Abstract Development of new materials with high hydrogen storage capacity and reversible
hydrogen sorption performances under mild conditions has very high value in both …

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 …

Complex hydride LiAlH4, as a hydrogen storage material, possesses high theoretical
hydrogen storage capacity (10.5 wt.%). However, highly efficient additives are urgently …

LiAlH 4 is regarded as a potential material for solid-state hydrogen storage because of its
high hydrogen content (10.5 wt%). However, its high decomposition temperature, slow …

Transition metal-based oxides have been proven to have a substantial catalytic influence on
boosting the hydrogen sorption performance of MgH 2. Herein, the catalytic action of Ni 6 …

CoTiO 3 that was synthesised via the solid-state method was effective in ameliorating the
desorption behaviour of NaAlH 4. The initial desorption temperature of NaAlH 4 catalysed by …

The problem of providing compact and safe storage solutions for hydrogen in solid-state
materials is demanding and challenging. The storage solutions for hydrogen required high …

Herein, it is reported that activated carbon (AC) alters the hydrogen storage behavior of
lithium alanate (LiAlH 4) prepared by the ball milling technique. Notable improvements in …

Lithium alanate (LiAlH 4) is one of the most preferred materials for solid-state hydrogen
storage materials owing to its relatively high hydrogen capacity (10.5 wt%). However, its …

Despite the application of lithium aluminium hydride (LiAlH4) being hindered by its sluggish
desorption kinetics and unfavourable reversibility, LiAlH4 has received special attention as a …