V. Zanotti

发表

A Comparative Structural and Spectroscopic Study of Diiron and Diruthenium Isocyanide and Aminocarbyne Complexes

F. Marchetti, G. Pampaloni, G. Ciancaleoni, 2022, Inorganica Chimica Acta.

DFT Mechanistic Insights into the Alkyne Insertion Reaction Affording Diiron μ-Vinyliminium Complexes and New Functionalization Pathways

F. Marchetti, G. Ciancaleoni, V. Zanotti, 2018, Organometallics.

Iron‐Catalyzed Ferrocenylmethanol OH Substitution by S, N, P, and C Nucleophiles

V. Zanotti, S. Zacchini, Mauro Salmi, 2013 .

Bridging vinylalkylidene transition metal complexes

P. Maitlis, V. Zanotti, L. Busetto, 2010 .

Thiocarbonyl, thiocarbyne and thiocarbene ligands in di- and polynuclear complexes

V. Zanotti, L. Busetto, 2008 .

Olefin–aminocarbyne coupling in diiron complexes: Synthesis of new bridging aminoallylidene complexes

V. Zanotti, S. Zacchini, Mauro Salmi, 2008 .

C–C bond formation through olefin–thiocarbyne coupling in diiron complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2007 .

CO Cleavage Promoted by Acetylide Addition to Vinyliminium Diiron Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2006 .

Carbene ligands in diiron complexes

V. Zanotti, L. Busetto, 2005 .

Diiron and diruthenium aminocarbyne complexes containing pseudohalides: stereochemistry and reactivity

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

W(CO)3(PMTA = MeN (CH2CH2NME2)2) as a starting material for syntheses of W(CO)3(PR3)3, W(CO)3(η6-arene,) and the protonated W(H)(CO)3(PR3)+3 complexes

V. Rutar, V. Zanotti, Robert J. Anelici, 1991 .

Coupling of Isocyanide and μ-Aminocarbyne Ligands in Diiron Complexes Promoted by Hydride Addition

F. Marchetti, V. Zanotti, S. Zacchini, 2014 .

Assembly and incorporation of a CO2Me group into a bridging vinyliminium ligand in a diiron complex

F. Marchetti, V. Zanotti, S. Zacchini, 2011 .

Coupling of Allenes with μ‐Alkylidyne Ligands in Diiron Complexes: Synthesis of Novel Bridging Thio‐ and Aminobutadienylidene Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2008 .

Synthesis and reactivity with amines of new diiron alkynyl methoxy carbene complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

CN coupling between μ-aminocarbyne and nitrile ligands promoted by tolylacetylide addition to [Fe2{μ-CN(Me)(Xyl)}(μ-CO)(CO)(NCCMe3)(Cp)2][SO3CF3]

F. Marchetti, V. Zanotti, V. Albano, 2003 .

Formation of C–C Bonds in Diiron Complexes by Addition of Carbanions to Alkynyl(methoxy)carbene Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

Imidazolium Salts of Ruthenium Anionic Cyclopentadienone Complexes: Ion Pair for Bifunctional Catalysis in Ionic Liquids

V. Zanotti, S. Zacchini, C. Cesari, 2020, European Journal of Inorganic Chemistry.

Negatively charged Ir(iii) cyclometalated complexes containing a chelating bis-tetrazolato ligand: synthesis, photophysics and the study of reactivity with electrophiles.

P. Raiteri, V. Zanotti, S. Zacchini, 2016, Dalton transactions.

C–S and C–Se Bond Formation at Bridging Vinyliminium Ligands in Diiron Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2013 .

Cyclopentadienone–NHC iron(0) complexes as low valent electrocatalysts for water oxidation

E. Scavetta, D. Tonelli, M. Lucarini, 2021, Catalysis Science & Technology.

Diiron Complexes Bearing Bridging Hydrocarbyl Ligands as Electrocatalysts for Proton Reduction

D. Tonelli, I. Gualandi, V. Zanotti, 2015 .

Electrochemical Polymerisation of Newly Synthesised 3,4-Ethylene Dioxythiophene-N-Heterocyclic Carbene Iron Complexes and Application as Redox Mediators

E. Scavetta, D. Tonelli, I. Gualandi, 2022, Inorganica Chimica Acta.

Ethynylferrocene insertion into Fe–C bond in bridging aminocarbyne diiron complexes: New triiron vinyliminium complexes

V. Zanotti, S. Zacchini, Mauro Salmi, 2010 .

Synthesis and Reactivity of Poly(propyleneimine) Dendrimers Functionalized with Cyclopentadienone N-Heterocyclic-Carbene Ruthenium(0) Complexes

M. C. Cassani, V. Zanotti, L. Rigamonti, 2020, Catalysts.

Methylation of Ir(iii)-tetrazolato complexes: an effective route to modulate the emission outputs and to switch to antimicrobial properties.

A. Stefan, A. Hochkoeppler, A. Ranieri, 2017, Dalton transactions.

Bond Forming Reactions Involving Isocyanides at Diiron Complexes

F. Marchetti, V. Zanotti, R. Mazzoni, 2019, Inorganics.

Controlled Dissociation of Iron and Cyclopentadienyl from a Diiron Complex with a Bridging C3 Ligand Triggered by One-Electron Reduction.

F. Marchetti, G. Pampaloni, G. Ciancaleoni, 2018, Inorganic chemistry.

Amination of Bridging Vinyliminium Ligands in Diiron Complexes: C-N Bond Forming Reactions for Amidine-Alkylidene Species

F. Marchetti, V. Zanotti, S. Zacchini, 2018 .

Photochemical Alkyne Insertions into the Iron–Thiocarbonyl Bond of [Fe2(CS)(CO)3(Cp)2]

F. Marchetti, V. Zanotti, S. Zacchini, 2016 .

C-C bond formation in diiron complexes.

V. Zanotti, Mauro Salmi, R. Mazzoni, 2012, Chemistry.

C–C bond formation by cyanide addition to dinuclear vinyliminium complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2006 .

New bridging ligands from methylation reactions of μ-vinyliminium diiron complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

Regio- and Stereoselective Hydride Addition at μ-Vinyliminium Ligands in Cationic Diiron Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2004 .

Stereochemistry of the insertion of disubstituted alkynes into the metal aminocarbyne bond in diiron complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2004 .

Diiron μ-vinyliminium complexes from acetylene insertion into a metal-aminocarbyne bond

F. Marchetti, V. Zanotti, S. Zacchini, 2003 .

Exploring the Anticancer Potential of Diiron Bis-cyclopentadienyl Complexes with Bridging Hydrocarbyl Ligands: Behavior in Aqueous Media and In Vitro Cytotoxicity

B. Campanella, M. Montopoli, F. Marchetti, 2020, Organometallics.

Selective C–C bond formation at diiron µ-aminocarbyne complexes†

V. Zanotti, V. Albano, M. Monari, 1997 .

Carbon monoxide-isocyanide coupling promoted by acetylide addition to a diiron complex.

F. Marchetti, V. Zanotti, S. Zacchini, 2015, Chemical communications.

Thiocarbonyl, thiocarbyne and thiocarbene ligands in di- and polynuclear complexes

V. Zanotti, L. Busetto, 2008 .

Ruthenium hydroxycyclopentadienyl N-heterocyclic carbene complexes as transfer hydrogenation catalysts

M. C. Cassani, V. Zanotti, S. Zacchini, 2015 .

Bridging Vinyliminium‐ and Enaminoalkylidenediiron Complexes as Organometallic Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2009 .

Boosting the Guerbet Reaction: a cooperative catalytic system for the efficient bio-ethanol refinery to second-generation biofuels

I. Rivalta, F. Cavani, T. Tabanelli, 2021, Journal of Catalysis.

Addition of alkynes at bridging vinyliminium ligands in diiron complexes: Unprecedented diene formation by enyne-like metathesis

F. Marchetti, V. Zanotti, S. Zacchini, 2011 .

Synthesis, reactivity and preliminary biological activity of iron(0) complexes with cyclopentadienone and amino-appendedN-heterocyclic carbene ligands

M. Falasca, P. Simpson, V. Zanotti, 2019, Applied Organometallic Chemistry.

Straightforward synthesis of iron cyclopentadienone N-heterocyclic carbene complexes.

M. C. Cassani, V. Zanotti, S. Zacchini, 2015, Dalton transactions.

Sterically driven synthesis of ruthenium and ruthenium-silver N-heterocyclic carbene complexes.

M. C. Cassani, V. Zanotti, S. Zacchini, 2014, Dalton transactions.

Diiron Aminoalkylidene Complexes

R. Serra, F. Laschi, V. Zanotti, 1995 .

Dinuclear Cyanoalkylidene Complexes of Iron

D. Braga, V. Zanotti, V. Albano, 1991 .

Substrate and product role in the Shvo's catalyzed selective hydrogenation of the platform bio-based chemical 5-hydroxymethylfurfural.

A. Mazzanti, F. Cavani, S. Albonetti, 2014, Dalton transactions.

Microwave-Assisted Synthesis of Functionalized Shvo-Type Complexes

V. Zanotti, S. Zacchini, L. Sambri, 2014 .

Bringing Homogeneous Iron Catalysts on the Heterogeneous Side: Solutions for Immobilization

V. Zanotti, L. Rigamonti, R. Mazzoni, 2021, Molecules.

Zwitterionic diiron vinyliminium complexes: Alkylation, metalation and oxidative coupling at the S and Se functionalities

F. Marchetti, V. Zanotti, S. Zacchini, 2008 .

Diastereospecific Bis-alkoxycarbonylation of 1,2-Disubstituted Olefins Catalyzed by Aryl α-Diimine Palladium(II) Catalysts

B. Gabriele, R. Mancuso, V. Zanotti, 2018 .

C–N Coupling of Isocyanide Ligands Promoted by Acetylide Addition to Diiron Aminocarbyne Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2015 .

C–H Activation in Diiron Bridging Vinyliminium Ligands: Reaction with CS2 to Form New Zwitterionic Complexes Acting as Organometallic Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2011 .

Reactions of bridging C3 ligands in diiron complexes: Unconventional routes to new functionalized organic frames

V. Zanotti, 2010 .

Electrophilically promoted cyanide abstraction in diiron cyano(amino) alkylidene complexes: molecular structure of [Fe2(CO)2(η-C5H5)2(µ-CO){µ-CN(CH2)4CH2}][(OC)5WCNW(CO)5]

V. Zanotti, V. Albano, M. Monari, 1993 .

Polysubstituted ferrocenes from [3 + 2] cycloaddition of alkynes with diiron bridging C3 ligands: Vinyliminium, bis-alkylidene and enimine

V. Zanotti, S. Zacchini, Mauro Salmi, 2014 .

Ferrocenes Containing a Pendant Propargylic Chain Obtained via Addition of Propargyl Alcohol to μ-Vinyliminium Ligands in Diiron Complexes

V. Zanotti, S. Zacchini, Mauro Salmi, 2012 .

[3+2+1] cycloaddition involving alkynes, CO and bridging vinyliminium ligands in diiron complexes: a dinuclear version of the Dötz reaction?

F. Marchetti, V. Zanotti, S. Zacchini, 2010, Chemical communications.

Nitrile ligands activation in dinuclear aminocarbyne complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

Calorimetric studies of the heats of protonation of the metal in cis-M(CO)2(bidentate phosphine)2 complexes of chromium, molybdenum, and tungsten

J. Bonanno, V. Zanotti, J. Sowa, 1992 .

Synthesis of functionalized iron N-heterocyclic carbene complexes and their potential application as flame behavior modifier in cross linked epoxy resins

L. Giorgini, L. Mazzocchetti, V. Zanotti, 2021 .

Catalytic Biorefining of Ethanol from Wine Waste to Butanol and Higher Alcohols: Modeling the Life Cycle Assessment and Process Design

Fabrizio Passarini, Esmeralda Neri, Fabrizio Cavani, 2018, ACS Sustainable Chemistry & Engineering.

Application of the Shvo catalyst in homogeneous hydrogenation of bio-oil obtained from pyrolysis of white poplar: New mild upgrading conditions

D. Fabbri, C. Torri, V. Zanotti, 2011 .

Denitration of α-Nitroketones by Treatment of their Tosylhydrazones with Lithium Aluminium Hydride; New Applications of the Henry Reaction

R. Ballini, V. Zanotti, G. Rosini, 1983 .

A unique example of an octahedral iron(II) complex containing four triflate anions and two nitrile-like organometallic cations

D. Braga, V. Zanotti, V. Albano, 1992 .

Cycloaddition of dichloroketene with functionalized cycloalkenes, synthesis of bicyclo[4.2.0]octanone-3-yl derivatives and of 3,4- dicarbomethoxy-1-methylbicyclo [4,2,0] octan-7-one

R. Ballini, V. Zanotti, G. Rosini, 1983 .

Diiron-aminocarbyne complexes with amine or imine ligands: C–N coupling between imine and aminocarbyne ligands promoted by tolylacetylide addition to [Fe2{μ-CN(Me)R}(μ-CO)(CO)(NHCPh2)(Cp)2][SO3CF3]

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

Synthesis and X-ray structure of the [Ni13Sb2(CO)24]n–(n= 2,3,4) cluster anions containing an icosahedral [Ni11Sb2(CO)18]n– moiety behaving as a distibine ligand and displaying an unexpected electron count

A. Sironi, M. C. Iapalucci, G. Longoni, 1990 .

Synthesis of thiolate and phosphido bridged iron–manganese complexes; molecular structure of cis-[FeMn(μ-CO)(μ-SEt)(CO)2(Cp)(C5H4Me)] ☆

V. Zanotti, V. Albano, M. Monari, 1999 .

Synthesis and spectroscopic properties of heteropolynuclear cyano-bridged complexes

V. Zanotti, A. Palazzi, S. Bordoni, 1997 .

Acetonitrile activation in di-iron μ-carbyne complexes: synthesis and structure of the cyanomethyl complex [Fe2(μ-CNMe2)(μ-CO)(CO)(CH2CN)(Cp)2]

F. Marchetti, V. Zanotti, V. Albano, 2002 .

Isocyanide and heteroallene bridged metal complexes: VII. Further reactions of [Fe(η-C5H5)(CO)2CS2]− with metal compounds

H. Stolzenberg, V. Zanotti, M. Monari, 1984 .

Iron(II) catalyzed dehydrative etherification of alcohols: a convenient route to ferrocenylmethanol-ethers

V. Zanotti, S. Zacchini, Mauro Salmi, 2012 .

Regioselective Nucleophilic Additions to Diiron Carbonyl Complexes Containing a Bridging Aminocarbyne Ligand: A Synthetic, Crystallographic and DFT Study

F. Marchetti, G. Pampaloni, V. Zanotti, 2018 .

Mechanistic Insight into Electrocatalytic H2 Production by [Fe2(CN){μ-CN(Me)2}(μ-CO)(CO)(Cp)2]: Effects of Dithiolate Replacement in [FeFe] Hydrogenase Models.

L. De Gioia, F. Arrigoni, Giuseppe Zampella, 2017, Inorganic chemistry.

γ‐Deprotonation of Bridging Vinyliminium Ligands: New Route to Aminobutadienylidene Diiron and Diruthenium Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2010 .

SPh functionalized bridging-vinyliminium diiron and diruthenium complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2008 .

Addition of protic nucleophiles to alkynyl methoxy carbene ligands in diiron complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2006 .

New diruthenium vinyliminium complexes from the insertion of alkynes into bridging aminocarbynes

F. Marchetti, V. Zanotti, S. Zacchini, 2006 .

Reactions of acetonitrile di-iron μ-aminocarbyne complexes; synthesis and structure of [Fe2(μ-CNMe2)(μ-H)(CO)2(Cp)2]

V. Zanotti, V. Albano, M. Monari, 2000 .

Further investigations on CC bond formation at the diruthenium aminocarbyne complexes [Ru2{μ-CN(Me)R}(μ-CO)(CO)2(Cp)2]SO3CF3 (R=Me, CH2Ph) and molecular structure of [Ru2(μ-CNMe2)(μ-CO)(COPh)(CO)(Cp)2]

V. Zanotti, V. Albano, M. Monari, 1998 .

Selective Formation of One or Two C−C Bonds Promoted by Carbanion Addition to [Fe2(cp)2(CO)2(μ-CO)(μ-CSMe)]+

V. Zanotti, V. Albano, M. Monari, 1997 .

Carbon–carbon bond formation in the reactions of diiron µ-carbyne complexes with 2-thienyllithium, synthesis and structural characterization

V. Zanotti, V. Albano, M. Monari, 1997 .

A new route to diiron bis(µ-thiocarbene) complexes: molecular structure of [{Fe{µ-C(CN)SMe](cp)}2](cp =η-C5H5) containing the unusually folded six-membered metallacycle Fe2C2S2

V. Zanotti, V. Albano, M. Monari, 1996 .

Carbon-carbon bond formation via carbyne-carbonyl migratory coupling promoted by H- or OR- addition to [Fe2(.mu.-CSR)(.mu.-CO)(CO)2(Cp)2]+

D. Braga, V. Zanotti, V. Albano, 1993 .

Acetylide Addition to Bridging Vinyliminium Ligands in Dinuclear Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2007 .

Hydride addition at μ-vinyliminium ligand obtained from disubstituted alkynes

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

The role of electrophilic species in the Fischer-Tropsch reaction.

P. Maitlis, V. Zanotti, 2009, Chemical communications.

Synthesis of new heterodinuclear aminocarbyne complexes: crystal structures of [AuW{µ-CN(Et)Me}C6F5)(CO)2(η-C5H5)] and [{CuW{µ-CN(Et)Me}Cl(CO)2(η-C5H5)}2]

M. C. Cassani, P. Sabatino, V. Zanotti, 1995 .

On the importance of cyanide in diiron bridging carbyne complexes, unconventional [FeFe]-hydrogenase mimics without dithiolate: An electrochemical and DFT investigation

D. Tonelli, F. Arrigoni, Giuseppe Zampella, 2020 .

Growing the Molecular Architecture at Alkynyl(amino)carbene Ligands in Diiron µ‐Aminocarbyne Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2016 .

Addition of Isocyanides at Diiron μ-Vinyliminium Complexes: Synthesis of Novel Ketenimine−Bis(alkylidene) Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2008 .

Synthesis and Characterization of New Diiron and Diruthenium μ-Aminocarbyne Complexes Containing Terminal S-, P- and C-Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2007 .

Unprecedented Zwitterionic Iminium-Chalcogenide Bridging Ligands in Diiron Complexes

F. Marchetti, V. Zanotti, S. Zacchini, 2006 .

Deprotonation of μ-Vinyliminium Ligands in Diiron Complexes: A Route for the Synthesis of Mono- and Polynuclear Species Containing Novel Multidentate Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2005 .

Synthesis, Characterization and Reactivity of New (μ‐Aminocarbyne)diruthenium Complexes Containing Alkynylimino Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2004 .

Reactions of diiron mu-aminocarbyne complexes containing nitrile ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2003 .

New metallapyrrole complexes from [M2(μ-CNMe2)(μ-CO)(CO)2(Cp)2]SO3CF3 (M=Fe, Ru) and acetonitrile anions; structure of [(Cp)(CO)(CN)]

P. Sabatino, V. Zanotti, V. Albano, 2000 .

Ruthenium complexes with bridging functionalized alkylidene ligands. Synthesis of [Ru2Cp2(CO)2(μ-CO){μ-C(X)N(Me)CH2Ph}] (X = H, CN) and molecular structure of the CN derivative

V. Zanotti, V. Albano, M. Monari, 1993 .

Synthesis, reactions, and X-ray structures of the functionalized isocyanide complexes [Fe2{µ-CNC(O)SR}(µ-CO)(CO)2(cp)2](cp =η-C5H5, R = Me or Et) and of their carbyne and carbene derivatives

D. Braga, V. Zanotti, V. Albano, 1990 .

Steric and electronic effects of mono- and tridentate phosphine ligands on the basicities of the metal in tungsten tris(phosphine) tricarbonyl complexes

V. Zanotti, J. Sowa, R. J. Angelici, 1993 .

Heats of protonation of transition-metal complexes : the effect of phosphine basicity on metal basicity in CpIr(CO)(PR3) and Fe(CO)3(PR3)2

V. Zanotti, J. Sowa, G. Facchin, 1991 .

Dithiocarbamate derivatives of μ-thiocarbyne complexes: synthesis and X-ray molecular structure of [Fe2(μ-CS)(μ-CSMe)(μ-S2CNMe2)Cp2]

P. Sabatino, V. Zanotti, V. Albano, 2002 .

Synthesis, molecular structure, crystal packing, and dynamic behaviour in the solid state of [Fe2(η5-C5H5)2(µ-CO)(CO)2{µ-CR(CN)}](R = H or CN)

D. Braga, F. Grepioni, R. Gobetto, 1992 .

Redox chemistry and substitution reactions of the μ-cyanoalkylidene complexes [Fe2(CO)2(cp)2(μ-CO){μ-C(CN) (X)}]n+ (n = 0, X = CN, H, Me, SMe, OMe, OEt, OPh, OCH2CH = CH2, PEt2, or NC5H10; n = 1, X = PMe2Ph)

F. Laschi, V. Zanotti, P. Zanello, 1995 .

Synthesis of dinuclear iron and ruthenium aminoalkylidene complexes and the molecular structure of the novel cis-[Ru2(CO)2(Cp)2{μ-C(CN)N(Me)Bz}2](Cp = η-C5H5; Bz CH2Ph)

M. C. Cassani, V. Zanotti, V. Albano, 1995 .

Calorimetric studies of the heats of protonation of the metal in Fe(CO)3(bidentate phosphine, arsine) complexes: effects of chelate ligands on metal basicity

V. Zanotti, J. Sowa, G. Facchin, 1992 .

Effect of tridentate phosphine ligand structure on the basicities of tungsten tricarbonyl complexes

V. Zanotti, J. Sowa, R. J. Angelici, 1991 .

AN UNUSUAL HYDROGEN MIGRATION FROM A CYCLOPENTADIENYL TO A MU -CARBYNE CARBON IN THE REACTION OF GRIGNARD REAGENTS WITH FE2(CO)2(CP)2(MU -CO)(MU -CSME )SO3CF3

V. Zanotti, V. Albano, M. Monari, 1995 .

Further reactions of [(η-C5H5)(CO)2FeC(S)SMLn] (MLn = Fe(η-C5H5)(CO)2, Re(CO)5) with organic electrophiles

V. Zanotti, S. Bordoni, L. Busetto, 1988 .

SYNTHESIS AND MOLECULAR-STRUCTURE OF THE NOVEL HETERODINUCLEAR THIOCARBONYL COMPLEX [FEMN(MU-CO)(MU-CS)(CO)5(CP)] (CP=ETA-5-C5H5)

V. Zanotti, V. Albano, M. Monari, 1992 .

Synthesis and reactions of the novel sulfonium-methylidene complex [Fe2(CO)2(cp)2(μ-CO){μ-C(H) (SMe2)}]SO3CF3

V. Zanotti, S. Bordoni, F. Mazza, 1994 .

Further applications of the NCO− insertion into a CSR bond: Synthesis of the bis(μ-acylisocyanide) complex [Fe2(CO)2(Cp) 2{μ-CNC(O)SMe}2]

M. C. Cassani, V. Zanotti, S. Bordoni, 1993 .

Reactions of [(η-C5H5)(CO)] (Fp = (η-C5H5)Fe(CO)2) with Group IB and IIB metals; X-ray molecular structure of [(η-C5H5)(CO)]2

D. Braga, V. Zanotti, V. Albano, 1990 .

Molecular Nickel Phosphide Carbonyl Nanoclusters: Synthesis, Structure, and Electrochemistry of [Ni11P(CO)18]3- and [H6-nNi31P4(CO)39]n- (n = 4 and 5).

C. Femoni, M. C. Iapalucci, V. Zanotti, 2018, Inorganic chemistry.

Oxidant free one-pot transformation of bio-based 2,5-bis-hydroxymethylfuran into α-6-hydroxy-6-methyl-4-enyl-2H-pyran-3-one in water

F. Cavani, S. Albonetti, V. Zanotti, 2016 .

Reactions of Diazo Compounds at μ-Vinyliminium Ligands: Synthesis of Novel Dinuclear Azine−Bis(alkylidene) Complexes

F. Marchetti, V. Zanotti, L. Busetto, 2007 .

Organometallic Models for Metal Surface Reactions: Chain Growth Involving Electrophilic Methylidynes in the Fischer–Tropsch Reaction

P. Maitlis, V. Zanotti, 2008 .

Addition of Alkynes to Zwitterionic μ-Vinyliminium Diiron Complexes: New Selenophene (Thiophene) and Vinyl Chalcogenide Functionalized Bridging Ligands

F. Marchetti, V. Zanotti, S. Zacchini, 2010 .

Alkyne−Isocyanide Coupling in [Fe2(CNMe)(CO)3(Cp)2]: A New Route to Diiron μ-Vinyliminium Complexes†

F. Marchetti, V. Zanotti, S. Zacchini, 2007 .

Unprecedented Transformation of Diiron Bridging Vinyliminium Ligands into Carboxyamido‐ and Alkylphosphonate‐Vinylalkylidenes

F. Marchetti, V. Zanotti, S. Zacchini, 2012 .

[3+2+1] cycloaddition involving alkynes, CO and bridging vinyliminium ligands in diiron complexes: a dinuclear version of the Dötz reaction?

F. Marchetti, V. Zanotti, S. Zacchini, 2010, Chemical communications.