We demonstrate that non-stoichiometric lithium imide is a highly active catalyst for the production of high-purity hydrogen from ammonia, with superior ammonia decomposition activity to a number of other catalyst materials. Neutron powder diffraction measurements reveal that the catalyst deviates from pure imide stoichiometry under ammonia flow, with active catalytic behaviour observed across a range of stoichiometry values near the imide. These measurements also show that hydrogen from the ammonia is exchanged with, and incorporated into, the bulk catalyst material, in a significant departure from existing ammonia decomposition catalysts. The efficacy of the lithium imide-amide system not only represents a more promising catalyst system, b...
Ammonia is feeding nearly half the world population and also holds the promise as a carbon-free ener...
The wide-spread implementation of the so-called hydrogen economy is currently partially limited by a...
The decomposition of lithium imide (Li2NH) is an important step for hydrogen storage in Li3N. In thi...
© 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...
Lithium imide is a promising new catalyst for the production of hydrogen from ammonia. Its catalytic...
Hydrogen has long been touted as an alternative fuel which could form the basis of a sustainable ene...
Solid solutions of lithium amide (LiNH2) and lithium imide (Li2NH) are present during ammonia decomp...
Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature m...
Accessing the intrinsic hydrogen content within ammonia, NH3, has the potential to play a very signi...
Ammonia decomposition using 15N labelled ammonia was performed over a lithium imide catalyst with ma...
Accessing the intrinsic hydrogen content within ammonia, NH3, has the potential to play a very signi...
Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature m...
Our current reliance on fossil fuels is highly unsustainable due to their limited supply and environ...
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 wide-spread implementation of the so-called hydrogen economy is currently partially limited by a...
The decomposition of lithium imide (Li2NH) is an important step for hydrogen storage in Li3N. In thi...
© 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...
Lithium imide is a promising new catalyst for the production of hydrogen from ammonia. Its catalytic...
Hydrogen has long been touted as an alternative fuel which could form the basis of a sustainable ene...
Solid solutions of lithium amide (LiNH2) and lithium imide (Li2NH) are present during ammonia decomp...
Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature m...
Accessing the intrinsic hydrogen content within ammonia, NH3, has the potential to play a very signi...
Ammonia decomposition using 15N labelled ammonia was performed over a lithium imide catalyst with ma...
Accessing the intrinsic hydrogen content within ammonia, NH3, has the potential to play a very signi...
Lithium amide-imide is an excellent ammonia decomposition catalyst, but its highly reactive nature m...
Our current reliance on fossil fuels is highly unsustainable due to their limited supply and environ...
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 wide-spread implementation of the so-called hydrogen economy is currently partially limited by a...
The decomposition of lithium imide (Li2NH) is an important step for hydrogen storage in Li3N. In thi...