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) …

Exceptionally porous crystals with ultrahigh adsorption capacities, metal–organic
frameworks (MOFs), have received recognition as leading candidates for the promotion of …

Magnesium hydride (MgH 2) is the mostly used material for solid-state hydrogen storage.
However, their slow kinetics and highly unfavorable thermodynamics make them unsuitable …

Hydrogen, known for its renewable nature, high energy utilization efficiency, and clean
combustion, holds significant importance as a component in future energy systems …

Magnesium hydride (MgH 2) stands out as a promising solid-state material for high-density
hydrogen storage, offering enormous potential for applications in hydrogen transportation …

Magnesium hydride (MgH 2) is considered one of the most ideal materials for hydrogen
storage. However, the practical applications of MgH 2 are greatly hindered by its high …

This study investigates the development of Ti 25 V 30 Nb 10 Cr 35− x Mo x (x= 2, 4, and 6)
high-entropy alloys (HEAs) for enhanced hydrogen storage performance. Alloys with tailored …

Solid-state hydrogen storage technology is currently the most economical, reliable, safe, and
volumetrically efficient storage method. Unfortunately, whether physically or chemically …

While TiFe alloy has recently attracted attention as the efficient catalyst to enhance
de/hydrogenation rates of Mg/MgH 2, the difficulty of its activation characteristics has …

In this study, nano-PrO 1.83 supported carbon catalysts were prepared using a chemical
blowing-catalytic carbonization method, wherein PrO 1.83 nanoparticles were highly …