G. Hogarth

发表

Experimental and computational studies on the reaction of silanes with the diphosphine-bridged triruthenium clusters Ru3(CO)10(μ-dppf), Ru3(CO)10(μ-dppm) and Ru3(CO)9{μ3-PPhCH2PPh(C6H4)}

Md. Jakir Hossain, M. Richmond, E. Rosenberg, 2014 .

Cluster chemistry in the Noughties: new developments and their relationship to nanoparticles.

G. Hogarth, S. Kabir, E. Nordlander, 2010, Dalton transactions.

Dithiocarbamate Complexes as Single Source Precursors to Nanoscale Binary, Ternary and Quaternary Metal Sulfides.

G. Hogarth, Jagodish C. Sarker, 2021, Chemical reviews.

Synthesis and structure of [Mo2(NR)2(η2-S2CNEt2)2(μ-S)(μ-η2-η2-S2)] (R = 2,6-Pr2iC6H3): a molecular model for molybdenum trisulphide?

G. Hogarth, T. A. Coffey, 1997 .

Multimetallic complexes based on a diphosphine-dithiocarbamate "Janus" ligand.

O. Rossell, G. Hogarth, A. White, 2015, Inorganic chemistry.

The effects of ligand variation on enantioselective hydrogenation catalysed by RuH2(diphosphine)(diamine) complexes.

C. Catlow, G. Hogarth, H. Chen, 2012, Dalton transactions.

Platinum(II) dithiocarbamate complexes [Pt(S2CNR2)Cl(PAr3)] as anticancer and DNA-damaging agents

Zia-ur-Rehman, G. Hogarth, ZIA-UR-REHMAN, 2020 .

Small bite-angle diphosphines — Synthesis and structure of low-valent complexes of bis(di-ortho-tolylphosphino)methane (dotpm) and related ligands

G. Hogarth, A. Deeming, Marion Filby, 2006 .

Hydrogenase Biomimetics with Redox-Active Ligands: Synthesis, Structure, and Electrocatalytic Studies on [Fe2(CO)4(κ2-dppn)(µ-edt)] (edt = Ethanedithiolate; dppn = 1,8-bis(Diphenylphosphino)Naphthalene)

M. Richmond, Shishir Ghosh, G. Hogarth, 2018, Inorganics.

Hydrogenase biomimetics with redox-active ligands: Electrocatalytic proton reduction by [Fe2(CO)4(κ2-diamine)(μ-edt)] (diamine = 2,2′-bipy, 1,10-phen)

M. Richmond, Shishir Ghosh, G. Hogarth, 2016 .

Fluorinated models of the iron-only hydrogenase: An electrochemical study of the influence of an electron-withdrawing bridge on the proton reduction overpotential and catalyst stability

Shishir Ghosh, G. Hogarth, K. Holt, 2013 .

Triosmium Clusters Containing 2-Mercaptobenzothiazolate Ligands

Shishir Ghosh, G. Hogarth, S. Kabir, 2012 .

Understanding the role of zinc dithiocarbamate complexes as single source precursors to ZnS nanomaterials

W. Bras, H. Islam, N. D. de Leeuw, 2020, Nanoscale advances.

Phase control during the synthesis of nickel sulfide nanoparticles from dithiocarbamate precursors.

C. Catlow, H. Islam, N. D. de Leeuw, 2016, Nanoscale.

Active Nature of Primary Amines during Thermal Decomposition of Nickel Dithiocarbamates to Nickel Sulfide Nanoparticles

C. Catlow, W. Bras, H. Islam, 2014 .

Multimetallic arrays: symmetrical bi-, tri- and tetrametallic complexes based on the group 10 metals and the functionalisation of gold nanoparticles with nickel-phosphine surface units.

A. L. Thompson, G. Hogarth, A. Cowley, 2009, Dalton transactions.

Multimetallic arrays: bi-, tri-, tetra-, and hexametallic complexes based on gold(I) and gold(III) and the surface functionalization of gold nanoparticles with transition metals.

A. L. Thompson, G. Hogarth, J. Wilton‐Ely, 2009, Inorganic chemistry.

Synthesis, spectroscopy, catalysis and crystal structure of [Rh(η4-cod){(R)-N-(Ar)ethyl-2-oxo-1-naphthaldiminato-κ2N,O}] (Ar = C6H5, 3-/4-MeOC6H4, and 4-BrC6H4)

C. Janiak, G. Hogarth, M. Enamullah, 2012 .

Backbone modified small bite-angle diphosphines: Synthesis, structure, and DFT evaluation of the thermal activation products based on Os3(CO)10{μ-Ph2PC(Me)2PPh2}

M. Richmond, Shishir Ghosh, G. Hogarth, 2014 .

Stereochemical control of the diphosphine and alkyne ligands in triruthenium clusters: the effect of reversible CO loss/addition on the ligand distribution in [Ru3(µ3,η2-PhCCPh){µ,η2-Ph2PCH(Me)PPh2}(CO)7,8]

V. Nesterov, V. Nesterov, H. Roesky, 2022, Journal of Organometallic Chemistry.

Mixed-valence dimolybdenum complexes containing hard oxo and soft carbonyl ligands: synthesis, structure, and electrochemistry of Mo2(O)(CO)2(μ-κ2-S(CH2)nS)2(κ2-diphosphine).

V. Nesterov, M. Richmond, Shishir Ghosh, 2018, Dalton transactions.

Biomimetics of the [FeFe]-hydrogenase enzyme: Identification of kinetically favoured apical-basal [Fe2(CO)4(μ-H){κ2-Ph2PC(Me2)PPh2}(μ-pdt)]+ as a proton-reduction catalyst

M. Richmond, Shishir Ghosh, G. Hogarth, 2016 .

Iron carbonyl complexes bearing phenazine and acridine ligands: X-ray structures of Fe(CO)(3)(eta(4)-C12H8N2), Fe(CO)(2){P(OMe)(3)}(eta(4)-C12H8N2), Fe(CO)(2)(PPh3) (eta(4)-C13H9N), and Fe(CO)(2)(kappa(1)-dppm) (eta(4)-C12H8N2)

Islam, Rahman, L. Yang, 2016 .

Thermal transformations of tris(2-thienyl)phosphine (PTh3) at low-valent ruthenium cluster centers: Part I. Carbon-hydrogen, carbon-phosphorus and carbon-sulfur bond activation yielding Ru3(CO)8L{μ-Th2P(C4H2S)}(μ-H) (L = CO, PTh3), Ru3(CO)7(μ-PTh2)2(μ3-η2-C4H2S), Ru4(CO)9(μ-CO)2(μ4-η2-C4H2S)(μ4-PTh)

N. Begum, M. Richmond, Shishir Ghosh, 2016 .

Electrocatalytic proton reduction catalysed by the low-valent tetrairon-oxo cluster [Fe4(CO)10(κ(2)-dppn)(μ4-O)](2-) [dppn = 1,1'-bis(diphenylphosphino)naphthalene].

M. Richmond, Shishir Ghosh, G. Hogarth, 2015, Dalton transactions.

Synthesis, structure and bonding of new mono- and dinuclear molybdenum complexes containing pyridine-2-thiolate (pyS) and different P-donors

M. Richmond, Shishir Ghosh, G. Hogarth, 2015 .

Bimetallic osmium-tin complexes: Stannylene and hydrostannylene clusters upon addition of Ph3SnH to unsaturated triosmium clusters [(μ-H)2Os3(CO)8(μ-diphosphine)] (diphosphine = dppm, dppf)

M. Rahman, M. Richmond, Shishir Ghosh, 2014 .

Bioinspired Hydrogenase Models: The Mixed-Valence Triiron Complex [Fe3(CO)7(μ-edt)2] and Phosphine Derivatives [Fe3(CO)7–x(PPh3)x(μ-edt)2] (x = 1, 2) and [Fe3(CO)5(κ2-diphosphine)(μ-edt)2] as Proton Reduction Catalysts

M. Richmond, Shishir Ghosh, G. Hogarth, 2014, Organometallics.

Models of the iron-only hydrogenase: a comparison of chelate and bridge isomers of Fe2(CO)4{Ph2PN(R)PPh2}(μ-pdt) as proton-reduction catalysts.

M. Richmond, Shishir Ghosh, G. Hogarth, 2013, Dalton transactions.

cis–trans Isomerism at Square-Planar MN2S2 Centers (M = Pd, Pt): Crystal Structures of N-Phenyl-N-(2-thiazoyl)thiourea Complexes trans-Pd(S2N3C10H8)2 and cis-Pt(S2N3C10H8)2 and Density Functional Calculations

M. Richmond, C. Wagner, G. Hogarth, 2013, Journal of Chemical Crystallography.

Platinum and palladium bis(diphenylphosphino)ferrocene (dppf) complexes with heterocyclic N-acetamide ligands: Synthesis and molecular structures of [MCl(sac)(κ2-dppf)] (M = Pt, Pd, sac = saccharinate), [PtCl(ata)(κ2-dppf)] and [Pt(ata)2(κ2-dppf)] (ataH = N-(2-thiazolyl)acetamide)

L. Salassa, G. Hogarth, S. Al-Jibori, 2013 .

Synthesis of new heterometallic complexes by tin–sulfur bond cleavage of pySSnPh3 (pySH = pyridine-2-thiol) at triruthenium and triosmium centres

L. Salassa, Shishir Ghosh, G. Hogarth, 2011 .

Unsymmetrical alkyne binding to a triruthenium centre: Oxidative-addition of diphenyl ditelluride to

L. Salassa, Shishir Ghosh, G. Hogarth, 2011 .

Synthesis and molecular structure of [Fe-4(CO)(10)(mu(4)-O)(kappa(K)2-dppn)] (dppn=1,8-bis(diphenylphosphino)naphthalene): a missing piece in the [M-4(CO)(12)(mu(4)-E)](n-) (M = Fe, Ru:E = C, N, O; n=2, 1, 0) puzzle

C. Garino, L. Salassa, Shishir Ghosh, 2009 .

Gold(I) alkynyl complexes derived from ethynylanilines: crystal structure of [Au(CC-4-C6H4NH2){P(3-tolyl)3}] a polymer in the solid state via NH⋯Au contacts ☆

G. Hogarth, M. M. Alvarez-Falcón, 2005 .

Biomimics of [FeFe]-hydrogenases incorporating redox-active ligands: Ferrocene-bridged dithiolate complexes [Fe2(CO)6(μ-EC5H4FeC5H4E)] (E = S, Se)

M. Ringenberg, G. Hogarth, Georgia R F Orton, 2022, Journal of Organometallic Chemistry.

Synthesis, Molecular Structures and Electrochemical Investigations of [FeFe]‐Hydrogenase Biomimics [Fe 2 (CO) 6‐ n (EPh 3 ) n (µ‐edt)] (E = P, As, Sb; n = 1, 2)

Shishir Ghosh, G. Hogarth, S. Kabir, 2019, European Journal of Inorganic Chemistry.

Electrocatalytic proton reduction by [Fe(CO)2(κ2-dppv)(κ1-SAr)2] (dppv = cis-1,2-bis(diphenylphosphino)ethylene; Ar = C6F5, C6H5, C6H4CH3-p)

M. Warren, Shishir Ghosh, G. Hogarth, 2017 .

Hydrogenase biomimetics: structural and spectroscopic studies on diphosphine-substituted derivatives of Fe2(CO)6(µ-edt) (edt = ethanedithiolate) and Fe2(CO)6(µ-tdt) (tdt = 1,3-toluenedithiolate)

Md. Kamal Hossain, Shishir Ghosh, G. Hogarth, 2016, Transition Metal Chemistry.

Hydrogenase biomimetics: Fe2(CO)4(μ-dppf)(μ-pdt) (dppf = 1,1'-bis(diphenylphosphino)ferrocene) both a proton-reduction and hydrogen oxidation catalyst.

Shishir Ghosh, G. Hogarth, S. Kabir, 2014, Chemical communications.

Bio-inspired hydrogenase models: mixed-valence triion complexes as proton reduction catalysts.

Shishir Ghosh, G. Hogarth, S. Kabir, 2011, Chemical communications.

Models of the iron-only hydrogenase: Reactions of [Fe2(CO)6(μ-pdt)] with small bite-angle diphosphines yielding bridge and chelate diphosphine complexes [Fe2(CO)4(diphosphine)(μ-pdt)]

G. Hogarth, I. Richards, F. I. Adam, 2007 .

Models of the iron-only hydrogenase: Structural studies of chelating diphosphine complexes [Fe2(CO)4(µ-pdt)(κ2P,P′-diphosphine)]

G. Hogarth, B. E. Sanchez, I. Richards, 2007 .

Synthesis, crystal structure and protonation of the asymmetric iron-only hydrogenase model [Fe2(CO)3(μ-pdt){μ,η2-Ph2PCH2CH2P(Ph)CH2CH2PPh2}] (pdt=SCH2CH2CH2S)

G. Hogarth, I. Richards, Idris Richards, 2007 .

Crystal and molecular structures of dppm-bridged diiron dithiolate complexes [Fe2(CO)4(μ-SAr)2(μ-dppm)] (Ar=Ph, p-tol; Ar2=CN–p-tol)

G. Hogarth, D. Tocher, M. O'Brien, 2003 .

An atom efficient, single-source precursor route to plasmonic CuS nanocrystals

M. Thanou, S. Fairclough, G. Hogarth, 2018, Nanoscale advances.

Synthesis of ternary sulfide nanomaterials using dithiocarbamate complexes as single source precursors

G. Hogarth, N. Hollingsworth, A. Roffey, 2019, Nanoscale advances.

Mixed-metal cluster synthesis: [Re(CO)3(μ-S2NC7H4)]2 as a precursor for tri- and tetranuclear 2-mercaptobenzothiolato capped clusters

Md. Kamal Hossain, D. T. Haworth, S. Lindeman, 2010 .

Electrocatalytic proton reduction by thiolate-capped triiron clusters [Fe3(CO)9(μ3-SR)(μ-H)] (R = iPr, tBu)

M. Richmond, Shishir Ghosh, G. Hogarth, 2018, Inorganica Chimica Acta.

Single-step co-deposition of nanostructured tungsten oxide supported gold nanoparticles using a gold–phosphine cluster complex as the gold precursor

P. Umek, S. Vallejos, C. Blackman, 2014, Science and technology of advanced materials.

Multimetallic Arrays: Symmetrical and Unsymmetrical Bi-, Tri-, and Tetrametallic Organometallic Complexes of Ruthenium(II) and Osmium(II)

G. Hogarth, J. Wilton‐Ely, A. Thompson, 2009 .

Multimetallic assemblies using piperazine-based dithiocarbamate building blocks.

G. Hogarth, K. Holt, J. Wilton‐Ely, 2008, Inorganic chemistry.

Multifunctional dithiocarbamates as ligands towards the rational synthesis of polymetallic arrays : An example based on a piperizine-derived dithiocarbamate ligand

G. Hogarth, J. Wilton‐Ely, D. Solanki, 2005 .

Reactivity of Hg(II) ortho-cyano-aminothiophenolate coordination polymers [Hg{SC6H3XN(C≡N)}]n with cyclic aromatic amines, Ph3P = E (E = O, S) and [HgCl2(κ2-phen)]

Shishir Ghosh, G. Hogarth, S. Al-Jibori, 2022, Journal of Coordination Chemistry.

Chemistry, pharmacology, and cellular uptake mechanisms of thiometallate sulfide donors

M. Singer, A. Dyson, David Zander, 2020, British journal of pharmacology.

Copper Dithiocarbamates: Coordination Chemistry and Applications in Materials Science, Biosciences and Beyond

G. Hogarth, D. Onwudiwe, 2021, Inorganics.

Following the Creation of Active Gold Nanocatalysts from Phosphine-Stabilized Molecular Clusters

C. Prestipino, G. Sankar, G. Hogarth, 2012 .

The mixed-valence coordination polymer [Cu(S2CNPr2)2]2[ClO4] containing alternating square-planar Cu(II) and Cu(III) centres

G. Hogarth, S. Faulkner, 2013 .

Fe(ii) and Fe(iii) dithiocarbamate complexes as single source precursors to nanoscale iron sulfides: a combined synthetic and in situ XAS approach

W. Bras, H. Islam, N. D. de Leeuw, 2019, Nanoscale advances.

Mixed main group transition metal clusters: Reactions of [Ru 3 (CO) 10 (μ-dppm)] with Ph 3 SnH

H. Roesky, M. Richmond, Md. Mehedi M. Khan, 2017 .

Reversible C-H bond activation at a triosmium centre: A comparative study of the reactivity of unsaturated triosmium clusters Os3(CO)8(μ-dppm)(μ-H)2 and Os3(CO)8(μ-dppf)(μ-H)2 with activated alkynes

S. Mobin, H. Roesky, M. Richmond, 2017 .

Reactions of [Fe2(CO)6(μ-CO)(μ-dppm)] with alkynes: Stepwise synthesis of tropone at a dinuclear metal centre☆

M. Turner, A. Orpen, G. Hogarth, 1995 .

Synthesis and molecular structures of palladium(II) metalated 2-phenylpyridine complexes [PdCl(pyC6H4)L] containing amino- or acetylamino-pyridine co-ligands

M. Laguna, Shishir Ghosh, G. Hogarth, 2016 .

Thiosaccharinate binding to palladium(II) and platinum(II): Synthesis and molecular structures of sulfur-bound complexes [M(κ1-tsac)2(κ2-diphosphane)]

G. Hogarth, S. Al-Jibori, Mohamed H.S. Al-Jibori, 2013 .

Heteroleptic palladium(II) and platinum(II) complexes of 1,1-bis(diphenylphosphino)ferrocene (dppf) and heterocyclic thionates: Crystal structures of [Pt(Phozt)2(κ2-dppf)] (PhoztH = 5-phenyl-1,3,4-oxadiazole-2-thione) and [Pd(bzoxt)2(κ2-dppf)] (bzoxtH = benz-1,3-oxazoline-2-thione)

C. Wagner, G. Hogarth, S. Al-Jibori, 2012 .

Insight into the Nature of Iron Sulfide Surfaces During the Electrochemical Hydrogen Evolution and CO2 Reduction Reactions.

W. Bras, H. Islam, N. D. de Leeuw, 2018, ACS applied materials & interfaces.

Oxidative-addition of germanium–hydrogen bonds to triosmium centers: Reactions of Os 3 (CO) 10 (μ-dppm) and Os 3 (CO) 8 (μ 3 -Ph 2 PCH 2 P(Ph)C 6 H 4 )(μ-H) with Ph 3 GeH

Md. Jakir Hossain, Shishir Ghosh, G. Hogarth, 2016 .

Ring-closing metathesis and nanoparticle formation based on diallyldithiocarbamate complexes of gold(I): synthetic, structural, and computational studies.

Stefano Artin Serapian, A. White, G. Hogarth, 2014, Inorganic chemistry.

Multimetallic complexes of group 10 and 11 metals based on polydentate dithiocarbamate ligands.

Andrew J. P. White, A. White, G. Hogarth, 2011, Dalton transactions.

Synthesis and molecular structure of the molybdate-bridged cyclic imido complex [Mo(S2CNEt2)2(NR) (μ-MoO4)]2 (R = 2,6-iPr2C6H3)

G. Hogarth, T. A. Coffey, G. D. Forster, 1998 .

Dimolybdenum oxo-imido complexes: reactivity of [(MeC5H4)2Mo2O2(μ-O)(μ-NPh)] and crystal structure of [(MeC5H4)2Mo2O(S)(μ-O)(μ-NPh)]

G. Hogarth, D. Tocher, Joe Fletcher, 1991 .

A comparative study of the reactivity of the lightly stabilized cluster [Os-3(CO)(8){mu(3)-Ph2PCH2P(Ph)C6H4}(mu-H)] towards tri(2-thienyl)-, tri(2-furyl)- and triphenyl-phosphine

M. Richmond, Shishir Ghosh, G. Hogarth, 2014 .

Coordinatively and Electronically Unsaturated Tetraruthenium Clusters: Reversible Triple CO Addition to Ru4(CO)9(μ-PPh2)[μ4-Ph2PCC(Ph)CC(Ph)]

G. Enright, S. Peng, Gene-Hsiang Lee, 1998 .

Transition Metal Dithiocarbamates: 1978–2003

G. Hogarth, 2005 .

Substituted cyclopentadienyl compounds. Part V. NMR and extended Huckel studies of the isomeric preferences of some main group metal cyclopentadienide compounds and a reinvestigation of the crystal structure of thallium(I) tricyanovinylcyclopentadienide

D. Morton-Blake, G. Hogarth, M. Truter, 1998 .

Synthesis and molecular structure of the twelve-membered metallamacrocycle [Hg2(μ-2,6-dapy)2] (2,6-dapyH2 = 2,6-diacetamidopyridine)

C. Wagner, G. Hogarth, S. Al-Jibori, 2014 .

Backbone Modified Small Bite-Angle Diphosphines: Synthesis, Structure, Fluxionality and Regioselective Thermally-Induced Transformations of Ru3(CO)10{µ-Ph2PCH(Me)PPh2}

S. Rajbangshi, Shishir Ghosh, G. Hogarth, 2014, Journal of Cluster Science.

Backbone Modified Small Bite-Angle Diphosphines: Synthesis, Structure and Regioselective Thermal Rearrangements of Os3(CO)10{μ-Ph2PCH(Me)PPh2}

M. Richmond, Shishir Ghosh, G. Hogarth, 2012, Journal of Cluster Science.

Reactivity of the triruthenium ortho-metalated cluster [Ru-3(CO)(9){mu(3)- eta(1), kappa(1),kappa(2)-PhP( C6H4) CH2PPh}] with tri(2-thienyl) phosphine and tri( 2-furyl) phosphine: Formation of 1,3-diphenyl-2,3-dihydro-1H-1,3-benzodiphosphine complexes via phosphorus-carbon bond formation

Shishir Ghosh, G. Hogarth, S. Kabir, 2009 .

The chemistry of [M3(CO)10(μ-dppm)](M = Ru, Os): Activating and maintaining the trinuclear core

G. Hogarth, S. Kabir, 2009 .

Copper catalysed amidation of aryl halides through chelation assistance.

I. Nicholls, Shishir Ghosh, G. Hogarth, 2015, Chemical communications.

Organometallic chemistry in a conventional microwave oven: the facile synthesis of group 6 carbonyl complexes

G. Hogarth, M. Ardon, Daniel T.W Oscroft, 2004 .

Molybdenum(VI) imidodisulfur complexes formed via double sulfur–carbon bond cleavage of dithiocarbamates

G. Hogarth, T. A. Coffey, G. D. Forster, 1996 .

Synthesis and structural characterisation of dithiocarbamate-stabilised dimeric molybdenum(V) imido complexes via oxo substitution reactions with organic isocyanates

G. Hogarth, T. A. Coffey, G. D. Forster, 1995 .

Reversible insertion of an isocyanate into an imido moiety at a dimolybdenum centre. Synthesis and X-ray crystal structure of [Mo2(NPh)2(S2CNEt2)2(µ-NPh){µ-PhNC(O)NPh}]

G. Hogarth, G. D. Forster, 1993 .

Chapter 20. Organometallic chemistry of Bi- and polynuclear complexes

G. Hogarth, 1991 .

Dimolybdenum oxo-imido complexes: crystal structures of [(MeC5H4)2Mo2O2(μ-O)(μ-NPh)] and [(MeC5H4)MoO(μ-NPh)]2

G. Hogarth, D. Tocher, Joe Fletcher, 1991 .

Combining anti-cancer drugs with artificial sweeteners: synthesis and anti-cancer activity of saccharinate (sac) and thiosaccharinate (tsac) complexes cis-[Pt(sac)2(NH3)2] and cis-[Pt(tsac)2(NH3)2].

S. Timur, C. Wagner, Shishir Ghosh, 2014, Journal of inorganic biochemistry.

Illusive tungsten-imido-dithiocarbamate complexes: Facile carbon–nitrogen bond formation

G. Hogarth, N. Hollingsworth, A. Edwards, 2011 .

Molybdenum(VI) imido complexes: formation of [Mo(NPh)(S2CNR2)3]X and [Mo(NPh)(S2CNR2)2(μ-MoO4)]2 (R = Me, Et) from the reaction of [MoO2(S2CNR2)2] and PhNCO under aerobic conditions

G. Hogarth, Idris Richards, 2010 .

A steric preference for linear versus bent imido ligation? Synthesis and x-ray crystal structure of [Mo(NAr)2(edtc)2] (Ar = 2,6-iPr2C6H3; edtc = S2CNEt2) containing two linear imido moieties

A. Sella, G. Hogarth, T. A. Coffey, 1993 .

Interconversion of oxo and imido ligands at a dimolybdenum centre: molecular and electronic structure of [{Mo(η-C5H4Me)(NPh)(µ-NPh)}2]

Malcolm L. H. Green, G. Hogarth, P. Mountford, 1990 .

Imido ligand exchange at a molybdenum(V) centre

G. Hogarth, P. C. Konidaris, 1990 .

The interconversion of oxo and imido ligands at a dimolybdenum centre: X-ray crystal structure of [Mo(η-C5H4Me)(NPh)(μ-NPh)]2

Malcolm L. H. Green, G. Hogarth, P. Mountford, 1990 .

Reactions of the sigma,pi-furyl complex [Fe-2(CO)(6)(mu-Fu)(mu-PFu(2))] (Fu = C4H3O) with phosphines: Carbonyl substitution, migratory carbonyl insertion and cyclometallation-induced furan elimination

M. Haukka, Shishir Ghosh, G. Hogarth, 2014 .

Cadmium(II) thiosaccharinate (tsac) complexes: Crystal structures of [Cd(tsac)2(abtH)2] (abtH = 2-aminobenzothiazole), [Cd(tsac)2(bimsH)2] (bimsH = 2-mercaptobenzimidazole) and [Cd(μ-tsac)(tsac)(κ2-aapH)]2 (aapH = 2-acetylaminopyridine)

M. A. Al-Bayati, C. Wagner, G. Hogarth, 2017 .

Palladium(II) benzisothiazolinate (bit) complexes with amino-, acetylamino-, heterocyclic and phosphine co-ligands. Crystal structure of [Pd(bit)2(κ2-dppe)]·2EtOH

Safaa A. Ahmed, A. Karadağ, C. Wagner, 2015 .

Reactions of the lightly-stabilized triosmium cluster Os3(CO)8{μ3-Ph2PCH(Me)P(Ph)C6H4}(μ-H) with two-electron donor ligands

Shishir Ghosh, G. Hogarth, S. Kabir, 2020 .

Oxidative-addition of the N–H bond of saccharin (sacH) to a triosmium centre: Synthesis, structure and reactivity of Os3(CO)10(μ-H)(μ-sac)

S. Rajbangshi, Shishir Ghosh, G. Hogarth, 2015 .

Generation of sigma,pi-furyl and thienyl ligands at di-iron centers via facile phosphorus-carbon bond cleavage: Synthesis and molecular structures of [Fe-2(CO)(6)(mu-eta(1),eta(2)-C4H3E){mu-P(C4H3E)(2)}] (E = O, S)

M. Haukka, Shishir Ghosh, G. Hogarth, 2013 .

Reactivity of triruthenium furyne and thiophyne clusters : multiple additions of thiolato and selenolato ligands through oxidative addition of S–H and Se–H bonds

L. Salassa, Shishir Ghosh, G. Hogarth, 2012 .

Bridging allyl ligands upon allene insertion into electron-deficient triosmium-hydride clusters [Os3(CO)9(μ3-NSC7H3R)(μ-H)] (R = H, Me)

Shishir Ghosh, G. Hogarth, S. Kabir, 2011 .

Reaction of tri(2-furyl)phosphine with triosmium clusters: C-H and P-C activation to afford furyne and phosphinidene ligands

Md. Kamal Hossain, N. Begum, Shishir Ghosh, 2011 .

Cluster-mediated alkenyl isomerism and carbon–carbon bond formation: The reaction of the unsaturated benzothiazole cluster [Os3(CO)9(μ3-C7H4NS)(μ-H)] with dimethyl acetylenedicarboxylate

E. Rosenberg, Shishir Ghosh, G. Hogarth, 2010 .

Carbon-hydrogen bond activation of phenyldi(2-thienyl)phosphine at a triosmium cluster centre

Shishir Ghosh, G. Hogarth, S. Kabir, 2010 .

Reactivity of phenyldi(2-thienyl) phosphine towards group 7 metal carbonyls: Carbon-phosphorus bond activation

N. Begum, D. T. Haworth, S. Lindeman, 2009 .

Activation of tri(2-furyl)phosphine at a dirhenium centre: Formation of phosphido-bridged dirhenium complexes

D. T. Haworth, S. Lindeman, D. Bennett, 2009 .

Carbon−Phosphorus Bond Activation of Tri(2-thienyl)phosphine at Dirhenium and Dimanganese Centers

N. Begum, D. T. Haworth, S. Lindeman, 2009 .

Reactivity of triruthenium thiophyne and furyne clusters: competitive S-C and P-C bond cleavage reactions and the generation of highly unsymmetrical alkyne ligands.

Mohammad R. Hassan, N. Begum, G. Hogarth, 2008, Dalton transactions.

Reaction of [Ru3(CO)12] with tri(2-furyl)phosphine: Di- and tri-substituted triruthenium and phosphido-bridged diruthenium complexes

Mohammad R. Hassan, N. Begum, G. Hogarth, 2008 .

Chelate and bridge diphosphine isomerization: triosmium and triruthenium clusters containing 1,1-bis(diphenylphosphino)ferrocene (dppf)

U. Das, N. Begum, G. Hogarth, 2007 .

Bimetallic Osmium−Tin Clusters: Addition of Triphenyltinhydride to Unsaturated [Os3(CO)8{μ3-Ph2PCH2P(Ph)C6H4}(μ-H)] and Saturated [Os3(CO)10(μ-dppm)]

Mohammad R. Hassan, G. Hogarth, S. Kabir, 2007 .

Transformations of alkynyl ligands at iron centres: alkenyl formation via addition of PPh3 and enyne generation via head-to-head coupling and addition of benzene

J. Steed, D. Georganopoulou, G. Enright, 1999 .

Linking metal centres with diimido ligands: synthesis, electronic and molecular structure and electrochemistry of organometallic ditungsten complexes [{WCl2(Ph2PMe)2(CO)}2(N–X–N)] (X = π-conjugated organic)

W. Kim, T. J. Norman, G. Hogarth, 1999 .

Metal centres linked by bis(imido)phenylene ligands. Synthesis and X-ray crystal structures of 1,3- and 1,4-[{cis,trans-WCl2(Ph2PMe)2(CO)}2(µ-NC6H4N)]

T. J. Norman, G. Hogarth, Ruth L. Mallors, 1993 .

Small bite angle diphosphines: synthesis of Ph(p-tolyl)PCH2PPh(p-tolyl) upon lithium reduction of Ph2P(p-tolyl)—molecular structure of anti-[Mo(CO)4{Ph(p-tolyl)PCH2PPh(p-tolyl)}]

G. Hogarth, J. Kilmartin, 2008 .

Backbone modified small bite-angle diphosphines: Synthesis and molecular structures of [M(CO)4{X2PC(R1R2)PX2}] (M = Mo, W; X = Ph, Cy; R1 = H, Me, Et, Pr, allyl, R2 = Me, allyl)

G. Hogarth, J. Kilmartin, 2007 .

Multiple nitrene insertions into metal-sulfur bonds of dithiocarbamate complexes: synthesis of sulfido-amido and zwitterionic tetraamido complexes.

J. Steed, A. Sella, K. Holman, 2005, Dalton transactions.

Mercury(II) saccharinate (sac) complexes: Synthesis and molecular structures of [Hg(sac)2(2-ampy)2], [Hg(sac)2(2-ampy)(MeOH)], [Hg(sac)2(2-abt)(MeOH)], [Hg(sac)2(2-abt)(dmso)] (2-ampy = 2-aminopyridine, 2-abt = 2-aminobenzothiazole)

C. Wagner, G. Hogarth, S. Al-Jibori, 2014 .

Functionalised dithiocarbamate complexes : Synthesis and molecular structures of bis(2-methoxyethyl)dithiocarbamate complexes [M{S2CN(CH2CH2OMe)2}2] (M = Ni, Cu, Zn) and [Cu{S2CN(CH2CH2OMe)2}2][ClO4]

G. Hogarth, Idris Richards, Ebony-Jewel C.-R.C.R. Rainford-Brent, 2009 .

Metal-dithiocarbamate complexes: chemistry and biological activity.

G. Hogarth, 2012, Mini reviews in medicinal chemistry.

Functionalised dithiocarbamate complexes: Complexes based on indoline, indole and substituted piperazine backbones – X-ray crystal structure of [Ni(S2CNC3H6C6H4)2]

C. Anastasiadis, G. Hogarth, J. Wilton‐Ely, 2010 .

FUNCTIONALISED DITHIOCARBAMATE COMPLEXES: SYNTHESIS AND MOLECULAR STRUCTURES OF 2-DIETHYLAMINOETHYL AND 3-DIMETHYLAMINOPROPYL DITHIOCARBAMATE COMPLEXES [M{S2CN(CH2CH2NET2)2}N] AND [M{S2CN(CH2CH2CH2NME2)2}N] (N = 2, M = NI, CU, ZN, PD; N = 3, M = CO

G. Hogarth, S. Kabir, Qi Zhang, 2009 .

Multifunctional Dithiocarbamates: Synthesis and Ring-Closing Metathesis of Diallyldithiocarbamate Complexes

A. White, G. Hogarth, S. Naeem, 2010 .

New iron-sulphur clusters containing thiocarboxamide, amino-carbyne and amino-carbene ligands

Shishir Ghosh, G. Hogarth, S. Naher, 2021 .

Two new monofunctional platinum(II) dithiocarbamate complexes: phenanthriplatin-type axial protection, equatorial-axial conformational isomerism, and anticancer and DNA binding studies.

Z. Rehman, T. Kondratyuk, G. Hogarth, 2020, Dalton transactions.

Monofunctional platinum(II) dithiocarbamate complexes: synthesis, characterization and anticancer activity

J. Pezzuto, T. Kondratyuk, M. Tahir, 2016 .

Doping Group IIB Metal Ions into Quantum Dot Shells via the One‐Pot Decomposition of Metal‐Dithiocarbamates

Thomas J. Macdonald, T. Nann, I. Parkin, 2015 .

Copper-Doped CdSe/ZnS Quantum Dots: Controllable Photoactivated Copper(I) Cation Storage and Release Vectors for Catalysis

T. Nann, I. Parkin, A. Mayes, 2013, Angewandte Chemie.

The crystal structure of [Cu(S2CNC4H8O)2]: An interesting structural motif constructed by intermolecular S⋯S and C–H⋯Cu interactions

G. Hogarth, S. Faulkner, 2013 .

In Situ XAS of the Solvothermal Decomposition of Dithiocarbamate Complexes

W. Bras, H. Islam, N. H. Leeuw, 2013 .

Oxidative-addition of thiuram disulfides to osmium(0): Synthesis of cis-[Os(CO)2(S2CNR2)2] (R = Me, Et, Cy, CH2CH2OMe) and molecular structures of cis-[Os(CO)2(S2CNMe2)2] and [(MeOCH2CH2)2NCS]2

Mohammad R. Hassan, H. Alt, G. Hogarth, 2012 .

The functionalisation of ruthenium(II) and osmium(II) alkenyl complexes with amine- and alkoxy-terminated dithiocarbamates.

G. Hogarth, S. Naeem, A. White, 2010, Dalton transactions.

Bifunctional dithiocarbamates: a bridge between coordination chemistry and nanoscale materials.

G. Hogarth, A. Cowley, J. Wilton‐Ely, 2009, Dalton transactions.

Synthesis and crystal structure of [Ru8(μ5-S)2(μ4-S)(μ3-S)(μ-CNMe2)2(μ-CO)(CO)15] formed via the double sulphur–carbon bond cleavage of dithiocarbamate ligands

G. Hogarth, A. Deeming, Caroline S. Forth, 2007 .

Allyl palladium dithiocarbamates and related dithiolate complexes as precursors to palladium sulfides

B. Harvey, G. Hogarth, A. Birri, 2007 .

A dithiocarbamate-stabilized copper(I) cube

G. Hogarth, S. Faulkner, D. Cardell, 2006 .

Molecular structure of tetranuclear [{Mo2O(S2CNEt2)(η1-O2CCF3)(μ-N-o-tol)2}2(μ-O)(μ-O2CCF3)2] formed upon addition of trifluoroacetic acid to syn-[MoO(μ-N-o-tol)(S2CNEt2)]2

G. Hogarth, Idris Richards, 2006 .

Cyclopentadienyl ruthenium(II) dithiocarbamate complexes: Crystal structures of [CpRu(PPh3)(S2CNPr2)] and [CpRu(PPh3)(S2CNMeBu)]

G. Hogarth, S. Faulkner, 2006 .

Synthesis of cis-[Ru(CO)2(S2X)2] [X = CNMe2, COEt, PPh2, P(OEt)2] and Molecular Structure of [Ru(CO){η2-S2P(OEt)2}{μ,η1,η2-S2P(OEt)2}]2

G. Hogarth, A. Deeming, Caroline S. Forth, 2006 .

Reactions of trans-[RuCl2(CO)2(PEt3)2] with 1,1-dithiolates: Stepwise formation of cis-[Ru(CO)(PEt3)(S2X)] (X = CNMe2, CNEt2, COEt, P(OEt)2, PPh2)

G. Hogarth, A. Deeming, Caroline S. Forth, 2006 .

A comparative study of the coordination of saccharinate (sac), thiosaccharinate (tsac) and benzisothiazolinate (bit) ligands to trans-[PdCl2(H2NBz)2]: molecular structure of cis-[Pd(bit)2(H2NBz)2]

C. Wagner, G. Hogarth, S. Al-Jibori, 2017, Transition Metal Chemistry.

Facile synthesis and molecular structure of the tris(amine) complex [PdCl(H2NBz)3]Cl·H2O

G. Hogarth, S. Al-Jibori, Sucharita Basak-Modi, 2015 .

Palladium(II) saccharinate complexes trans-[Pd(sac)2(LH)2] with amino- and acetylamino-pyridine co-ligands: molecular structures of trans-[PdCl2(2-ampyH)2].2dmf (2-ampyH = 2-amino-3-methylpyridine) and trans-[Pd(κ2-2-acmpy)2] (2-acmpyH = 2-acetylamino-3-methylpyridine)

C. Wagner, G. Hogarth, S. Al-Jibori, 2014, Transition Metal Chemistry.

Palladium(II) saccharinate (sac) and thiosaccharinate (tsac) complexes with supporting amino- and acetylamino-thiazole ligands: Crystal structures of trans-[PdCl2(abzt)2]·dmf (abzt = 2-aminobenzothiazole), trans-[PdCl2(bzta)2].dmf (bzta = 2-acetylaminobenzothiazole) and trans-[Pd(sac)2(abzt)2]·2dmf

C. Wagner, G. Hogarth, S. Al-Jibori, 2014 .

Palladium(II) saccharinate (sac) and thiosaccharinate (tsac) complexes with 2-aminopyridine (2-ampy), 2-acetylaminopyridine (2-aampy) and 2-acetylaminopyrimidine (2-aampym) co-ligands: X-ray crystal structures of trans-[Pd(sac)2(ampy)2] and solvatomorphs trans-[Pd(sac)2(2-aampy)2]·S (S = CHCl3, thf)

C. Wagner, G. Hogarth, S. Al-Jibori, 2013 .

Synthesis and structures of chromium tricarbonyl complexes of benzylic halides and benzylic alcohols

J. Steed, P. Garratt, G. Hogarth, 2000 .

Synthesis and characterization of η3-allyl palladium(II) complexes with Ph2P(S)CHP(S)Ph2 and OC(CF3)CHCO(C4H3S) co-ligands

G. Hogarth, E. Subaşı, 2005 .

Multiple nitrene insertions into the copper–sulfur bonds ofdithiocarbamate ligands: synthesis and molecular structure of thetetraamido complex[Cu{η2-RNSC(NMe2)SNR}2] (R= SO2C6H4Me-p)

A. Sella, G. Hogarth, A. Pateman, 1997 .

Crystal structures of copper(III) dithiocarbamate complexes [Cu(η2-S2CNMe2)2][ClO4] and [Cu(η2-S2CNEt2)2][FeCl4] with and without anion–cation interactions

G. Hogarth, Simon P. Redmond, A. Pateman, 2000 .

Alkyne addition across imido and sulfido moieties: Molecular structure of the 1-thio-2-iminoene complex [Mo{eta(2)-PhNC(R)=C(R)S}{eta(1),eta(3)-SC(R)=C(R)C(NEt2)S}(S2CNEt2)] (R=CO2Me)

G. Hogarth, G. D. Forster, 1997 .

Microwave-assisted synthesis of cyclopentadienone iron tricarbonyl complexes: molecular structures of [{η4-C4R2C(O)C4H8}Fe(CO)3] (R = Ph, 2,4-F2C6H3, 4-MeOC6H4) and attempts to prepare Fe(II) hydroxycyclopentadienyl–hydride complexes

C. Richard, G. Hogarth, D. Macmillan, 2018, Transition Metal Chemistry.

Reductive coupling of alkynes to give ruthenium and osmium clusters of the type [M3(1,3-diene)(µ3-X)(CO)8] containing µ-η2,η2- or η4-1,3-diene

J. Steed, S. Ali, G. Hogarth, 1999 .

Biosketch of Shariff Enamul Kabir

Shishir Ghosh, G. Hogarth, E. Rosenberg, 2021 .

Highly efficient electrocatalytic proton-reduction by coordinatively and electronically unsaturated Fe(CO)(κ2-dppn)(κ2-tdt)

M. Richmond, Shishir Ghosh, G. Hogarth, 2019, Inorganica Chimica Acta.

Phosphine addition to the sigma,pi-thienyl complex [Fe-2(CO)(6)(mu-Th)(mu-PTh2)] (Th = C4H3S): Carbonyl substitution and migratory carbonyl insertion to give the thienyl-acyl complexes [Fe-2(CO)(4)(diphosphine)(mu-O=C-Th)(mu-PTh2)]

Md. Kamal Hossain, M. Haukka, Shishir Ghosh, 2015 .

Synthesis, structure and reactivity of tetranuclear square-type complexes of rhenium and manganese bearing pyrimidine-2-thiolate (pymS) ligands: versatile and efficient precursors for mono- and polynuclear compounds containing M(CO)(3) (M = Re, Mn) fragments.

H. Roesky, S. Ghosh, G. Hogarth, 2009, Dalton transactions.

para-Ethynyl aniline as a building block for fully π-conjugated ligands and acetylide complexes: crystal structures of trans-[Pt(PPh3)2(CCC6H4NH2)2] and [(μ-H)Ru3(CO)9(μ3-CCC6H4NH2)]

A. Orpen, G. Hogarth, A. Deeming, 2000 .

A comparative study of the coordination of saccharinate, thiosaccharinate and benzisothiozolinate ligands to cyclometalated [Pd(Me2NCH2C6H4-κN,C)(μ-Cl)]2: Molecular structures of [Pd(Me2NCH2C6H4-κN,C)(µ-X)]2 (X = sac, bit and tsac) and [Pd(Me2NCH2C6H4-κN,C)Cl(ampyH-κN)] (ampyH = 2-amino-3-methylpyri

C. Wagner, G. Hogarth, Ahmed S. M. Al-Janabi, 2018, Inorganica Chimica Acta.

Correlating Enantioselectivity with Activation Energies in the Asymmetric Hydrogenation of Acetophenone Catalysed by Noyori-Type Complexes

C. Catlow, G. Hogarth, H. Chen, 2011 .

trans-Fe(II)(H)2(diphosphine)(diamine) complexes as alternative catalysts for the asymmetric hydrogenation of ketones? A DFT study.

C. Catlow, G. Hogarth, H. Chen, 2011, Dalton transactions.

Phosphine-promoted ring-opening of benzisothiazolinate ligands at a nickel(ii) centre: a convenient synthesis of Ni(ii)-thiolate complexes.

C. Wagner, G. Hogarth, Ahmed S. M. Al-Janabi, 2019, Dalton transactions.

Synthesis and reactivity towards amines of benzisothiazolinate-bridged paddlewheel dimers [M2(μ-bit)4·2H2O] (M = Mn, Co, Ni, Cu)

C. Wagner, G. Hogarth, Ahmed S. M. Al-Janabi, 2019, Inorganica Chimica Acta.

Synthesis and electrochemistry of dimolybdenum crown ether imido complexes

Malcolm L. H. Green, G. Hogarth, G. C. Saunders, 1991 .

Formation of ortho-cyano-aminothiophenolate ligands with versatile binding modes via facile carbon-sulfur bond cleavage of 2-aminobenzothiazoles at mercury(II) centres.

C. Wagner, Shishir Ghosh, G. Hogarth, 2015, Dalton transactions.

Electrocatalytic proton-reduction behaviour of telluride-capped triiron clusters: tuning of overpotentials and stabilization of redox states relative to lighter chalcogenide analogues.

M. Richmond, D. Hrovat, G. Lisensky, 2020, Dalton transactions.

Substituted cyclopentadienyl compounds: III. NMR and molecular orbital study of conformational preferences in some substituted (η5- cyclopentadienyl)-rhodium(η4-diene) compounds and the crystal structure of (η5-methanoylcyclopentadienyl)- (η4-2,3-dimethoxybutadiene)rhodium(I)☆

D. Morton-Blake, G. Hogarth, G. Kubal, 1994 .

Ethylene elimination upon addition of acids to the μ-ethenyl complex [Fe2(CO)4(μ-η2-HC=CH2)(μ-PCy2)(μ-dppm)]: Synthesis of halide- and carboxylate-bridged diiron carbonyl complexes

G. Hogarth, D. Glushove, Mark H. Lavender, 1997 .

Substituted cyclopentadienyl compounds: IV. NMR spectra of chloro-substituted (η5-cyclopentadienyl)-rhodium-(η4-diene) compounds and the crystal structure of (η5-chlorocyclopentadienyl)-(η4-2,3-dimethoxybutadiene)rhodium (I)

G. Hogarth, M. Arthurs, J. Bickerton, 1994 .

Chalcogenide-capped triruthenium clusters: X-ray structures of [Ru3(CO)6(μ3-CO){P(C4H3S)3}(μ-dppm)(μ3-O)] and [(μ-H)2Ru3(CO)6{P(C4H3S)3}(μ-dppm)(μ3-S)]

Shishir Ghosh, G. Hogarth, S. Kabir, 2011 .

Synthesis and structure of sulfur and selenium capped dihydride triruthenium clusters [Ru3(CO)7(μ-H)2(μ-dppm)(μ3-E)] (E = S, Se)

N. Begum, C. Richard, G. Hogarth, 2009 .

Chalcogenide-capped triiron clusters [Fe3(CO)9(μ3-E)2], [Fe3(CO)7(μ3-CO)(μ3-E)(μ-dppm)] and [Fe3(CO)7(μ3-E)2(μ-dppm)] (E = S, Se) as proton-reduction catalysts

M. Haukka, M. Richmond, G. Lisensky, 2019, Journal of Organometallic Chemistry.

The rational synthesis of tetranuclear heterometallic butterfly clusters: reactions of [M2(CO)6(μ-pyS)2] (M = Re, Mn) with group VIII metal carbonyls

D. T. Haworth, S. Lindeman, Shishir Ghosh, 2010 .

Synthesis and molecular structures of the 52-electron triiron telluride clusters [Fe3(CO)8(μ3-Te)2(κ2-diphosphine)] - Electrochemical properties and activity as proton reduction catalysts

M. Richmond, G. Lisensky, G. Hogarth, 2018, Journal of Organometallic Chemistry.

Synthesis of Fe4(CO)8(µ-PPh2)2(µ4-η1,η1,η2,η2-C2Ph)2via coupling of acetylides at a binuclear centre: a molecule with through-the-cluster carbon–carbon bonding?

G. Enright, G. Hogarth, G. Frapper, 1997 .

Synthesis of [Ru-3(CO)(9)(mu-dppf){P(C4H3E)(3)}] (E = O, S) and thermally induced cyclometalation to form [(mu-H)Ru-3(CO)(7)(mu-dppf){mu(3)-( C4H3E)(2)P(C4H2E)}] (dppf=1,1 '-bis(diphenylphosphino) ferrocene)

Md. Kamal Hossain, M. Richmond, S. Rajbangshi, 2014 .

Diphosphine-induced thiolate-bridge scission of [Re(CO)3(μ,κ2-S,N-thpymS)]2 (thpymS = 1,4,5,6-tetrahydropyrimidine-2-thiolate): Structural and computational studies of configurational isomers of [Re(CO)3(κ2-S,N-thpymS)]2(μ,κ1,κ1-dppe)

S. Mobin, M. Richmond, Shishir Ghosh, 2018, Journal of Organometallic Chemistry.

Re2(CO)6(μ-thpymS)2 (thpymSH = pyrimidine-2-thiol) as a versatile precursor to mono- and polynuclear complexes: X-ray crystal structures of fac-Re(CO)3(PPh3)(κ2-thpymS) and two isomers of ReRu3(CO)13(μ3-thpymS)

M. Richmond, Shishir Ghosh, G. Hogarth, 2013 .

Centrosymmetric [Mn2(CO)6(μ-thpymS)2] (thpymS = tetrahydropyrimidine-2-thionato) as a synthon to mixed-metal clusters

K. Fatema, Shishir Ghosh, G. Hogarth, 2011 .

A one step synthesis of phosphine substituted sulphur capped clusters from phosphine sulphides: X-ray crystal structures of [Fe3(CO)8(µ2-CO)(µ3-S)(Ph2PC2Pri)] and [Ru3(CO)8(µ3-S)2(Ph2PC2But)]

N. Taylor, G. Hogarth, A. Carty, 1988 .

Dinuclear Iron Compounds with Iron-Iron Bonds

G. Hogarth, G. Hogarth, 2006 .

Generation of a bridging ethenyl ligand at a di-iron centre via carbonphosphorus bond cleavage

G. Hogarth, 1991 .

Reactions of M2(CO)9L (M = Re, Mn; L = CO, MeCN) with thioacetamide and thiobenzamide: Facile metal-mediated nitrogen–hydrogen bond activation and subsequent carbon–nitrogen or sulfur–sulfur bond formation

Shishir Ghosh, G. Hogarth, S. Kabir, 2013 .

Thiocarbyl ligands via elimination of pentafluorobenzene at a diiron centre: crystal structures of [Fe2(CO)4{μ-SC(Ph)CH}(μ-dppm)] and [Fe2(CO)4{μ-SCHC(Ph)C(O)}(μ-dppm)]

G. Hogarth, D. Tocher, M. O'Brien, 2003 .

Stereoselective alkyne insertion into a bridging hydride at a diiron centre: cis–trans isomerisation and metallacycle formation

G. Hogarth, Mark H. Lavender, 1994 .

γ-Hydroxypropyl-functionalised iron thiolate complexes: crystal and molecular structure of [{Fe2(CO)6(μ-SCH2CH2CH2OH)}2(μ4-S)]

G. Hogarth, E. Subaşı, Idris Richards, 2008 .

Diiron σ-π alkenyl complexes: crystal structures of cis-[Fe2(CO)4(μ-RCCH2)(μ-PPh2)(μ-dppm)], (R Ph, CH2OH), trans-[Fe2(CO)4(μ-HCCHPh)(μ-PPh2)(μ-dppm)] and the α,β-unsaturated acyl complex trans-[Fe2(CO)4{μ-OCC(Ph)CH2}(μ-PCy2)(μ-dppm)]

G. Hogarth, Mark H. Lavender, Khalid Shukri, 1997 .

Regioselective and reversible carbon-nitrogen bond formation: synthesis, structure and reactivity of ureato-bridged complexes [Mo2(NAr)2(mu-X){mu-ArNC(O)NAr}(S2CNR2)2](Ar = Ph, p-tol; X = S, NAr; R = Me, Et, Pr).

G. Hogarth, Idris Richards, 2005, Dalton Transactions.

Slow epimerization of stereochemically rigid diastereomers of the equatorially substituted cluster [Os3H2(mu 3-S)(CO)8((S)-PhCHMeNH2)].

J. Steed, G. Hogarth, A. Deeming, 2002, Chemical communications.

Variations in binding modes of 2-mercaptobenzoxazolates in the novel cyclic trinuclear complexes [Mn3(CO)10(μ-SCNOC6H4)3] and [Re3(CO)12(μ-SCNOC6H4)3]

Shishir Ghosh, G. Hogarth, A. Hoque, 2015 .

Reactions of alkynes with [Fe2(CO)6(μ-PPh2){μ-η 1:η2α,β=(H)C α=Cβ=CγH2}]: Formation of diphenylvinylphosphine-functionalized vinyl carbenes via carbon-carbon and carbon-phosphorus bond formation and hydrogen migration

M. Waugh, G. Hogarth, S. Doherty, 2000 .

Synthesis and reactivity towards unsaturated organics of the diiron hydride complex [Fe2(CO)4(µ-CO)(µ-H)-(µ-PPh2)(µ-Ph2PCH2PPh2)]

G. Hogarth, Mark H. Lavender, 1992 .

Carbon–phosphorus bond cleavage and carbon–carbon bond formation at a di-iron centre: formation of ethyl acrylate via extrusion of methylene from bis(diphenylphosphino)methane

M. Turner, G. Hogarth, S. Knox, 1990 .

Phosphorus–carbon bond cleavage at a di-iron centre. Conversion of µ-R2PCH2PR2 to µ-R2PCH2 and µ-PR2: crystal structures of [Fe2(CO)4(µ-Ph2PCH2)(µ-PPh2)(µ-Me2PCH2PMe2)] and [Fe2(CO)6{µ-PhPCH(Me)P(Ph)(C6H4-O)}]

A. Orpen, F. Melchior, G. Hogarth, 1986 .

Phosphorus-carbon bond cleavage at a di-iron centre: Synthesis of -phosphidomethyl complexes

A. Orpen, F. Melchior, G. Hogarth, 1992 .

Reactivity of the binuclear hydride [Fe2(CO)4(µ-H)(µ-CO)(µ-PPh2)(µ-Ph2PCH2PPh2)] to generate phosphido and hydroxide moieties at the diiron centre

G. Hogarth, Mark H. Lavender, 1993 .

Reactivity of [Fe2(CO)6(μ-CO)(μ-dppm)] towards unsaturated sulfur-containing compounds, SO2, CS2 and ArNCS: facile carbon–sulfur bond cleavage at the diiron centre

G. Hogarth, Mark H. Lavender, Khalid Shukri, 2000 .

Diiron-Hydride Complexes: Synthesis, Structure, and Reactivity of trans-[Fe2(CO)4(.mu.-H)(.mu.-CO)(.mu.-PCy2)(.mu.-Ph2PCH2PPh2)]

G. Hogarth, Mark H. Lavender, Khalid Shukri, 1995 .

α–βAlkenyl isomerisation at diiron centres

G. Hogarth, S. Doherty, W. Clegg, 2001 .

Thermal reactions of dimanganese decacarbonyl with tetraalkyldiphosphine disulfides (R=Me, Et, Prn, Bun) and crystal structure of [Mn2(CO)8(μ-PBun2)2]

G. Hogarth, Fadime Sarýkahya, Ozan Sanlý Þentürk, 2002 .

Molecular design using electrostatic interactions. Part 3: Synthesis and properties of chromium tricarbonyl complexes of cationic mono-, di- and tripodands

P. Garratt, G. Hogarth, A. Christofi, 2001 .

Diiron acetylide complexes: Molecular structures of [Fe2(CO)4(μ-C≡CPh) (μ-PPh2)(μ-dppm)] and [Fe2(CO)3(Ph2PC≡CPh)(μ-C≡CPh) (μ-PPh2) (μ-dppm)]

G. Hogarth, Simon P. Redmond, 1997 .

Reactions of σ-π alkenyl complexes [Fe2(CO)6(μ-alkenyl)(μ-PPh2)] with bis(diphenylphosphino)methane (dppm); carbonyl substitution, migratory carbonyl insertion, phosphorus–carbon bond formation and cleavage, proton shift and alkenyl isomerisation reactions

G. Enright, G. Hogarth, S. Doherty, 1999 .

Generation of a µ3-vinylidene ligand via step-wise cleavage of 1,1-bis(diphenylphosphino)ethylene at di- and tri-iron centres

A. Orpen, G. Hogarth, S. Knox, 1988 .

The reactivity of bridging hydride ligands at the di-iron centre. Synthesis and reactivity towards alkynes of [Fe2(CO)6(μ-H)(μ-CO)(μ-dppm)][BF4]. X-ray crystal structure of [Fe2(CO)6(μ-PhCCH2)(μ-dppm)][BF4]

G. Hogarth, J. Boothman, 1992 .

Competitive nucleophilic attack between carbon and metal atoms in bridging hydrocarbyls: x-ray structures of Fe2(CO)5(.mu.-PPh2)[.mu.-C:C(Ph)PPh2CH2PPh2], a novel zwitterionic vinylidene complex, and Fe2(CO)4(.mu.-PPh2)(.mu.2-.eta.2-C.tplbond.CCHMe2)(.mu.-Ph2PCH2CH2PPh2), a diphosphine-bridged acety

N. Taylor, G. Hogarth, S. Doherty, 1992 .

Stepwise synthesis of tropone from ethyne and carbon monoxide at a di-iron centre: crystal structure of [Fe2(CO)4(µ-C6H6CO)(µ-Ph2PCH2PPh2)]

M. Turner, A. Orpen, G. Hogarth, 1988 .

Diphosphine Mobility at a Binuclear Metal Center: A Concerted Double Trigonal-Twist in Bis(dithiolate) Complexes [M2(CO)4(μ-dppm){μ-S(CH2)nS}] (M = Fe, Ru; n = 2, 3)

G. Hogarth, S. Kabir, Idris Richards, 2010 .

Linking metal centres with 1,4-bis(diphenylphosphino)-2,5-difluorobenzene (dpfb): syntheses and molecular structures of [{Mo(CO)4(µ-dpfb)}2] and [{Mo(CO)4}2(µ-dpfb)(µ-dppa)](dppa = Ph2PCCPPh2)

T. J. Norman, G. Hogarth, 1996 .

Electrochemistry of dimolybdenum complexes containing oxo, imido, and sulphido moieties. A measure of their relative π-donor abilities ?

G. Hogarth, G. C. Saunders, P. C. Konidaris, 1991 .

The interconversion of quasi-planar butterfly and tetrahedral tetraruthenium cluster geometries: X-ray crystal structure of tetrahedral [H2ru4(CO)10(µ-PPh2)2]

N. Taylor, G. Hogarth, A. Carty, 1990 .

Reactions of [CpM(CO)3]2 (M = Mo, W) with Ph3SnSR: formation of CpM(CO)3(SnPh3) and CpM(CO)2(κ2-SR) via Sn–S bond cleavage

Shishir Ghosh, G. Hogarth, S. Kabir, 2015 .

Zero-valent Group 6 complexes of 1,2,4,5-tetrakis(diphenylphosphino) benzene

T. J. Norman, G. Hogarth, 1996 .

Transformation of dimetallacyclopentanes into beta-substituted enamine-, alkylidene-, and alpha,beta-unsaturated acyl-bridged diiron complexes

M. Waugh, N. Rees, G. Hogarth, 1998 .

Planar 64-electron butterfly clusters with elongated metal–metal bonds: synthesis and molecular structures of Ru4(CO)13(µ-PPh2)2 and Ru4(CO)10(µ-PPh2)4

N. Taylor, G. Hogarth, A. Carty, 1988 .

Linking metal centres with bis(diphenylphosphino)acetylene (DPPA): Syntheses and molecular structures of [{Mo(CO)4(μ-DPPA)}2] and [{Mo(CO)3}2(μ-DPPA)3]

T. J. Norman, G. Hogarth, 1996 .

Models of the iron-only hydrogenase: Synthesis and protonation of bridge and chelate complexes [Fe 2 (CO) 4 {Ph 2 P(CH 2 ) n PPh 2 }(μ-pdt)] ( n = 2–4) – evidence for a terminal hydride intermediate

G. Hogarth, S. Kabir, F. I. Adam, 2008 .

Palladium(II) complexes with 2-acetylamino-5-mercapto-1,3,4-thiadiazolate (amta) ligands: Molecular structures of the all trans dipalladium “paddlewheel” Pd2(μ-amta)4 and Pd(κ1-amta)2(κ2-dppe)

G. Hogarth, S. Al-Jibori, N. Hollingsworth, 2012 .

Bent vs. linear imido ligation at the octahedral molybdenum(VI) dithiocarbamate stabilised centre

G. Hogarth, P. Barrie, T. A. Coffey, 1999 .

An exhibition of different coordination modes displayed by 2-vinylpyrazine and 2-vinylpyridine at triosmium centres ☆

Shishir Ghosh, G. Hogarth, S. Kabir, 2017 .

Two versatile new routes to dinuclear molybdenum dithiolene complexes

A. Abbott, G. Hogarth, M. J. Morris, 1998 .

Crystal and molecular structures of syn and anti isomers of [MoO(μ-NAr)(S2CNR2)]2 (R = Et, Pr; Ar = Ph, p-tolyl)

G. Hogarth, Idris Richards, 2005 .

Electron Rich Cluster Chemistry: Synthesis and Molecular and Electronic Structures of the Series of Clusters Ru4(CO)13(.mu.-PR2)2 with Expanded Metal Frameworks

N. Taylor, G. Hogarth, S. Doherty, 1994 .

Migratory insertion and CO substitution reactions of the β,γ-unsaturated esters and amides [Fe2(CO)5(μ-PPh2)μ-η 1:η2-{NuC(O)CH2}C=CH2}] (Nu = OMe, OEt, OPri, NHPh, NHBut): Synthesis and characterisation of acyl-bridged

M. Waugh, G. Hogarth, S. Doherty, 2001 .

Complexes of 1,2,4,5-tetrakis(diphenylphosphino)benzene. Synthesis and X-ray crystal structure of [{(CO)3Fe}2{μ-η2-η2-(Ph2P)2C6H2(PPh2)2}]

G. Hogarth, 1991 .

Generation of a Bridging Ethenyl Ligand at a Diiron Center via Carbon‐ Phosphorus Bond Cleavage.

G. Hogarth, 1991 .

Synthesis and molecular structure of [Fe2(CO)3{μ-η1,η2,η1,η1-OCC(Ph)CH2}(μ-PPh2)(η2-dppe)] a π-bound α,β-unsaturated acyl complex

G. Hogarth, S. Doherty, 1998 .

Hydrogenase biomimics containing redox-active ligands: Fe2(CO)4(μ-edt)(κ2-bpcd) with electron-acceptor 4,5-bis(diphenylphosphino)-4-cyclopenten-1,3-dione (bpcd) as a potential [Fe4-S4]H surrogate.

M. Richmond, D. Hrovat, M. Warren, 2019, Dalton transactions.

Synthesis and structural characterisation of the dimeric tetraimido complex [Mo(N-o-toly)(η2-S2CNEt2)(μ-N-o-tolyl)]2

G. Hogarth, G. D. Forster, 1995 .

Linking metal centres with 1,4-bis(diphenylphosphino)but-2-yne (DPPBu): syntheses and molecular structures of [{Mo(CO)4(μ-DPPBu)}2] and [{Mo(CO)4(ν2-DPPBu)}3{Mo(CO)}]

G. Hogarth, J. Pang, 1996 .

A comparative study of the electrochemical and proton-reduction behaviour of diphosphine-dithiolate complexes [M2(CO)4(μ-dppm){μ-S(CH2)nS}] (M = Fe, Ru; n = 2, 3)

Shishir Ghosh, G. Hogarth, S. Kabir, 2017, Transition Metal Chemistry.

The μ3-cyclopentadienylidene ligand: X-ray structure of [Ru4(CO)5{P(OMe)3} (μ3-C5H4)2(η-C5H5)2]

A. Orpen, G. Hogarth, Nigel J. Forrow, 1984 .

New molecular architectures containing low-valent cluster centres with di- and trimetalated 2-vinylpyrazine ligands: synthesis and molecular structures of Ru5(CO)15(μ5-C4H2N2CH Created by potrace 1.16, written by Peter Selinger 2001-2019 CH)(μ-H)2 and Ru8(CO)24(μ7-C4H2N2CHC)(μ-H)3

V. Nesterov, M. Richmond, Shishir Ghosh, 2019, RSC advances.

Trinuclear clusters containing 2-aminopyridinate/pyrimidinate ligands as electrocatalysts for proton reduction

Shishir Ghosh, G. Hogarth, 2017 .

Synthesis and in vitro cytotoxicity studies of Pd(II) and Pt(II) acetamide complexes: Molecular structures of trans-[PdCl2(bzmta)2].DMF (bzmta = 2-acetylamino-6-methylbenzothiazole) and cis-[PtCl2(bzta)2].2DMF (bzta = 2-acetylaminobenzothiazole)

C. Wagner, G. Hogarth, Ahmed S. M. Al-Janabi, 2020 .

Synthesis and molecular structure of [Cu(NH3)4][Ni(CN)4]: A missing piece in the [Cu(NH3)n][Ni(CN)4] story

G. Hogarth, D. Solanki, 2015 .

Bio-inspired CO2 conversion by iron sulfide catalysts under sustainable conditions.

J. Darr, C. Catlow, W. Bras, 2015, Chemical communications.

Induction of Necroptosis in Cancer Stem Cells using a Nickel(II)-Dithiocarbamate Phenanthroline Complex.

M. Hemann, P. M. Bruno, K. Suntharalingam, 2017, Chemistry.

Syntheses, spectroscopy, and X-ray structures of 3-{(R)-(Ar)-ethylimino}-1,3-dihydro-indol-2-one (Ar = Ph, MeOC6H4, BrC6H4, 1-naphthyl) and [Rh(η4-cod){3-((R)-(Ar)-ethylimino)-3H-indol-2-olato}]

G. Hogarth, M. Enamullah, A. Uddin, 2012 .

Double sulfur-carbon bond cleavage of a dithiocarbamate ligand at a molybdenum(VI) centre; synthesis and X-ray structure of the disulfur complex [Mo(NPh)(S2)(edtc)2] (edtc = S2CNEt2)

G. Hogarth, T. A. Coffey, G. D. Forster, 1993 .

Some Observations of the Effects of Oxygen on the Minority Carrier Lifetime and Optical Absorption of Silicon Crystals pulled in vacuo

F. A. Johnson, G. W. Green, G. Hogarth, 1957 .

Models of the iron-only hydrogenase enzyme: structure, electrochemistry and catalytic activity of Fe2(CO)3(μ-dithiolate)(μ,κ1,κ2-triphos).

M. Richmond, Shishir Ghosh, G. Hogarth, 2019, Dalton transactions.

An unexpected leading role for [Fe2(CO)6(μ-pdt)] in our understanding of [FeFe]-H2ases and the search for clean hydrogen production

G. Hogarth, 2023, Coordination Chemistry Reviews.

Microwave-Assisted Reflux in Organometallic Chemistry: Synthesis and Structural Determination of Molybdenum Carbonyl Complexes

G. Hogarth, M. Ardon, P. Hayes, 2002 .

Para-Functionalised Molybdenum Aryl–Imido Complexes [Mo(NAr)(S2CNEt2)2Cl2] and Diimido Complexes [{Mo(S2CNEt2)2Cl2}2(μ-1,5-NC10H6N)] and [{Mo(S2)(S2CNEt2)2}2 (μ-p-NC6H4N)]

T. J. Norman, G. Hogarth, Simon P. Redmond, 1999 .

Replacement of imido by disulfido at the molybdenum(VI) centre: reactivity of bis(imido) complexes [Mo(η2-S2CNEt2)2(NR)2] with hydrogen sulfide and Lawesson's reagent: X-ray crystal structure of [Mo(η2-S2CNEt2)2(η2-S2)(N-2,6-Cl2C6H3)]

G. Hogarth, T. A. Coffey, Simon P. Redmond, 2000 .

Biomimics of [FeFe]-hydrogenases with a pendant amine: Diphosphine complexes [Fe2(CO)4{µ-S(CH2)nS}{κ2-(Ph2PCH2)2NR}] (n = 2, 3; R = Me, Bn) towards H2 oxidation catalysts

J. Cockcroft, G. Hogarth, F. Hartl, 2023, Journal of Organometallic Chemistry.

Molecular design using electrostatic interactions. Part 4: Synthesis and properties of flexible tetrapodand tetracations derived from naphthalene. Role of structured water in the electrostatic binding of polyanion guests: a model for interactions in biological systems

J. Steed, P. Garratt, G. Hogarth, 2002 .

Contents lists available at SciVerse ScienceDirect

Kurt Merzweiler, Harry Schmidt, Christoph Wagner, 2013 .

Synthesis of diaryl dithiocarbamate complexes of zinc and their uses as single source precursors for nanoscale ZnS

J. Cockcroft, D. J. Lewis, G. Hogarth, 2023, Inorganica Chimica Acta.

Synthesis, structure and reactivity with phosphines of Hg(II) ortho-cyano-aminothiophenolate complexes formed via C-S bond cleavage and dehydrogenation of 2-aminobenzothiazoles.

C. Wagner, Shishir Ghosh, G. Hogarth, 2022, Dalton transactions.

Reactivity of bis(diphenylphosphino) methane at a di-iron centre: thermally induced rearrangements of dimetallacyclopentenone complexes [Fe2(CO)5{μ-σ:η3-C(O)CRCr}(μ-dppm)]

A. Orpen, G. Hogarth, S. Knox, 1996 .

Formation of ortho-cyano-aminothiophenolate ligands with versatile binding modes via facile carbon-sulfur bond cleavage of 2-aminobenzothiazoles at mercury(II) centres.

M. Dincǎ, Shishir Ghosh, G. Hogarth, 2015, Dalton transactions.

An displayed by and 2-vinylpyridine at triosmium centres

Shishir Ghosh, G. Hogarth, S. Kabir, 2017 .

Synthesis and characterization of η3-allyl palladium(II) complexes, [(η3-allyl)Pd(S2X)] (X = CNMe2, CNEt2, COEt, PPh2)

G. Hogarth, E. Subaşı, 2005 .

Phase control during the synthesis of nickel sulfide nanoparticles from dithiocarbamate precursors.

C. Catlow, H. Islam, N. H. Leeuw, 2016, Nanoscale.