Extensive research has been carried on the molecular adsorption in high surface area
materials such as carbonaceous materials and MOFs as well as atomic bonded hydrogen in …

Metal alloys and intermetallic compounds offer an attractive method for safely storing
hydrogen (H2). The metal alloys absorb H2 into their structure, often swelling and fracturing …

Ca–Ni systems have been regarded as poor cousins to La–Ni based systems for hydrogen
storage, owing to their reduced absorption capacity. However, Ca–Ni based systems offer …

This article reports the hydrogenation properties of several Mg–Mg 2 Ni composite
specimens with increasing Ni content: 4.4, 11.3 (eutectic), and 16.3 (in at%). Mg–Mg 2 Ni …

Magnesium has been sought after material for hydrogen storage due to its high storage
capacity (7.6 wt%) and low cost combined with easy availability. However, sluggish kinetics …

Magnesium hydride is one of the most sought-after materials for solid state hydrogen
storage due to its low cost and high gravimetric capacity (7.6 wt% hydrogen). However, high …

Mg-based hybrids have shown promise via enhanced hydrogen storage properties. The Mg–
Mg 2 Ni-carbon hybrid can be synthesized by accumulative roll bonding (ARB), which is …

Magnesium hydride is the most studied metal hydride system due to its high gravimetric
hydrogen storage (7.6 wt%), ease of availability, and cost-effectiveness. The major …

Hydrogen can be stored in containers or in materials (in molecular or atomic forms). The
atomic form can further exist as multiple phases. Molecular hydrogen can be adsorbed on …

Nickel is a good catalyst for the dissociation of molecular hydrogen to atomic form, but
suffers from a negligible hydrogen storage capacity (∼ 10− 4 wt% at 25° C and 1 atm). The …