Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature makes the application of traditional heterogeneous catalyst methods challenging, including the use of porous supports. In this study, lithium amide-imide was tested for compatibility with various support materials (activated carbon, silicon dioxide, aluminum oxide and magnesium oxide). It was found that most of the supports were unsuitable because of their reactivity with the catalyst, especially under flowing ammonia at decomposition conditions (>400 °C and 1 bar). Magnesium oxide, however, did not react with lithium amide-imide under flowing ammonia. Ammonia decomposition experiments over these catalyst-support mixtures showed that the lithi...
Current estimations show hydrogen production to be in excess of 55 million tonnes annually. With con...
Strong promoting effect of alkali metal amides, i.e., LiNH2, NaNH2 and KNH2, on the catalytic activi...
The wide-spread implementation of the so-called hydrogen economy is currently partially limited by a...
Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature m...
© 2016 The Royal Society of Chemistry.Lithium-calcium imide is explored as a catalyst for the decomp...
The catalytic decomposition of ammonia to hydrogen is a vital process in the use of ammonia as a zer...
We demonstrate that non-stoichiometric lithium imide is a highly active catalyst for the production ...
Lithium imide is a promising new catalyst for the production of hydrogen from ammonia. Its catalytic...
Solid catalysts comprising Li-based oxides were prepared by LiNO3 impregnation onto supports with di...
Ammonia decomposition using 15N labelled ammonia was performed over a lithium imide catalyst with ma...
AbstractSolid catalysts comprising Li-based oxides were prepared by LiNO3 impregnation onto supports...
Ammonia is feeding nearly half the world population and also holds the promise as a carbon-free ener...
Ammonia is feeding nearly half the world population and also holds the promise as a carbon-free ener...
The Haber–Bosch Process which was developed in the early 1900’s, was a landmark achievement of the 2...
Ammonia decomposition over nitrided MoNx/alpha-Al2O3 and NiMoNy/alpha-Al2O3 catalysts was investigat...
Current estimations show hydrogen production to be in excess of 55 million tonnes annually. With con...
Strong promoting effect of alkali metal amides, i.e., LiNH2, NaNH2 and KNH2, on the catalytic activi...
The wide-spread implementation of the so-called hydrogen economy is currently partially limited by a...
Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature m...
© 2016 The Royal Society of Chemistry.Lithium-calcium imide is explored as a catalyst for the decomp...
The catalytic decomposition of ammonia to hydrogen is a vital process in the use of ammonia as a zer...
We demonstrate that non-stoichiometric lithium imide is a highly active catalyst for the production ...
Lithium imide is a promising new catalyst for the production of hydrogen from ammonia. Its catalytic...
Solid catalysts comprising Li-based oxides were prepared by LiNO3 impregnation onto supports with di...
Ammonia decomposition using 15N labelled ammonia was performed over a lithium imide catalyst with ma...
AbstractSolid catalysts comprising Li-based oxides were prepared by LiNO3 impregnation onto supports...
Ammonia is feeding nearly half the world population and also holds the promise as a carbon-free ener...
Ammonia is feeding nearly half the world population and also holds the promise as a carbon-free ener...
The Haber–Bosch Process which was developed in the early 1900’s, was a landmark achievement of the 2...
Ammonia decomposition over nitrided MoNx/alpha-Al2O3 and NiMoNy/alpha-Al2O3 catalysts was investigat...
Current estimations show hydrogen production to be in excess of 55 million tonnes annually. With con...
Strong promoting effect of alkali metal amides, i.e., LiNH2, NaNH2 and KNH2, on the catalytic activi...
The wide-spread implementation of the so-called hydrogen economy is currently partially limited by a...