The storage of hydrogen in a compact, safe and cost-effective manner can be one of the key
enabling technologies to power a more sustainable society. Magnesium hydride (MgH 2) …

Magnesium hydride (MgH 2) is the most prominent carrier for storing hydrogen in solid-state
mode. However, their slow kinetics and high thermodynamics become an obstacle in …

Hydride-forming alloys are currently considered reliable and suitable hydrogen storage
materials because of their relatively high volumetric densities, and reversible H2 …

Rare earth elements and transition metals have been found to improve the hydrogen
storage characteristics of magnesium-based alloys. This study investigated the Mg-Ho-Fe …

Aiming at improving hydrogen storage performance of Mg-base alloy, the Mg 90 Ce 5 Y 5
alloy, which has high capacity and high stability, was prepared by vacuum induction melting …

Yttrium (Y) is selected to modify the microstructure of magnesium (Mg) to improve the
hydrogen storage performance. Thereby, binary alloys with the nominal compositions of Mg …

The rare earth elements are believed to catalyze the reversible reaction between
magnesium and hydrogen and reduce the thermal stability of MgH 2 by weakening the Mg …

In this investigation, mechanical grinding was applied to fabricating the Mg-based alloys La
7 Sm 3 Mg 80 Ni 10+ 5 wt.% M (M= None, TiO 2, La 2 O 3)(named La 7 Sm 3 Mg 80 Ni 10–5 …

Mechanical milling is widely recognized as the best method to prepare nano-structured
magnesium based hydrogen storage materials. The composites La 7 Sm 3 Mg 80 Ni 10+ 5 …

Element substitution is an effective strategy for improving Mg-based alloys in their
hydrogenation/dehydrogenation property. Thereby, in this paper, Sm was selected to …