T. Mcgrath

发表

Carbonyl-metal fragment insertion into eight-vertex [closo-1-CB7H8]-. Facile synthesis of ten-vertex metalladicarbollide complexes [2,2,2-(CO)3-1-OH-closo-2,1,10-MC2B7H8]n-{M = Fe, Ru (n= 0), Mn, Re (n= 1)}.

P. Lei, F. Stone, A. Franken, 2006, Chemical communications.

Synthesis, structure and reactivity of η4(5e)-butadienyl substituted molybdenum complexes

M. Mahon, Michael J. Green, T. McGrath, 1996 .

Synthesis and characterisation of the halogenated azanonaboranes [(iPrNH2)B8H10XNHiPr] (X=Cl, Br, I) and their unexpected hydrolysis to hypho-[B5H10(μ-NHiPr)]

U. Dörfler, D. Gabel, C. Bauer, 2002 .

Towards the mechanism of heteroborane isomerisation: 1,2 → 1,2 and 1,2 → 1,7 low-temperature isomerisations from metallations of [5-I-7,8-Ph2-7,8-nido-C2B9H8]2−

G. Rosair, D. Ellis, A. J. Welch, 2005 .

Supraicosahedral and icosahedral nickelacarbaboranes bearing exopolyhedral metal fragments.

F. Stone, T. McGrath, B. Hodson, 2004, Dalton transactions.

Synthesis, structure, and dynamics of nickelacarboranes incorporating the [nido-7,9-C(2)B(9)H(11)](2)(-) ligand.

F. Stone, B. Hodson, T. Mcgrath, 2004, Inorganic chemistry.

Synthesis and Reactivity of 10-Vertex arachno-Platinacarboranes

M. J. Carr, F. Stone, T. McGrath, 2008 .

METAL COMPLEXES OF MONOCARBON CARBORANES: A NEGLECTED AREA?

T. McGrath, T. Mcgrath, 2006 .

Alkyne coupling at a rhenium–monocarborane substrate: synthesis of Re,B-η2:σ-butadienyl complexes

S. Du, F. Stone, T. McGrath, 2005 .

Metal Complexes of Monocarbon Carboranes Bearing C-Amine or -Amino Substituents

F. Stone, T. McGrath, T. Mcgrath, 2004 .

Monocarbollide complexes of osmium: X-ray crystal structure of [Os(CO)3{η5-5-(NMe3)-7-CB10H10}]

F. Stone, D. Ellis, A. Franken, 2000 .

Reactivity of the molybdenacarbaborane anion [2,2,2,2-(CO)4-closo-2,1-MoCB10H11]−: metal oxidation versus cage substitution

S. Du, F. Stone, T. McGrath, 2001 .

Synthesis and characterisation of labelled diphenylcarboranes

G. Rosair, D. Ellis, T. McGrath, 2003 .

Metallaborane reaction chemistry. Macropolyhedral metallaheteroborane synthesis by direct heteroatom insertion. Formation of the twenty-vertex [(-CMe)IrBHS] anion from nineteen-vertex -[(-CMe)IrBH]

T. Jelínek, J. Kennedy, M. Thornton-Pett, 1998 .

Unprecedented cage-carbon to cage-boron NMe(3) transfer in a monocarbon Molybdenacarborane.

S. Du, F. Stone, J. Kautz, 2002, Inorganic chemistry.

Dirhodium(II) carboxylate complexes as building blocks. Synthesis of dimeric species as connectors for macrocycles

C. Femoni, A. Steiner, R. Bonar-Law, 2001 .

Dinuclear complexes as connectors for carboxylates. Self-assembly of a molecular box

Nirmal Singh, A. Steiner, R. Bonar-Law, 1999 .

Macropolyhedral Chalcogenaboranes: Insertion of Selenium into the Isomers of B18H22.

J. Kennedy, W. Clegg, J. Bould, 2022, Inorganic chemistry.

The seventeen- and eighteen-electron metallacarbaboranes [1,1,1-(CO)3-2-Ph-closo-1,2-MnCB9H9]n- (n = 1, 2): a structurally characterized, redox-related pair.

J. Harvey, S. Du, D. Murphy, 2003, Chemical communications.

The conformations of 13-vertex ML2C2B10 metallacarboranes: experimental and computational studies.

Volker Settels, G. Rosair, S. Macgregor, 2007, Journal of the American Chemical Society.

Rhodathiaboranes with `anomalous' electron counts: synthesis, structure and reactivity

G. Rosair, A. Weller, Kerry J. Adams, 1998 .