Catalysis is at the core of previous energy transition. It has enabled the use of oil and natural
gas as our primary energy sources in unprecedented ways and led to feedstocks enabling …

The safest way to store hydrogen is in solid form, physically entrapped in molecular form in
highly porous materials, or chemically bound in atomic form in hydrides. Among the different …

The research on complex hydrides for hydrogen storage was initiated by the discovery of Ti
as a hydrogen sorption catalyst in NaAlH 4 by Boris Bogdanovic in 1996. A large number of …

Hydrogen storage materials have been a subject of intensive research during the last 4
decades. Several developments have been achieved in regard of finding suitable materials …

Characterising the hydrogen sorption properties of materials is important for a range of
applications, including solid state hydrogen storage, electrochemical and thermal energy …

Hydride forming materials, ie, binary, complex hydrides, and their mixtures, have been
extensively investigated owing to their potential hydrogen storage properties. They possess …

Hydrogen storage presents a significant barrier to the widespread adaptation of hydrogen as
an energy source in mobile and stationary applications. The development of new candidate …

The reversible hydrogenation of aminoalanes employing activated aluminium and
piperidine has been explored. A selection of transition metal (TM) compounds have been …

The lithium-ion conductivity and hydrogen-desorption properties of lithium alanate
(LiAlH4)/boron nitride (BN) composites were investigated. The effects of boron nitrides with …

The use of NaAlH 4 as a practical hydrogen storage material has seen extensive progress.
However, it is still difficult to control the hydrogen storage properties of NaAlH 4 and in …