C. Pickett

发表

On the use of pH titration to quantitatively characterize colloidal nanoparticles.

T. Nann, W. Parak, G. Charron, 2012, Langmuir : the ACS journal of surfaces and colloids.

Electrochemical measurements as a probe for the investigation of the structure of metal carbonyls

D. Pletcher, C. Pickett, 1975 .

Synthesis and anodic polymerisation of an L-cystine derivatised pyrrole; copolymerisation with a tetraalkylammonium pyrrole allows reduction of the cystinyl film to a cysteinyl state that binds electroactive {Fe4S4}2+ centres

K. Ryder, J. Moutet, C. Pickett, 1992 .

Synthesis of the H-cluster framework of iron-only hydrogenase

Xin Yang, Luca De Gioia, Lai‐Sheng Wang, 2005, Nature.

Electronic Communication between Dithiolato-Bridged Diiron Carbonyl and S-Bridged Redox-Active Centres

S. Fairhurst, C. Pickett, S. Best, 2019, Inorganics.

Detection of Transient Intermediates Generated from Subsite Analogues of [FeFe] Hydrogenases.

Joseph A. Wright, Joseph A Wright, N. T. Hunt, 2016, Inorganic chemistry.

Towards a Functional Model of the [FeFe]‐Hydrogenase: Dihydrogen Oxidation

Joseph A. Wright, Joseph A Wright, C. Pickett, 2012 .

Probing the effect of the solution environment on the vibrational dynamics of an enzyme model system with ultrafast 2D-IR spectroscopy

N. T. Hunt, C. Pickett, G. Bonner, 2010 .

Artificial hydrogenases: assembly of an H-cluster analogue within a functionalised poly(pyrrole) matrix.

Y. Alias, P. Woi, C. Pickett, 2010, Chemical communications.

The third hydrogenase: a ferracyclic carbamoyl with close structural analogy to the active site of Hmd.

Joseph A. Wright, Joseph A Wright, V. Oganesyan, 2010, Angewandte Chemie.

Mounting a hydrogenase analog on calixarenes—designing a nature‐inspired solid state catalyst for fuel cells by density functional theory

C. Redshaw, H. Kasai, C. Pickett, 2008 .

Controlling carbon monoxide binding at di-iron units related to the iron-only hydrogenase sub-site.

Xiaoming Liu, C. Pickett, Q. Luo, 2008, Chemical communications.

Electropolymeric materials incorporating subsite structures related to iron-only hydrogenase: active ester functionalised poly(pyrroles) for covalent binding of {2Fe3S}-carbonyl/cyanide assemblies.

Xiaoming Liu, C. Pickett, C. Tard, 2007, Chemical communications.

On the electronic structure of the hydrogenase H-cluster.

J. W. Peters, C. Pickett, R. Szilagyi, 2006, Chemical communications.

Bioinorganic reaction centres on electrodes. Modified electrodes possessing amino acid, peptide and ferredoxin-type groups on a poly(pyrrole) backbone

K. Ryder, C. Pickett, 1994 .

A di-iron dithiolate possessing structural elements of the carbonyl/cyanide sub-site of the H-centre of Fe-only hydrogenase

C. Pickett, D. Hughes, David J Evans, 1999 .

Transient FTIR spectroelectrochemical and stopped-flow detection of a mixed valence (Fe(I)-Fe(II)) bridging carbonyl intermediate with structural elements and spectroscopic characteristics of the di-iron sub-site of all-iron hydrogenase.

S. Fairhurst, S. George, C. Pickett, 2002, Chemical communications.

The di-iron subsite of all-iron hydrogenase: mechanism of cyanation of a synthetic [2Fe3S]-carbonyl assembly.

S. George, C. Pickett, M. Razavet, 2002, Chemistry.

Probing the Electronic Structure of the Di-Iron Subsite of (Fe)-Hydrogenase: A Photoelectron Spectroscopic Study of Fe(I)-Fe(I) Model Complexes

Lai‐Sheng Wang, Xin Yang, Xue‐Bin Wang, 2003 .

A novel {FeI-FeII-FeII-FeI} iron thiolate carbonyl assembly which electrocatalyses hydrogen evolution.

Xiaoming Liu, C. Pickett, D. Hughes, 2005, Chemical communications.

Structure and vibrational dynamics of model compounds of the [FeFe]-hydrogenase enzyme system via ultrafast two-dimensional infrared spectroscopy.

I. Clark, A. Parker, M. Towrie, 2008, The journal of physical chemistry. B.

Ferracyclic carbamoyl complexes related to the active site of [Fe]-hydrogenase.

Joseph A. Wright, Joseph A Wright, C. Pickett, 2013, Dalton transactions.

The Third Hydrogenase: More Natural Organometallics

Joseph A Wright, C. Pickett, Peter J. Turrell, 2010 .

Electron transfer at a dithiolate-bridged diiron assembly: electrocatalytic hydrogen evolution.

Xiaoming Liu, T. Behrsing, C. Pickett, 2004, Journal of the American Chemical Society.

The mixed diol-dithiol 2,2-bis(sulfanylmethyl)propane-1,3-diol: characterization of key intermediates on a new synthetic pathway.

Joseph A Wright, C. Pickett, T. Simmons, 2011, Acta crystallographica. Section C, Crystal structure communications.

Nuclear inelastic scattering spectroscopy of tris(acetylacetonate)iron(III); A vibrational probe via the iron atom

J. E. Barclay, A. Chumakov, V. Oganesyan, 2011 .

Investigation of the Ultrafast Dynamics Occurring during Unsensitized Photocatalytic H2 Evolution by an [FeFe]-Hydrogenase Subsite Analogue

Joseph A. Wright, Pim W. J. M. Frederix, Joseph A Wright, 2014 .

Solution-phase photochemistry of a [FeFe]hydrogenase model compound: evidence of photoinduced isomerisation.

Joseph A. Wright, Pim W. J. M. Frederix, Joseph A Wright, 2012, The Journal of chemical physics.

Density Functional Calculations on Protonation of the [FeFe]-Hydrogenase Model Complex Fe2(μ-pdt)(CO)4(PMe3)2 and Subsequent Isomerization Pathways

Joseph A. Wright, Joseph A Wright, Caiping Liu, 2011 .

The role of CN and CO ligands in the vibrational relaxation dynamics of model compounds of the [FeFe]-hydrogenase enzyme.

Joseph A. Wright, Joseph A Wright, G. M. Greetham, 2011, Physical chemistry chemical physics : PCCP.

Anode modification to improve the performance of a microbial fuel cell volatile fatty acid biosensor

Amandeep Kaur, Richard M. Dinsdale, Alan J. Guwy, 2014 .

Iron-sulphur clusters in ionic polymers on electrodes

J. Moutet, C. Pickett, 1989 .

A Density Functional Analysis on the Photoelectronic Spectra of Fe-Only Hydrogenase Analogues

C. Redshaw, H. Kasai, C. Pickett, 2007 .

Carbon Monoxide and Binary Metal Carbonyls

C. Pickett, 2006 .

Solar fuels: visible-light-driven generation of dihydrogen at p-type silicon electrocatalysed by molybdenum hydrides.

Joseph A. Wright, Joseph A Wright, C. Pickett, 2012, Chemistry.

Iron–sulfur clusters in ionic polymers on electrodes

K. Ryder, J. Moutet, C. Pickett, 1993 .

An intramolecular W–H ⋯ OC hydrogen bond? Electrosynthesis and X-ray crystallographic structure of [WH3(η1-OCOMe)(Ph2PCH2CH2PPh2)2]

S. Fairhurst, R. Henderson, C. Pickett, 1995 .

The Chatt cycle and the mechanism of enzymic reduction of molecular nitrogen

C. Pickett, 1996, JBIC Journal of Biological Inorganic Chemistry.

Stepwise conversion of dinitrogen co-ordinated to molybdenum into an amine and an imido-complex. Relevance to the reactions of nitrogenase

C. Pickett, G. J. Leigh, W. Hussain, 1982 .

Electronic control of the protonation rates of Fe-Fe bonds.

Joseph A. Wright, Joseph A Wright, C. Pickett, 2014, Journal of the American Chemical Society.

[FeFe]‐Hydrogenase Models: Unexpected Variation in Protonation Rate between Dithiolate Bridge Analogues

Joseph A. Wright, Joseph A Wright, C. Pickett, 2011 .

Mechanistic aspects of the protonation of [FeFe]-hydrogenase subsite analogues.

Joseph A. Wright, Joseph A Wright, C. Pickett, 2010, Dalton transactions.

On the structure of a proposed mixed-valent analogue of the diiron subsite of [FeFe]-hydrogenase.

J. White, C. Pickett, S. Best, 2007, Chemical communications.

Electrocatalytic proton reduction by dithiolate-bridged diiron carbonyl complexes: a connection to the H-cluster?

M. Bondin, C. Pickett, S. Best, 2005, Biochemical Society transactions.

Coulomb- and antiferromagnetic-induced fission in doubly charged cubelike fe-s clusters.

Lai‐Sheng Wang, T. Ichiye, Xin Yang, 2002, Physical review letters.

Polyferredoxin-based electrode materials.

C. Pickett, D. Hughes, S. Ibrahim, 2000, Faraday discussions.

Exploring the reactivity of the isolated iron-molybdenum cofactor of nitrogenase

S. Fairhurst, R. Henderson, C. Pickett, 1999 .

Chemical Models, Theoretical Calculations, and the Reactivity of Isolated Iron-Molybdenum Cofactor

F. Barrière, C. Pickett, M. Durrant, 2004 .

Electron-transfer chemistry of the iron-molybdenum cofactor of nitrogenase: delocalized and localized reduced states of FeMoco which allow binding of carbon monoxide to iron and molybdenum.

K. Vincent, C. Pickett, S. Best, 2003, Chemistry.

Determination of the photolysis products of [FeFe]hydrogenase enzyme model systems using ultrafast multidimensional infrared spectroscopy.

Joseph A. Wright, Joseph A Wright, S. Santabarbara, 2010, Inorganic chemistry.

Paramagnetic bridging hydrides of relevance to catalytic hydrogen evolution at metallosulfur centers.

Joseph A. Wright, Joseph A Wright, S. Fairhurst, 2011, Journal of the American Chemical Society.

Towards alternatives to anodic water oxidation: basket-handle thiolate Fe(III) porphyrins for electrocatalytic hydrocarbon oxidation.

Joseph A. Wright, Joseph A Wright, C. Pickett, 2012, ChemSusChem.

Extended Hückel calculations on functional and structural models of the FeMo-cofactor of nitrogenase

F. Barrière, C. Pickett, J. Talarmin, 2001 .

On carboxylate as a leaving group at the active site of Mo nitrogenase: electrochemical reactions of some MO and W carboxylates, formation of mono-, di- and tri-hydrides and the detection of an MoH2(N2) intermediate

A. Fonseca, C. Pickett, J. Talarmin, 1994 .

Making the H-Cluster from Scratch

C. Pickett, 2014, Science.

The isolated iron–molybdenum cofactor of nitrogenase catalyses hydrogen evolution at high potential

C. Pickett, Barry E. Smith, T. L. Gall, 1999 .

Electrochemistry of molybdenum imides: cleavage of molybdenum–nitrogen triple bonds to release ammonia or amines†

Y. Alias, A. Fonseca, M. Queiros, 1997 .

The Chemistry of Nitrogen Fixation and Models for The Reactions of Nitrogenase

R. Henderson, C. Pickett, G. Leigh, 1983 .

Electrosynthesis of ammonia

C. Pickett, J. Talarmin, 1985, Nature.

Molecular Nitrogen and Dinitrogen Complexes

C. Pickett, 2006 .

Electrochemical generation of low-valent molybdenum tri-tertiary phosphine complexes: interactions with monophosphines and molecular nitrogen

G. Bossard, C. Pickett, J. Talarmin, 1992 .

Transformation of a methyleneamide ligand at molybdenum: electrochemical oxidation to a cyanide, reactions with elemental oxygen, sulphur or selenium and X-ray crystal structures of trans-[Mo(CN)Cl(dppe)2]·MeOH and trans-[Mo(NCS)Cl(dppe)2]; electroreduction of the cyanide to an aminocarbyne, trans-[

C. Macdonald, A. Hills, C. Pickett, 1991 .

Electrochemistry of ligands multiply bonded to molybdenum and tungsten

C. Macdonald, D. Lowe, C. Pickett, 1989 .

Electron-transfer reactions in nitrogen fixation. Part 1. The electrosynthesis of dinitrogen, hydride, isocyanide, and carbonyl complexes of molybdenum: intermediates, mechanisms, and energetics

C. Pickett, Talib I. Al-Salih, 1985 .

Towards a nitrogen-fixing cycle: electrochemical reduction of a hydrazido-complex of molybdenum(IV) under N2 to yield the dialkylhydrazine and a molybdenum(0) dinitrogen complex

C. Pickett, G. J. Leigh, 1981 .

Synergic binding of carbon monoxide and cyanide to the FeMo cofactor of nitrogenase: relic chemistry of an ancient enzyme?

K. Vincent, S. Fairhurst, C. Pickett, 2004, Chemistry.

Solar fuels: photoelectrosynthesis of CO from CO2 at p-type Si using Fe porphyrin electrocatalysts.

C. Pickett, Peiyi Li, S. Ibrahim, 2013, Chemistry.

Structural and functional analogues of the active sites of the [Fe]-, [NiFe]-, and [FeFe]-hydrogenases.

C. Pickett, C. Tard, 2009, Chemical reviews.

The isolated iron–molybdenum cofactor of nitrogenase binds carbon monoxide upon electrochemically accessing reduced states

K. Vincent, C. Pickett, S. Best, 1999 .

Electrochemical investigations on phospha ferrocenes

J. F. Nixon, N. Ignatiev, C. Pickett, 1997 .

Nuclear inelastic scattering spectroscopy of iron-sulfur cubane compounds.

J. E. Barclay, V. Oganesyan, U. Jayasooriya, 2004, Chemical communications.

An electrochemical and DFT study on selected β-diketiminato metal complexes

L. Maron, L. Perrin, C. Pickett, 2006 .

The electronic properties of isocyanides at rhenium—dinitrogen binding sites. Preparation and redox properties of the isocyanide complexes trans-[ReCl(CNR)(Ph2PCH2CH2PPh2)2]

A. Pombeiro, C. Pickett, R. L. Richards, 1982 .

Synthesis, reactivity, and electrochemistry of some new nitrides of molybdenum and tungsten: crystal structure of trinuclear [{µ-MoN(N3)2}{NMo(N3)(Et2PCH2CH2PEt2)2}2]

C. Pickett, Modher Y. Mohammed, D. Hughes, 1990 .

Investigations of the coordination chemistry of molybdenum with facultative tetradentate ligands possessing N2S2 donor sets. 2. Preparation, chemical characterization, and electrochemical study of the molybdenum(IV), molybdenum(V), and molybdenum(VI) oxo complexes

J. Zubieta, C. Pickett, P. Vella, 1982 .

Structural and functional analogues of the active sites of the [Fe]-, [NiFe]-, and [FeFe]-hydrogenases.

C. Pickett, C. Tard, 2009, Chemical reviews.

Electrochemical transformation of the molybdenum nitrosyl [Mo(NO)Cl(dttd)] dttd = 1,2-bis(2-mercaptophenylthio)ethane to give the oxide [MoO(1,2-C6H4S2)2]2– and either ammonia by protic attack or nitrite by oxygenation: new reactions which involve ethylene extrusion from the backbone of the sulphur

C. Pickett, S. Ibrahim, 1991 .

Chemistry and the hydrogenases.

C. Pickett, Christopher J Pickett, David J Evans, 2003, Chemical Society reviews.

Electrochemical generation of sulfur-ligated molybdenum(II) and molybdenum(III) substrate binding sites. Preparation and crystal structures of [MoCl(S2CNEt2)2(Ph2PCH2CH2PPh2)][BF4] and [MoCl(S2CNEt2)2(PPh2Me)2][PF6] and the mechanism of their electrochemical reduction

J. Zubieta, J. Dilworth, J. Chatt, 1983 .

Chromium, Molybdenum and Tungsten

C. Pickett, 2006 .

Electrochemical reduction of Group 6 metal hexacarbonyls in aprotic solvents

D. Pletcher, C. Pickett, 1976 .

Electrochemical oxidation and reduction of binary metal carbonyls in aprotic solvents

D. Pletcher, C. Pickett, 1975 .

Modeling [Fe-Fe] hydrogenase: evidence for bridging carbonyl and distal iron coordination vacancy in an electrocatalytically competent proton reduction by an iron thiolate assembly that operates through Fe(0)-Fe(II) levels.

Xiaoming Liu, M. Cheah, C. Pickett, 2007, Journal of the American Chemical Society.

Iron-only hydrogenase: Synthetic, structural and reactivity studies of model compounds

Xiaoming Liu, Cédric Tard, Xiaoming Liu, 2005 .

Preparation, X-ray crystal structure, and properties of [V(S2)2(terpy)]: intramolecular coupling of the sulphide ligands of [VS4]3–

C. Pickett, D. Hughes, F. T. Al-Ani, 1988 .

Molecular Hydrogen, Hydride, and Dihydrogen Complexes

C. Pickett, 2006 .

CONTROL OF THE REACTIVITY OF TRANS-MO2(CP)2(CO)(Y=Z)(MU -SR)2 (CP =ETA -C5H5; Y=Z = CO OR CN-) BY THE SULFUR SUBSTITUENTS (R = ME, PRI, BUT, PH OR CF3 ). CRYSTAL STRUCTURE OF TRANS- MO2(CP)2(CO)(CNME)(MU -SCF3)2

C. Pickett, J. Talarmin, D. Hughes, 1997 .

The iron centre of the cluster-free hydrogenase (Hmd): low-spin Fe(II) or low-spin Fe(0)?

Xiaoming Liu, C. Pickett, Q. Luo, 2008, Chemical communications.

Preparation and X-ray structure of [ReCl(Ph2PCH2CH2PPh2)2]

A. Pombeiro, C. Pickett, D. Hughes, 1983 .

From metal imides and molecular nitrogen to ammonia and dinitrogen complexes

C. Pickett, Modher Y. Mohammed, 1988 .

Structural and electronic comparison of 15- to 17-electron dichloro-complexes of molybdenum and rhenium: electrochemical behaviour and crystal structures of trans-[ReCl2(dppe)2]A (A = Cl or BF4; dppe = Ph2PCH2CH2PPh2), trans-[ReCl2(dppe)2] and [NBun4]2[trans-MoCl2(dppe)2][BF4]3

P. Hitchcock, A. Pombeiro, M. F. C. G. Silva, 1993 .

The aminocarbyne ligand CNH2: metal-centred synthesis from a cyanosilane, preparation and X-ray structure of trans-[ReCl(CNH2)(Ph2PCH2CH2PPh2)2]BF4

A. Pombeiro, C. Pickett, D. Hughes, 1986 .

Encapsulating [FeFe]-hydrogenase model compounds in peptide hydrogels dramatically modifies stability and photochemistry.

Joseph A. Wright, Pim W. J. M. Frederix, Joseph A Wright, 2012, Dalton transactions.

A hydroxy-carbene dinitrogen complex of rhenium

J. Chatt, C. Pickett, D. R. Stanley, 1980 .

Interconversion of CN and CNH2 ligands: electrosynthesis and X-ray crystallographic structures of trans-[W(CNH2)Cl(dppe)2] and trans-[W(CNH2)Cl(dppe)2][BF4](dppe = Ph2PCH2CH2PPh2): aminocarbyne (?C?NH2) or iminomethylenium (?C?NH2 +) ligands?

C. Pickett, D. Hughes, S. Ibrahim, 1994 .

Protonation of a subsite analogue of [FeFe]-hydrogenase: mechanism of a deceptively simple reaction revealed by time-resolved IR spectroscopy.

Joseph A. Wright, Joseph A Wright, C. Pickett, 2009, Chemical communications.

Ligand-centred chemistry of molybdenum organoimides. Formation of C–C bonds via generation of nitrogen ylides, stereospecific conversion of an allylimide into alkylvinyl-imides, liberation of cyanoformate or amino acid esters

A. Fonseca, S. Fairhurst, M. Queiros, 1995 .

Electrosynthesis of amino acids from a molybdenum nitride via nitrogen–carbon and carbon–carbon bond formation reactions involving imides and nitrogen ylides: X-ray structure of trans-[MoCl(NCHCO2Me)(Ph2PCH2CH2PPh2)2]·CH2Cl2

C. Macdonald, C. Pickett, D. Hughes, 1992 .

Anodic oxidation of metal carbonyls in trifluoroacetic acid; stabilities of some 17-electron cations

D. Pletcher, C. Pickett, 1976 .

From an {Fe4S4}-cluster to {Fe2S2}- and {Fe3S}-carbonyls. Crystal structure of [Fe3S(CO)9]2−

C. Pickett, D. Hughes, F. T. Al-Ani, 1986 .

Preparation and properties of mer-[ReCl(N2)(CNR){P(OMe)3}3](R = Me, Et, But, C6H4Me-4, or C6H4Cl-4) and [ReCl(N2)(CNMe)(PPh3){P(OEt)3}2]. X-Ray crystal structure of mer-[ReCl(N2)(CNMe){P(OMe)3}3] and reductive cleavage of the lsocyanide ligands to primary amines upon protonation

U. Schubert, A. Pombeiro, C. Pickett, 1985 .

Reactions of trans-[ReCl(N2)(Ph2PCH2CH2PPh2)2] with terminal acetylenes. Preparation and crystal structure of the vinylidene complex trans-[ReCl(CCHPh)(Ph2PCH2CH2PPh2)2]

A. Pombeiro, C. Pickett, J. Jeffery, 1984 .

An η2-allene complex of rhenium formed form an alkyne: X-ray structure of [ReCl(η2-H2C–CCHPh)(Ph2PCH2CH2PPh2)2]

A. Pombeiro, C. Pickett, D. Hughes, 1984 .

Electroreduction of co-ordinated cyanide to the aminocarbyne ligand (CNH2) and a pathway for isomerisation of ligating methyleneamide (NCH2): reactions at molybdenum of relevance to cyanide reduction by nitrogenase

C. Pickett, Modher Y. Mohammed, D. Hughes, 1989 .

Redox potential–structure relationships in metal complexes. Part 2. The influence of trans-substituents upon the redox properties of certain dinitrogen complexes of molybdenum and tungsten and some carbonyl analogues: inner-sphere versus outer-sphere electron transfer in the alkylation of co-ordinat

J. Chatt, C. Pickett, D. R. Stanley, 1980 .

Transition-metal binding sites and ligand parameters

J. Chatt, C. Pickett, D. R. Stanley, 1980 .

Conversion of a molybdenum nitride to the amide and thence to an oxide and ammonia, reactions involving formal 1,3-prototropic shifts. X-Ray structures of trans-[Mo(NH2)(OH)(dppe)2][OTf]2 and trans-[MoO(OMe)(dppe)2][BPh4](dppe = Ph2PCH2CH2PPh2; OTf = CF3SO3)

T. Adachi, C. Pickett, D. Hughes, 1995 .

Metallo-oxides in nitrogen fixation

C. Pickett, Modher Y. Mohammed, D. Hughes, 1988 .

Comparative electrochemistry of cis-MoOS2+, MoO22+, and MoS22+ centres in complexes of the type cis-[MoY2L2](Y = O and/or S, HL = 1-hydroxypiperidine). Comments on active and desulpho-forms of xanthine oxidase and xanthine dehydrogenase

C. Pickett, C. Garner, S. Bristow, 1984 .

Mechanistic Aspects of Biological Hydrogen Evolution and Uptake

Joseph A. Wright, Joseph A Wright, C. Pickett, 2014 .

All-iron hydrogenase: synthesis, structure and properties of {2Fe3S}-assemblies related to the di-iron sub-site of the H-clusterElectronic supplementary information (ESI) available: crystal and structure refinement data for complexes 4a, 4b and 5a. See http://www.rsc.org/suppdata/dt/b2/b209690k/

D. Hughes, Xiaoming Liu, S. Fairhurst, 2003 .

Iron-Molybdenum-Sulfur Clusters

G. Christou, D. Collison, C. Pickett, 1983 .

Determination of structural features of electrogenerated trans-[MoCl(NMe)(Ph2PCH2CH2PPh2)2]2+ by multinuclear electron paramagnetic resonance and electron nuclear double resonance spectroscopy and comparison of interatomic distances with those measured by X-ray analysis of the parent monocation

D. Lowe, C. Pickett, Modher Y. Mohammed, 1990 .

Electrogeneration of the molybdenum-molybdenum double bond from thiolate-bridged dinuclear precursors: carbon monoxide catalysed isomerisation about the MoMo bond

C. Pickett, J. Talarmin, F. Pétillon, 1990 .

Cis and trans isomers of tetrakis(dimethylphenylphosphine)bis(dinitrogen)tungsten

D. J. Rose, C. Pickett, B. B. Kaul, 1992 .

Electrochemical oxidation and reduction of binary metal carbonyls in aprotic solvents

D. Pletcher, C. Pickett, 1975 .

Electrocatalysis of hydrogen evolution by synthetic diiron units using weak acids as the proton source: Pathways of doubtful relevance to enzymic catalysis by the diiron subsite of [FeFe] hydrogenase

C. Pickett, S. Best, S. Borg, 2008 .

Titanium, Zirconium, and Hafnium

C. Pickett, 2006 .

X-Ray crystallographic analysis of D,L-[Fe2{SCH2CH(CH2OH)S}(CO)6] reveals a hydrogen-bonded cyclic hexamer with ordered optical centres

C. Pickett, D. Hughes, S. C. Davies, 2001 .

Dissecting the intimate mechanism of cyanation of {2Fe3S} complexes related to the active site of all-iron hydrogenases by DFT analysis of energetics, transition states, intermediates and products in the carbonyl substitution pathway.

L. De Gioia, M. Bruschi, Giuseppe Zampella, 2005, Chemistry.

The anion of pyrimidine-2-thiol as a ligand to molybdenum, tungsten, and iron. Preparation of complexes, their structure and reactivity

J. Zubieta, G. Huttner, C. Pickett, 1986 .

A DFT investigation on structural and redox properties of a synthetic Fe6S6 assembly closely related to the [FeFe]-hydrogenases active site

U. Ryde, M. Bruschi, Giuseppe Zampella, 2008 .

Water splitting by visible light: a nanophotocathode for hydrogen production.

Thomas Nann, Shu Xu, T. Nann, 2010, Angewandte Chemie.

Encapsulating Subsite Analogues of the [FeFe]-Hydrogenases in Micelles Enables Direct Water Interactions.

Joseph A. Wright, N. T. Hunt, Owen Brady, 2016, The journal of physical chemistry letters.

Poly(1-vinylimidazole-co-4-aminostyrene): steric stabilizer for polyaniline colloids

S. Armes, K. Ryder, C. Pickett, 1991 .

Solid-phase chemistry of electropolymers

M. Queiros, C. Pickett, T. L. Gall, 1997 .

A simple hydrocarbon electrolyte: completing the electron-transfer series [Fe4S4(SPh)4]1–/2–/3–/4–

C. Pickett, 1985 .

Muonium Chemistry at Diiron Subsite Analogues of [FeFe]‐Hydrogenase

Joseph A. Wright, V. Oganesyan, U. Jayasooriya, 2016, Angewandte Chemie.

Merrifield chemistry on electropolymers: protection/(photo)deprotection of amine functions

M. Queiros, S. Morlat-Therias, C. Pickett, 1998 .

Peptide derivatised poly(pyrrole) modified electrodes with built-in ion-exchange functions

C. Pickett, C. Sudbrake, S. K. Ibrahim, 1995 .

Modification of a tin oxide electrode by attachment of iron-sulphur clusters

C. Pickett, G. J. Leigh, R. Burt, 1976 .

The Third Hydrogenase: More Natural Organometallics

Joseph A. Wright, C. Pickett, Peter J. Turrell, 2010 .

Protonation of [FeFe]-hydrogenase sub-site analogues: revealing mechanism using FTIR stopped-flow techniques.

Joseph A. Wright, P. Woi, C. Pickett, 2011, Faraday discussions.

[FeFe] hydrogenase: protonation of {2Fe3S} systems and formation of super-reduced hydride states.

Joseph A. Wright, S. Fairhurst, C. Pickett, 2014, Angewandte Chemie.

Mechanism of alkylation of alkyldiazenido-complexes of molybdenum(II) and tungsten(II): influence of metal and co-ligands on the nucleophilicity of a diazenido-group

C. Pickett, W. Hussain, G. J. Leigh, 1986 .

Electrochemical carbon–carbon coupling of diazomethane ligands

R. Lester, A. Copenhaver, C. Pickett, 1982 .

{2Fe3S} clusters related to the di-iron sub-site of the H-centre of all-iron hydrogenases

C. Pickett, D. Hughes, S. C. Davies, 2001 .

The mechanism of the secondary alkylation of dinitrogen and the relationship between structure and reactivity in the alkylation of co-ordinated dinitrogen

D. A. Rankin, J. Chatt, C. Pickett, 1980 .

Electrochemical behaviour of organonitrile dinitrogen complexes of molybdenum(0) and tungsten(0) and the anchoring of a dinitrogen complex to an electrode surface

C. Pickett, G. J. Leigh, 1977 .

Synthesis of N-derivatised pyrroles: precursors to highly functionalised electropolymers

S. Fairhurst, M. Queiros, S. Morlat-Therias, 1999 .

Diazoalkane complexes of molybdenum and tungsten via hydrazido(2–) complexes

C. Pickett, W. Hussain, G. J. Leigh, 1988 .

Protonation of a subsite analogue of [FeFe]-hydrogenase: mechanism of a deceptively simple reaction revealed by time-resolved IR spectroscopy.

Joseph A. Wright, C. Pickett, 2009, Chemical communications.

On the reduction of iron–sulphur clusters under carbon monoxide

C. Pickett, F. T. Al-Ani, 1988 .

Probing the intrinsic electronic structure of the cubane [4Fe-4S] cluster: nature's favorite cluster for electron transfer and storage.

Xin Yang, Toshiko Ichiye, Shuqiang Niu, 2003, Journal of the American Chemical Society.