Martyn Coles

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Victoria University of Wellington

New Zealand

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About

Martyn Coles is a Professor at Victoria University of Wellington, New Zealand. His research primarily focuses on inorganic and organometallic chemistry, with recent articles exploring topics such as reductive deamination, C–C bond formation, and the reactivity of aluminyl anions. His work contributes to the understanding of bimetallic complexes and frustrated Lewis pairs.

Recent Grants

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Activating Substrates for Chemical Synthesis with Reactive Aluminium Reagents

Open Date: 2021-01-01

Close Date: 2024-01-01

Articles (20)

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Collaborators (2)

Mathew Anker

Inorganic Chemistry Lecturer

Victoria University of Wellington

NEW ZEALAND

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Claire McMullin

University of Bath

UNITED KINGDOM

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Martyn Coles

Research Interests

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About

Recent Grants

Articles (20)

Reductive Deamination of a Diaminogermylene Promoted by an Aluminyl Anion: Isolation of Ge(I), Ge(0) and Ge(‐I) Products

Reductive Deamination of a Diaminogermylene Promoted by an Aluminyl Anion: Isolation of Ge(I), Ge(0) and Ge(‐I) Products

C–C Bond Formation at an Aluminacyclopropane

Reaction of a Potassium Aluminyl with Sn[N(SiMe3)2]2 ‐ Isolation of a Stable, Trimetallic Sn(I) Radical Anion

Reductive Coupling of Ketones: Contrasting the Reactivity of an Aluminyl and a Gallyl Anion

Frustrated Lewis Pairs from Al−E{14} Bonds (E{14}=Ge, Sn, Pb)

Bimetallic Al–M complexes derived from low-valent aluminium sources (M = s-/p-block metal)

Heavier alkaline earth and heterobimetallic s-block “ate” complexes of a di(amido)siloxane ligand: solid-state structure and dynamic solution-phase behaviour

1,4-Dialumination of benzene by sodium and potassium aluminyls

Pinacol Cross‐Coupling Promoted by an Aluminyl Anion

Potassium Aluminyl Promoted Carbonylation of Ethene

Carbon-chalcogen bond formation initiated by [Al(NON<sup>Dipp</sup>)(E)]<sup>−</sup> anions containing Al-E{16} (E{16} = S, Se) multiple bonds

Catalytic Hydrophosphination of Isocyanates by Molecular Antimony Phosphanides

Extending chain growth beyond C<sub>1</sub> → C<sub>4</sub> in CO homologation: aluminyl promoted formation of the [C<sub>5</sub>O<sub>5</sub>]<sup>5−</sup> ligand

Rubidium and caesium aluminyls: Synthesis, structures and reactivity in C-H bond activation of benzene

Synthesis of orientated Ni<sub>0.89</sub>Fe<sub>0.11</sub>/polymer nanofibres with a bimodal nanoparticle size distribution by electrospinning and thermal processing

Controlling Al–M Interactions in Group 1 Metal Aluminyls (M = Li, Na, and K). Facile Conversion of Dimers to Monomeric and Separated Ion Pairs

Dihydrogen Activation by Lithium‐ and Sodium‐Aluminyls

Double insertion of CO<inf>2</inf>into an Al-Te multiple bond

Oxidative Addition of Hydridic, Protic, and Nonpolar E-H Bonds (E = Si, P, N, or O) to an Aluminyl Anion

Collaborators (2)

Mathew Anker

Claire McMullin

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