J. Corrigan

发表

Ferrocene-based trimethylsilyl chalcogenide reagents for the assembly of functionalized metal-chalcogen architectures.

A. Eichhöfer, C. Campana, Daniel G. Macdonald, 2011, Chemistry.

Formation of group 12 [Zn, Cd] mixed-chalcogen nanoparticles from the reagent Me3Si-SeS-SiMe3

Yining Huang, H. Rösner, Elizabeth A. Turner, 2007 .

ZnS and ZnSe Nanoparticles via Solid-State and Solution Thermolysis of Zinc Silylchalcogenolate Complexes

H. Rösner, M. Degroot, J. Corrigan, 2006 .

Copper Chalcogenolate Complexes as Precursors to Ternary Nanoclusters: Synthesis and Characterization of [Hg15Cu20S25(nPr3P)18]

N. Taylor, J. Corrigan, Diem T. T. Tran, 2000 .

Synthesis and characterization of ITr-protected group 11 metal trimethylsilylchalcogenolates

J. Corrigan, Dickron R. Nahhas, 2020 .

New polydentate trimethylsilyl chalcogenide reagents for the assembly of polyferrocenyl architectures.

Mahdi Hesari, M. Workentin, Bahareh Khalili Najafabadi, 2014, Chemistry.

Accessing HgSexS1−x Nanoparticles Using the Single-Source Reagent Me3Si–SeS–SiMe3

Yining Huang, H. Rösner, Elizabeth A. Turner, 2007 .

A N-Heterocyclic Carbene-Stabilized Coinage Metal-Chalcogenide Framework with Tunable Optical Properties.

F. Weigend, M. Stillman, Alexander M. Polgar, 2017, Journal of the American Chemical Society.

Zinc chalcogenolate complexes as capping agents in the synthesis of ternary II-II'-VI nanoclusters: structure and photophysical properties of [(N,N'-tmeda)5Zn5Cd11Se13(SePh)6(thf)2].

N. Taylor, M. Degroot, J. Corrigan, 2003, Journal of the American Chemical Society.

Enhancing Electrochemiluminescence of Chalcogenide Clusters by Means of Mn Replacement

F. Weigend, J. Turnbull, Mahdi Hesari, 2016 .

Polycarbon ligands: synthesis and characterization of the phosphinodiynes Ph2PC≡C-C≡CR (R = But, Ph, SiMe3), the μ-η1,η2α,β-butadiynyl complexes Ru2(CO)6-(μ-PPh2)(μ-η1,η2α,β-C≡C-C≡CR), and the molecular structure of a cobalt carbonyl derivative Ru2(CO)6(μ-PPh2)(μ-η1,η2α,β:-μ-η2,η2γ,δ-C≡C-C≡CBut)Co2(

N. Taylor, P. Blenkiron, A. Carty, 1996 .

A ternary Cu-Sn-S cluster complex--(NBu4)[Cu19S28(SnPh)12(PEt2Ph)3].

C. Su, S. Lebedkin, Jijun Jiang, 2012, Dalton transactions.

Chemistry of µ-η1: η2α,β-butadiynyls: chain extension on C4 polycarbon ligands

N. Taylor, P. Blenkiron, A. Carty, 1995 .

Nanocluster isotope distributions measured by electrospray time-of-flight mass spectrometry.

L. Konermann, Jiangjiang Liu, J. Corrigan, 2013, Analytical chemistry.

Highly Electron-Deficient Pyridinium-Nitrones for Rapid and Tunable Inverse-Electron-Demand Strain-Promoted Alkyne-Nitrone Cycloaddition.

M. Workentin, Wilson Luo, Praveen N. Gunawardene, 2019, Organic letters.

Chemistry on the rhomboidal Ru4 faces of the clusters RU4(CO)13(μ-PR2)2: Novel small molecule, ligand, and skeletal transformations

S. Doherty, M. Dinardo, A. Carty, 1992 .

Metal chalcogenide nanoclusters with ‘tailored’ surfaces via ‘designer’ silylated chalcogen reagents

Daniel G. Macdonald, J. Corrigan, 2010, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.

Molecular nanocluster analogues of CdSe/ZnSe and CdTe/ZnTe core/shell nanoparticles

N. Taylor, M. Degroot, J. Corrigan, 2004 .

New ferrocene based dithiolate ligands

Mahdi Hesari, M. Workentin, Bahareh Khalili Najafabadi, 2012 .

Ferrocenyl functionalized silver-chalcogenide nanoclusters.

C. Kübel, Daniel G. Macdonald, J. Corrigan, 2011, Inorganic chemistry.

A nanoscopic 3D polyferrocenyl assembly: the triacontakaihexa(ferrocenylmethylthiolate) [Ag48(mu4-S)6(mu(2/3)-SCH2Fc)36].

M. Workentin, S. Ahmar, N. Vijayaratnam, 2010, Angewandte Chemie.

Golden Opportunity: A Clickable Azide-Functionalized [Au25(SR)18]- Nanocluster Platform for Interfacial Surface Modifications.

M. Workentin, Praveen N. Gunawardene, J. Corrigan, 2019, Journal of the American Chemical Society.

ZnII and CdII Ferrocenechalcogenolate Complexes

T. P. Lebold, M. Workentin, Aneta Borecki, 2017 .

Metal–Chalcogenolate Complexes with Silyl Functionalities: Synthesis and Reaction Chemistry

M. Degroot, J. Corrigan, 2006 .

Functionalizing the surface of II-VI clusters: redox active centres on the adamantoid complex [Cd4Cl4[mu-(SeC5H4)Fe(C5H5)]6]2-.

T. P. Lebold, M. Workentin, J. Corrigan, 2003, Chemical communications.

Facile synthesis of a hexanuclear zinc-acetato-trimethylsilylphosphinidene cluster: a single-source precursor to Zn3P2 nanoparticles.

Yining Huang, J. Corrigan, Kyungseop Lee, 2019, Chemical communications.

N-heterocyclic carbene stabilized copper- and silver-phenylchalcogenolate ring complexes.

Bahareh Khalili Najafabadi, J. Corrigan, C. Khadka, 2012, Dalton transactions.

Synthesis of cyclopentadienyl ruthenium complexes containing 5-membered N-heterocyclic thiolates

D. Taher, M. Al-Noaimi, M. El‐khateeb, 2010 .

7.2 – High Nuclearity Clusters: Metal–Chalcogenide Polynuclear Complexes

J. F. Corrigan, M. Degroot, J. Corrigan, 2003 .

Butyltellurolate ligands in cluster synthesis: molecular structure of Ag6Te6, Ag32Te25 and Ag48Te36 complexes

D. Fenske, J. Corrigan, 1996 .

Elastomeric poly(propylene) : influence of catalyst structure and polymerization conditions on polymer structure and properties

N. Taylor, S. Collins, W. Gauthier, 1995 .

Syntheses and Characterizations

G. Schmid, U. Banin, E. Shevchenko, 2010 .

Organoborane-Modified Silica Supports for Olefin Polymerization: Soluble Models for Metallocene Catalyst Deactivation

H. Kim, N. Taylor, D. Kreller, 2002 .

Tuning the Metal/Chalcogen Composition in Copper(I)-Chalcogenide Clusters with Cyclic (Alkyl)(amino)carbene Ligands.

F. Weigend, S. Lebedkin, M. Stillman, 2019, Inorganic chemistry.

N-Heterocyclic carbene stabilized Ag-P nanoclusters.

J. F. Corrigan, Bahareh Khalili Najafabadi, J. Corrigan, 2015, Chemical communications.

Copper chalcogenide clusters stabilized with ferrocene-based diphosphine ligands.

Mahdi Hesari, M. Workentin, Bahareh Khalili Najafabadi, 2013, Inorganic chemistry.

Investigation of the Thermal Properties of a Series of Copper Selenide Cluster Molecules

A. Eichhöfer, H. Rösner, D. Fenske, 2007 .

Enhanced thermal stability of Cu-silylphosphido complexes via NHC ligation.

Bahareh Khalili Najafabadi, J. Corrigan, 2015, Dalton transactions.

New reagents for the synthesis of a series of ferrocenoyl functionalized copper and silver chalcogenolate complexes.

Daniel G. Macdonald, J. Corrigan, 2008, Dalton transactions.

A functionalized Ag₂S molecular architecture: facile assembly of the atomically precise ferrocene-decorated nanocluster [Ag₇₄S₁₉(dppp)₆(fc(C{O}OCH₂CH₂S)₂)₁₈].

Bahareh Khalili Najafabadi, J. Corrigan, Yiyi Liu, 2015, Angewandte Chemie.

A ferrocenylmethylselenolate complex of Ag(I): preparation of the polyferrocenyl cluster [Ag8(SeCH2Fc)8(PPh3)4] from the new silylated reagent FcCH2SeSiMe3

J. F. Corrigan, Christian Nitschke, D. Fenske, 2011 .

Aryl(trimethylsilyl)selenides as Reagents for the Synthesis of Mono- and Diselenoesters

D. Taher, J. Corrigan, 2011 .

Synthesis and Structural Characterization of Two Tetraruthenium Bis(phosphinidene) Clusters with 62- and 64-Electron Counts: Ru4(CO)11(μ4-PPh)(μ4-PNPri2) and Ru4(CO)12(μ4-PNPri2)2

G. Enright, N. Taylor, A. Carty, 1998 .

Synthesis and Reaction Chemistry of Zinc-Diarylphosphido Clusters with Phosphorus Precursors

Yining Huang, J. Corrigan, Kyungseop Lee, 2020 .

Crystalline Superlattices of Nanoscopic CdS Molecular Clusters: An X-ray Crystallography and 111Cd SSNMR Spectroscopy Study.

Yining Huang, Bryan E. G. Lucier, J. Corrigan, 2018, Inorganic chemistry.

Luminescent CdSe Superstructures: A Nanocluster Superlattice and a Nanoporous Crystal.

J. F. Corrigan, C. Kübel, Yining Huang, 2017, Journal of the American Chemical Society.

Homometallic and Heterometallic Transition Metal Allenyl Complexes: Synthesis, Structure, and Reactivity

S. Doherty, A. Carty, J. Corrigan, 1995 .

Recent advances in the self-assembly of polynuclear metal–selenium and –tellurium compounds from 14–16 reagents

J. F. Corrigan, Alexander M. Polgar, J. Corrigan, 2018, Physical Sciences Reviews.

New Copper Telluride Clusters by Light‐Induced Tellurolate–Telluride Conversions

D. Fenske, J. Corrigan, 1997 .

Synthesis and structural characterisation of new copper–tellurium clusters: TeBun(SiMe3) as a source of RTe– and Te2– ligands

D. Fenske, J. Corrigan, S. Balter, 1996 .

New electron rich Ru3P4 and Ru4P3 phosphido clusters: synthesis and molecular structures of the expanded triangular and butterfly clusters (μ-H)Ru3(CO)6(μ-PPh2)3[μ-P(Ph)C6H4] and (μ-H)2Ru4(CO)10(μ3-PPh)(μPPh2)2

N. Taylor, S. Doherty, A. Tiripicchio, 1993 .

Polynuclear bismuth selenolates: rings en route to clusters

M. Degroot, J. Corrigan, 2000 .

Facile Synthesis of High Nuclearity Silver–Ferrocenyldiselenolate Clusters

Christian Nitschke, D. Fenske, Andrew I. Wallbank, 2007 .

Metal Chalcogenide Clusters on the Border between Molecules and Materials

J. F. Corrigan, O. Fuhr, D. Fenske, 2009 .

Copper-chalcogenide clusters stabilised with linear bidentate phosphine ligands

D. Fenske, J. Corrigan, M. Semmelmann, 1998 .

New Reaction Pathways for μ-η1,η2-Allenyl Ligands: On−Off Allenyl Coordination and CO Insertion into the Hydrocarbyl Bridge in Ru2(CO)6(μ-PPh2){μ-η1,η2α,β-C(Ph)CCPh2}

N. Taylor, P. Blenkiron, S. Doherty, 1997 .

(Ge2P2)2-: a binary analogue of P4 as a precursor to the ternary cluster anion [Cd3(Ge3P)3]3.

F. Weigend, S. Dehnen, Xiulan Xie, 2018, Chemical communications.

Synthesis, characterization and electrochemistry of ferrocenylselenolate bridged palladium(II) and platinum(II) complexes

J. Corrigan, Martin J. Brown, 2004 .

Me3Si–SeS–SiMe3: A Reagent for the Synthesis of the Mixed Sulfo‐Selenide Cluster [Cu84Se42–xSx(PEt2Ph)24]

Yining Huang, Elizabeth A. Turner, J. Corrigan, 2007 .

Synthesis and Structural Characterization of [Cu20Se4(μ3-SePh)12(PPh3)6] and [Ag(SePh)]∞†

J. F. Corrigan, N. Taylor, Heather L. Cuthbert, 2002 .

Coinage metal coordination chemistry of stable primary, secondary and tertiary ferrocenylethyl-based phosphines.

J. Gilroy, P. Boyle, P. Ragogna, 2016, Dalton transactions.

Alk-2-ynyl Trimethylsilyl Chalcogenoethers by Nucleophilic Substitution of Propargyl Bromides

D. Taher, Elizabeth A. Turner, Heather L. Cuthbert, 2006 .

Polydentate chalcogen reagents for the facile preparation of Pd2 and Pd4 complexes.

Bahareh Khalili Najafabadi, J. Corrigan, M. Willans, 2015, Dalton transactions.

SILVER-TELLUROLATE POLYNUCLEAR COMPLEXES: FROM ISOLATED CLUSTER UNITS TO EXTENDED POLYMER CHAINS

W. Power, D. Fenske, J. Corrigan, 1997 .

A Controlled Route to a Luminescent 3 d10 -5 d10 Sulfido Cluster Containing Unique AuCu2 (μ3 -S) Motifs.

F. Weigend, T. Neumann, Carolyn Cadogan, 2016, Chemistry.

Synthesis of 62-electron square planar clusters with group 15 and 16 main group atoms: Structural characterization of Ru4(CO)11(μ4-PPh)(μ4-S) and Ru4(CO)10(μ4-PPh)(μ4-Se)(PEt3): Bonding preferences in cappingNido Ru4(CO)13(μ3-PPh)

N. Taylor, S. Doherty, A. Carty, 1991 .

A Homoleptic Silver-Ferrocenylselenolate: Synthesis and Characterization of [Ag4(fcSe2)3]2−

Andrew I. Wallbank, J. Corrigan, 2004 .

Large Metal Chalcogenide Clusters and Their Ordered Superstructures via Solvothermal and Ionothermal Syntheses

Yining Huang, J. Corrigan, Tetyana I Levchenko, 2016 .

Stable -ESiMe3 Complexes of Cu(I) and Ag(I) (E=S, Se) with NHCs: Synthons in Ternary Nanocluster Assembly.

Carolyn Cadogan, J. Corrigan, Tetyana I Levchenko, 2016, Chemistry.

Mono- and bis-silylated tellurium reagents in silver–telluride cluster synthesis: characterisation of Ag30Te21 and Ag46Te29 complexes

J. Corrigan, 1997 .

Probing the Metal Composition of Ternary 12–12′‐16 Nanoclusters via Electrospray Ionization Mass Spectrometry

J. F. Corrigan, L. Konermann, Ashlee J. Howarth, 2011 .

Preparation and luminescence properties of a M16 heterometallic coinage metal chalcogenide cluster.

F. Weigend, S. Lebedkin, Yannick J. Franzke, 2019, Dalton transactions.

Copper tellurolate clusters in trimethylsilylated MCM-41 Preparation and condensation

Yining Huang, H. Rösner, D. Fenske, 2006 .

Mixed transition metal-main group atom clusters as potential models for M[sub x]X (010) and M[sub 4] (100) surfaces. Synthesis and spectroscopic and structural characterization of M[sub 4](CO)[sub 13]([mu][sub 3]-PPh) (M = Ru, Os). Pyramidal clusters with M[sub 3]P square faces

N. Taylor, S. Doherty, S. Maclaughlin, 1993 .

Facile and quantitative activation of dihydrogen by the phosphinidene-stabilized ruthenium cluster Ru4(CO)13(.mu.3-PPh): synthesis and spectroscopic and structural characterization of (.mu.-H)2Ru4(CO)12(.mu.3-PPh)

N. Taylor, S. Doherty, A. Carty, 1992 .

[Ru4(CO)10(µ-CO)(µ4-PPh)(µ4-η2-PhNNPh)]: the first example of an azobenzene molecule coordinated on a square metal face

N. Taylor, S. Doherty, A. Carty, 1991 .

Triply bridged dicopper-bis(trimethylsilylchalcogenolates): Synthesis and characterization of the series of helical complexes [(Me3SiE-Cu)2(µ-Ph2PCCPPh2-κ2P)3] (E = S, Se, Te)

Andrew I. Wallbank, J. Corrigan, 2002 .

EXPANDED ELECTRON RICH POLYPHOSPHIDO CLUSTERS : A CLASS OF POLYNUCLEAR MOLECULES WITH UNUSUAL ELECTRONIC, MOLECULAR STRUCTURES AND REACTIVITY

Yan Sun, A. Carty, J. Corrigan, 1994 .

Phosphorus Monoxide Coordination Chemistry: Synthesis and Structural Characterization of Tetranuclear Clusters Containing a PO Ligand

G. Enright, S. Doherty, A. Carty, 1996 .

Reversible formation of ruthenium cluster (.mu.-H)Ru4(CO)10(.mu.-PPh2)[.mu.4-.eta.1(P),.eta.1(P),.eta.1(P),.eta.1,.eta.2-[C6H4]PPh] from the electron-rich cluster Ru4(CO)13(.mu.-PPh2)2: the first example of a molecule with a five-coordinate bis(aryl)phosphido bridge

N. Taylor, S. Doherty, A. Carty, 1992 .

Phenylene-1,4- and biphenylene-4,4′-diselenolate bridged complexes of gold(I)

N. Taylor, D. Taher, J. Corrigan, 2009 .

The first observation of 1J(Ru,P) in phosphorus-31 CP/MAS NMR spectra of solid ruthenium compounds

R. Wasylishen, S. Doherty, Yan Sun, 1993 .

Silylphosphido complexes of gold(I) coordinated with NHC ligands

Bahareh Khalili Najafabadi, J. Corrigan, 2016 .

Phosphorus chemical shift tensors of phosphido ligands in ruthenium carbonyl compounds: (31)P NMR spectroscopy of single-crystal and powder samples and ab initio calculations.

N. Taylor, G. Bernard, K. Feindel, 2002, Journal of the American Chemical Society.

A New Allenyl Bonding Mode in Binuclear Complexes: Characterization and Molecular Structures of M2(CO)6(.mu.-PPh2)(.mu.-.eta.1:.eta.2.beta..gamma.-C(Ph():C:CH2) (M = Ru, Os)

N. Taylor, S. Doherty, Yan Sun, 1994 .

Trialkylphosphine-stabilized copper-phenyltellurolate complexes: from small molecules to nanoclusters via condensation reactions.

M. Workentin, M. Degroot, J. Corrigan, 2001, Inorganic chemistry.

NHC‐Stabilized Bis(trimethylsilyl)phosphido Complexes of PdII and NiII

M. A. Fard, Bahareh Khalili Najafabadi, J. Corrigan, 2015 .

Reversible Formation of (μ‐H)Ru4(CO)10(μ‐PPh2)(μ4‐η1(P),. eta.1(P),η1(P),η1,η2‐(C6H4)PPh) from the Electron‐Rich Cluster Ru4(CO)13(μ‐PPh2)2: The First Example of a Molecule with a Five‐Coordinate Bis(aryl)phosphido Bridge

N. Taylor, S. Doherty, A. Carty, 1993 .

Controlled Solvothermal Routes to Hierarchical 3D Superparticles of Nanoscopic CdS

C. Kübel, Yining Huang, Di Wang, 2015 .

From molecule to materials: crystalline superlattices of nanoscopic CdS clusters.

C. Kübel, Yining Huang, J. Corrigan, 2011, Chemistry.

Phosphorus-31 chemical shift tensors of phosphinidene ligands in ruthenium carbonyl cluster compounds: A 31P single-crystal and CP/MAS-NMR study

N. Taylor, R. Wasylishen, K. Eichele, 1995 .

Enyne and Butatriene Ligands from the Reaction of Diynes on the Square Face of the Hydrido Phosphinidene Cluster (.mu.-H)2Ru4(CO)12(.mu.3-PPh)

N. Taylor, A. Carty, J. Corrigan, 1994 .

Tailored synthesis of hydrocarbon chains via carbon-carbon coupling reactions of diynes and alkynes on the square face of a ruthenium Ru4P cluster

N. Taylor, S. Doherty, A. Carty, 1992 .

Phosphorus Monoxide, the Analog of NO: Generation of Coordinated PO via Hydrolysis of an Aminophosphinidene Ligand. X-ray Structure of the Anion [Ru4(CO)12(.mu.3-PO)]-

N. Taylor, S. Doherty, A. Carty, 1994 .

Novel P–O bond forming reactions via coupling of phosphinidene and phosphidoxo groups on a tetranuclear ruthenium cluster: face capping Ph2POPR ligands and the X-ray structure of Ru4(CO)8(µ-CO)(µ3-η2-CCBut)[µ3-η2-PPh2(OPPh)]

N. Taylor, A. Carty, J. Corrigan, 1994 .

Metal Trimethylsilylthiolates for the Synthesis of Trinuclear MnPd2 Complexes

M. A. Fard, Bahareh Khalili Najafabadi, J. Corrigan, 2017 .

N-heterocyclic carbenes as effective ligands for the preparation of stabilized copper- and silver-t-butylthiolate clusters.

J. F. Corrigan, Bahareh Khalili Najafabadi, J. Corrigan, 2014, Dalton transactions.

Synthesis and Characterization of trans-PdII Trimethylsilylchalcogenolates

Daniel G. Macdonald, J. Corrigan, C. Khadka, 2010 .

Polycarbon ligand complexes: Synthesis, molecular structures, and selected EHMO studies of Ru-4, Ru-5, and Ru-6 clusters with carbon ligands derived from phosphinodiynes

G. Enright, N. Taylor, P. Low, 1998 .

Biphenylene-4,4'-diselenolate as a molecular bridge: Preparation and characterization of [PdCl(PnBu3)2Se-C6H4-C6H4-Se-PdCl(PnBu3)2]

Christian Nitschke, Andrew I. Wallbank, J. Corrigan, 2004 .

Simple but effective: thermally stable Cu-ESiMe3via NHC ligation.

F. Weigend, M. A. Fard, J. Corrigan, 2015, Chemical communications.

Synthesis and Characterization of Tris(trialkylphosphine)copper(I)trimethylsilylchalcogenolates

J. Corrigan, Diem T. T. Tran and, 2000 .

Tethered Polynuclear Copper–Chalcogenolate Assemblies Enabled via NHC Ligation

Alexander M. Polgar, J. Corrigan, M. Azizpoor Fard, 2020 .

Electron-rich cluster chemistry. Stepwise transformation of rhomboidal 64-electron Ru4(CO)13{.mu.-P(NiPr2)2}2 to 62-electron butterfly and 60electron tetrahedral clusters via .mu.4-.eta.2-CO coordination and hydrogenolysis

N. Taylor, S. Doherty, A. Carty, 1993 .

A molecular precursor approach for the synthesis of composition-controlled ZnxCd1−xS and ZnxCd1−xSe nanoparticles

J. F. Corrigan, H. Rösner, M. Degroot, 2008 .

Control of metal-ion composition in the synthesis of ternary II-II'-VI nanoparticles by using a mixed-metal cluster precursor approach.

H. Rösner, M. Degroot, J. Corrigan, 2006, Chemistry.

Homometallic and Heterometallic Transition‐Metal Allenyl Complexes: Synthesis, Structure, and Reactivity

S. Doherty, E. Sappa, A. Carty, 1995 .

Zinc chalcogenolate complexes as precursors to ZnE and Mn/ZnE (E = S, Se) clusters.

F. Weigend, A. Eichhöfer, J. Corrigan, 2012, Inorganic chemistry.

Facile Preparation of Wurtzite CuInE2 (E = S, Se) Nanoparticles Under Solvothermal Conditions.

Yining Huang, J. Corrigan, Xuzhao Zhao, 2016, Inorganic chemistry.

Trimethylsilylchalcogenolates of Co(II) and Mn(II): from mononuclear coordination complexes to clusters containing -ESiMe3 moieties (E = S, Se).

A. Powell, Yanhua Lan, D. Fenske, 2010, Inorganic Chemistry.

Accessing Binary CdE [E = S, Se, Te] and Ternary CdxZn1-xE [E = S, Se] Materials in Mesoporous Architectures Using Silylated-Chalcogen Reagents

Yining Huang, H. Rösner, Elizabeth A. Turner, 2007 .

Controlled synthesis of ternary II-II'-VI nanoclusters and the effects of metal ion distribution on their spectral properties.

N. Taylor, M. Degroot, J. Corrigan, 2005, Inorganic Chemistry.

Coordination Complexes of Zinc with Reactive ESiMe3 (E = S, Se, Te) Ligands

M. Degroot, J. Corrigan, 2005 .

Ternary nanoclusters of CuHgS, CuHgSe, and CuInS.

Nicholas R. Trefiak, N. Taylor, J. Corrigan, 2002, Inorganic chemistry.

Controlling the Structure, Properties and Surface Reactivity of Clickable Azide-Functionalized Au25(SR)18 Nanocluster Platforms Through Regioisomeric Ligand Modifications.

M. Workentin, Z. Ding, J. Wong, 2022, Angewandte Chemie.

A study of the behaviour of Cu6(TePh)6(PPh2Et)5 and related phosphine (PPh2Et) and phosphine oxide (Ph2EtPO) adsorbed in mesoporous molecular sieves

Yining Huang, J. Corrigan, C. M. Kowalchuk, 2005 .

Synthetic Routes to the Encapsulation of II–VI Semiconductors in Mesoporous Hosts

Yining Huang, Elizabeth A. Turner, J. Corrigan, 2005 .

Synthesis and molecular structure of the paramagnetic Co(II) bis(boryl) complex [Co(PMe3)3(Bcat)2 (cat = 1,2,-O2C6H4)

N. C. Norman, N. Taylor, C. Dai, 1996 .

Novel behaviour of dialkylamino-substituted propargylic alcohols in reactions with arene ruthenium(II) complexes

P. Dixneuf, A. Carty, S. Moreau, 1994 .

Main Group and Transition Metal-Selenolate Complexes: Rings to Clusters

M. Degroot, Andrew I. Wallbank, J. Corrigan, 2001 .

Preparation, characterization, and condensation of copper tellurolate clusters in the pores of periodic mesoporous silica MCM-41.

G. Schmid, Yining Huang, W. Meyer-Zaika, 2004, Inorganic chemistry.

Ferrocenyldiselenolate-stabilized copper-selenium clusters.

Christian Nitschke, D. Fenske, J. Corrigan, 2006, Inorganic chemistry.

Ferrocenyl-Passivated Nanoclusters: Synthesis of [Cu20Se6(Se2fc)4(PR2R‘)10] and [Cu40Se12(Se2fc)8(PPh3)9]

N. Taylor, Aneta Borecki, Andrew I. Wallbank, 2005 .

1,1′-Bis(trimethylsilylseleno)ferrocene in cluster synthesis: a redox active surface on a copper–selenide core

Andrew I. Wallbank, J. Corrigan, 2001 .

Phase Transitions of Naphthalene and Its Derivatives Confined in Mesoporous Silicas

Yining Huang, H. Rösner, J. Corrigan, 2011 .

Luminescent CdSe Superstructures: A Nanocluster Superlattice and a Nanoporous Crystal.

C. Kübel, Yining Huang, F. Lagugné-Labarthet, 2017, Journal of the American Chemical Society.

A functionalized Ag₂S molecular architecture: facile assembly of the atomically precise ferrocene-decorated nanocluster [Ag₇₄S₁₉(dppp)₆(fc(C{O}OCH₂CH₂S)₂)₁₈].

Bahareh Khalili Najafabadi, J. Corrigan, Yiyi Liu, 2015, Angewandte Chemie.

A nanoscopic 3D polyferrocenyl assembly: the triacontakaihexa(ferrocenylmethylthiolate) [Ag48(mu4-S)6(mu(2/3)-SCH2Fc)36].

M. Workentin, S. Ahmar, N. Vijayaratnam, 2010, Angewandte Chemie.

NHC Ligated Group 11 Metal-Arylthiolates Containing an Azide Functionality Amenable to "Click" Reaction Chemistry.

M. Workentin, Alexander M. Polgar, J. Corrigan, 2018, Inorganic chemistry.

N-heterocyclic carbene stabilized copper- and silver-phenylchalcogenolate ring complexes.

Bahareh Khalili Najafabadi, J. Corrigan, C. Khadka, 2012, Dalton transactions.

Ferrocene-based trimethylsilyl chalcogenide reagents for the assembly of functionalized metal-chalcogen architectures.

A. Eichhöfer, C. Campana, Daniel G. Macdonald, 2011, Chemistry.

Synthetic Routes to the Encapsulation of II—VI Semiconductors in Mesoporous Hosts

Yining Huang, Elizabeth A. Turner, J. Corrigan, 2006 .