TY - JOUR
T1 - Progress in Non-Aqueous Molecular Uranium Chemistry: Where to Next?
AU - Liddle, Stephen T.
PY - 2024/5/13
Y1 - 2024/5/13
N2 - There is long-standing interest in non-aqueous uranium chemistry because of fundamental questions about uranium’s variable chemical bonding and the similarities of this pseudo-group 6 element to its congener d-block elements molybdenum and tungsten. To provide historical context, with reference to a conference presentation slide presented circa 1988 that advanced a defining collection of top targets, and the challenge, for synthetic actinide chemistry to realise in isolable complexes under normal experimental conditions, this Review surveys progress against those targets, including: (i) CO and related p-acid ligand complexes; (ii) alkylidenes, carbynes, and carbidos; (iii) imidos and terminal nitrides; (iv) homoleptic poly-alkyls, -alkoxides, and -aryloxides; (v) uranium-uranium bonds; (vi) examples of topics that can be regarded as branching out in parallel from the leading targets. Having summarized advances from the past four decades, opportunities to build on that progress, and hence possible future directions for the field, are highlighted. The wealth and diversity of uranium chemistry that is described emphasizes the importance of ligand-metal complementarity in developing exciting new chemistry that builds our knowledge and understanding of elements in a relativistic regime.
AB - There is long-standing interest in non-aqueous uranium chemistry because of fundamental questions about uranium’s variable chemical bonding and the similarities of this pseudo-group 6 element to its congener d-block elements molybdenum and tungsten. To provide historical context, with reference to a conference presentation slide presented circa 1988 that advanced a defining collection of top targets, and the challenge, for synthetic actinide chemistry to realise in isolable complexes under normal experimental conditions, this Review surveys progress against those targets, including: (i) CO and related p-acid ligand complexes; (ii) alkylidenes, carbynes, and carbidos; (iii) imidos and terminal nitrides; (iv) homoleptic poly-alkyls, -alkoxides, and -aryloxides; (v) uranium-uranium bonds; (vi) examples of topics that can be regarded as branching out in parallel from the leading targets. Having summarized advances from the past four decades, opportunities to build on that progress, and hence possible future directions for the field, are highlighted. The wealth and diversity of uranium chemistry that is described emphasizes the importance of ligand-metal complementarity in developing exciting new chemistry that builds our knowledge and understanding of elements in a relativistic regime.
U2 - 10.1021/acs.inorgchem.3c04533
DO - 10.1021/acs.inorgchem.3c04533
M3 - Review article
SN - 0020-1669
JO - Inorganic Chemistry
JF - Inorganic Chemistry
ER -