D. V. Muratov

发表

Effect of Cp-Ligand Methylation on Rhodium(III)-Catalyzed Annulations of Aromatic Carboxylic Acids with Alkynes: Synthesis of Isocoumarins and PAHs for Organic Light-Emitting Devices.

Y. Fedorov, E. I. Maltsev, A. P. Molotkov, 2020, ChemPlusChem.

Triple-decker complex CpCo(μ-C3B2Me5)Rh(C2H4)2: Synthesis, structure and bonding

A. Kudinov, T. Timofeeva, A. Romanov, 2014 .

Monocationic μ-Diborolyl Triple-Decker Complexes [CpCo(μ-1,3-C3B2Me5)M(ring)]+: Synthesis, Structures, and Electrochemistry

A. Kudinov, W. Siebert, S. Fedi, 2013 .

The first triple-decker complex with the PtMe3 fragment: CpCo(μ-1,3-C3B2Me5)PtMe3

A. Kudinov, W. Siebert, P. Petrovskii, 2012 .

Synthesis of isocoumarins and PAHs with electron-withdrawing substituents: Impact of the substituent nature on the photophysical behavior

Y. Nelyubina, Y. Fedorov, D. Loginov, 2022, Dyes and Pigments.

Cyclopentadienyl cobalt(III) complexes: Synthetic and catalytic chemistry

G. B. Shul’pin, D. Loginov, L. S. Shul’pina, 2019, Coordination Chemistry Reviews.

μ-Borole triple-decker complexes as catalysts for oxidative coupling of benzoic acid with alkynes. Structure of a hybrid rhodacyclopentadienyl/borole triple-decker complex

Y. Nelyubina, A. Kudinov, D. Loginov, 2017 .

Cyclopentadienyl complexes of group 9 metals in the total synthesis of natural products

D. Loginov, D. V. Muratov, V. Kharitonov, 2022, Coordination Chemistry Reviews.

The First Triple-Decker Complex with a Carbenium Center, [CpCo(μ-C3 B2 Me5 )RuC5 Me4 CH2 ]+ : Synthesis, Reactivity, X-Ray Structure, and Bonding.

A. Kudinov, W. Siebert, A. Romanov, 2017, Chemistry.

μ-Diborolyl triple-decker complexes with carbonyl ligands: Synthesis, structures and electrochemistry

A. Kudinov, A. Romanov, F. D. Biani, 2014 .

Reactions of the B‐Phenylborole Complex [CpRh(η5‐C4H4BPh)] with Metalloelectrophiles [(ring)M]2+

F. Laschi, A. Kudinov, Z. Starikova, 2005 .

Indenyl complexes of Group 9 metals: Synthetic and catalytic chemistry

D. Loginov, D. V. Muratov, V. Kharitonov, 2019, Coordination Chemistry Reviews.

Participation of hydrogen bonds in the protonation of (η5-C5Me5)M(CO)2, M=Ir, Rh

L. M. Epstein, E. Shubina, D. V. Muratov, 1993 .

Tris(pyrazolyl)borate rhodium complexes. Application for reductive amination and esterification of aldehydes in the presence of carbon monoxide

V. S. Ostrovskii, Y. Nelyubina, D. Loginov, 2020 .

Mononuclear (C5R5)Ir-complexes with π-linked biaryls: Stability and fluorescence quenching

Y. Nelyubina, D. Loginov, N. Shepel, 2020 .

Protonation of Cp*Fe(η5-C6H7) as a convenient procedure for the preparation of the valuable synthon [Cp*Fe(MeCN)3]+

M. Vinogradov, A. Kudinov, A. Romanov, 2014 .

Fluorene Complexes of Group 9 Metals: Fluorene Effect and Application for Reductive Amination

Y. Nelyubina, A. Peregudov, D. Loginov, 2019, Organometallics.

Stacking reactions of the borole complex Cp*Rh(η5-C4H4BPh) with the dicationic fragments [Cp*M]2+ (M = Rh or Ir)

A. Kudinov, Z. Starikova, P. Petrovskii, 2006 .

The first metallacarborane triple-decker complexes with a bridging borole ligand

A. Kudinov, Z. Starikova, P. Petrovskii, 2006 .

Dicationic μ‐Diborolyl Arene Triple‐Decker Complexes [CpCo(μ‐1,3‐C3B2Me5)M(arene)]2+ (M = Rh, Ir; Cp = Cyclopentadienyl): Synthesis, Structures, Electrochemistry and Bonding

A. Kudinov, D. Loginov, A. Romanov, 2015 .

Rhodium-containing triple-decker complexes with a central borole ligand

A. Kudinov, Z. Starikova, P. Petrovskii, 2006 .

Easy Access to Versatile Catalytic Systems for C-H Activation and Reductive Amination Based on Tetrahydrofluorenyl Rhodium(III) Complexes.

Y. Nelyubina, D. Loginov, D. Chusov, 2021, Chemistry.

Use of [(η-C5R5)M]+ fragments (M = Fe, R = H; M = Ru, R = H, Me) for synthesis of cationic cluster. X-Ray structure of [RuRh3(η-C5Me5)(η-C5H5)3(μ3-CO)3]PF6

Y. Struchkov, A. Kudinov, T. Timofeeva, 1991 .

Octahedral (cyclopentadienyl)rhodium clusters [Rh6Cp6(μ6-C)]2+ and [Rh6Cp6(μ3-CO)2]2+: Synthesis, structures and electrochemistry

A. Kudinov, S. Fedi, F. M. Dolgushin, 2011 .

Synthesis of neutral tri- and tetranuclear organometallic clusters of group VIII transition metals

A. Kudinov, P. Petrovskii, M. Rybinskaya, 1997 .

Reactions of the borole complex CpRh(η5-C4H4BPh) with monocationic organometallic fragments

A. Kudinov, Z. Starikova, D. Loginov, 2008 .

Synthesis of μ-Diborolyl Triple-Decker Complexes by Electrophilic Stacking. Similar Bonding Properties of Anions [CpCo(1,3-C3B2H5)]− and Cp− toward Transition Metals†

M. Antipin, A. Kudinov, W. Siebert, 2009 .

Octahedral rhodium cluster [Rh6Cp6(μ6-C)]2+(PF6-)2

A. Kudinov, M. Rybinskaya, D. V. Muratov, 1999 .

Cyclopentadienyl rhodium(III) complexes as catalysts for the insertion of phenyldiazoacetate into E−H bonds

D. Perekalin, D. V. Muratov, A. A. Komarova, 2022, Mendeleev Communications.

A (Diborole)cobalt Complex with a C–H···B Bridge, CpCo(1,3‐C3B2Me5H), and Its Thallium Derivative: Synthesis, Structure, and Bonding

M. Antipin, A. Kudinov, W. Siebert, 2012 .

Tandem C-H Annulation Reaction of Benzaldehydes and Aminobenzoic Acids with Two Equivalents of Alkyne toward Isocoumarin-Conjugated Isoquinolinium Salts: A Family of Organic Luminophores.

Y. Nelyubina, D. Loginov, M. A. Arsenov, 2023, The Journal of organic chemistry.

Synthesis and structures of the triple-decker type complexes CpCo(μ-1,3-C3B2Me5)MX2L (M = Rh and Ir; X = Cl and Br; L = Me2SO and PPh3)

M. Antipin, A. Kudinov, W. Siebert, 2012 .

Triphenylcyclopentadienyl Rhodium Complexes in Catalytic C-H Annulations. Application for Synthesis of Natural Isocoumarins.

Y. Nelyubina, D. Loginov, I. Shutkov, 2023, The Journal of organic chemistry.

Synthesis and photophysical activity of 6-substituted isocoumarins

M. A. Arsenov, D. V. Muratov, K. Isakovskaya, 2024, Mendeleev Communications.