetics impede the practical
application of magnesium hydride (MgH 2) serving as a potential hydrogen storage medium …