As a representative light metal, magnesium is promising to be used as a hydrogen carrier
owing to its high hydrogen capacity, low cost and natural abundance. The intrinsic …

In this review, I examine the influence of nanoscale materials features on the hydrogen-
metal interaction. The small system size, the abundance of surfaces/interfaces, and the …

Magnesium hydride (MgH 2) is the best candidate material to store hydrogen in the solid-
state form owing to its advantages such as good reversibility, high hydrogen storage …

In this study, some transitional metal carbides (Ti 3 C 2, Ni 3 C, Mo 2 C, Cr 3 C 2 and NbC)
were prepared to enhance the hydrogen storage behaviors of magnesium-based materials …

Magnesium hydride has great potential for solid-state hydrogen storage. However, high
dehydrogenation temperature and sluggish hydrogen absorption and desorption kinetics …

Mg-Sc-H systems exhibit superior stability and high hydrogen storage capacity among the
large class of magnesium-based hydrogen storage materials, but the underlying …

Exploring the hydrogen storage properties on the surface of transition metal-modified MgH 2
systems is beneficial to develop new hydrogen storage regions. The first-principles …

Abstract Rare earth–Mg–Ni-based alloys are promising candidate for high-capacity
hydrogen storage materials, and Mg is the key elements to maintain its crystal structure …

To nurture the full potential of hydrogen (H 2) as a clean energy carrier, its efficient storage
under ambient conditions is of great importance. Owing to the potential of material-based H …

MgH 2 has broad prospects in energy storage applications; however, its poor
thermodynamic properties and slow hydrogen absorption and desorption rates are …