D. Perekalin

发表

Cyclobutadiene Rhodium Complexes as Catalysts for the Synthesis of Amides from Electron‐rich Arenes, Tosyl Azide and CO

N. V. Shvydkiy, Tatiana N. Petrushina, D. Perekalin, 2021 .

Rhodium(III) Complex with a Bulky Cyclopentadienyl Ligand as a Catalyst for Regioselective Synthesis of Dihydroisoquinolones through C-H Activation of Arylhydroxamic Acids.

Y. Nelyubina, M. Kozlov, D. Perekalin, 2018, Chemistry.

Observation of superconductivity in hydrogen sulfide from nuclear resonant scattering

A. P. Drozdov, M. Eremets, I. Troyan, 2016, Science.

Synthesis of iron complexes [(η5-indenyl)FeL3]+ from the readily available[(η5-indenyl)Fe(η6-indene)]+

Y. Nelyubina, A. Kudinov, Maria V. Babak, 2012 .

Synthesis and Reactivity of Heptamethylcyclohexadienyl Rhodium(III) Complexes

Y. Nelyubina, D. Perekalin, Roman A. Pototskiy, 2019 .

Variability of Rhodium(III)-Catalyzed Reactions of Aromatic Oximes with Alkenes

D. Perekalin, E. A. Trifonova, D. Chusov, 2020, Synlett.

Cyclobutadiene nickel complex as a catalyst for CH-activation reactions: computational study

D. Perekalin, Nikita M. Ankudinov, 2019, Mendeleev Communications.

Cyclobutadiene complexes of platinum metals

N. V. Shvydkiy, D. Perekalin, 2017 .

Aldehydes as alkylating agents for ketones.

M. Klussmann, D. Perekalin, O. I. Afanasyev, 2019, Chemistry.

Design of Manganese Phenol Pi‐complexes as Shvo‐type Catalysts for Transfer Hydrogenation of Ketones

Y. Nelyubina, N. V. Shvydkiy, D. Perekalin, 2019, ChemCatChem.

(Mesitylene)ruthenium π-complexes with benzo-15-crown-5 and dibenzo-18-crown-6

V. Novikov, K. Lyssenko, A. Kudinov, 2010 .

Cyclobutadiene Metal Complexes: A New Class of Highly Selective Catalysts. An Application to Direct Reductive Amination

D. Usanov, V. I. Maleev, A. Kudinov, 2016 .

Ligand Design for Site-Selective Metal Coordination: Synthesis of Transition-Metal Complexes with η6 -Coordination of the Central Ring of Anthracene.

D. Perekalin, A. Borissova, E. E. Karslyan, 2017, Angewandte Chemie.

Cyclopentadienyl ruthenium complexes with naphthalene and other polycyclic aromatic ligands

A. Kudinov, D. Perekalin, 2014 .

Synthesis of Overloaded Cyclopentadienyl Rhodium(III) Complexes via Cyclotetramerization of tert-Butylacetylene

Y. Nelyubina, Basker Sundararaju, D. Perekalin, 2021, Organometallics.

Synthesis of Rhodium Complexes with Chiral Diene Ligands via Diastereoselective Coordination and Their Application in the Asymmetric Insertion of Diazo Compounds into E−H Bonds

Y. Nelyubina, D. Perekalin, Nikita M. Ankudinov, 2021, Angewandte Chemie.

Synthesis of Rhodium Complexes with Chiral Diene Ligands via Diastereoselective Coordination and Their Application in the Asymmetric Insertion of Diazo Compounds into E-H Bonds.

Y. Nelyubina, D. Perekalin, Nikita M. Ankudinov, 2021, Angewandte Chemie.

Synthesis of catalytically active diene and cyclopentadienyl rhodium halide complexes

D. Perekalin, A. V. Kolos, 2021 .

Synthesis, Structure, Electrochemistry, and Metal‐Atom Dynamics of Cyclopentadienyl Ferracarboranes

V. I. Meshcheryakov, K. Lyssenko, A. Kudinov, 2006 .

Reactions of arene replacement in transition metal complexes

N. V. Shvydkiy, D. Perekalin, 2020 .

Heterogeneous bromination of alkenes using Bi(III) polybromide complexes as {Br2} source

D. Samsonenko, V. Fedin, M. Sokolov, 2016 .

Unprecedented steric deformation of ortho-carborane.

G. Rosair, S. Macgregor, D. Perekalin, 2008, Chemical communications.

A Planar-Chiral Rhodium(III) Catalyst with a Sterically Demanding Cyclopentadienyl Ligand and Its Application in the Enantioselective Synthesis of Dihydroisoquinolones.

Y. Nelyubina, D. Perekalin, E. A. Trifonova, 2018, Angewandte Chemie.

Synthesis and reactivity of cyclobutadiene nickel bromide.

Y. Nelyubina, A. Buyanovskaya, N. V. Shvydkiy, 2020, Dalton transactions.

Cyclobutadiene Arene Complexes of Rhodium and Iridium

Y. Nelyubina, A. Kudinov, N. V. Shvydkiy, 2016 .

Cyclopentadienyl ruthenium complexes with naphthalene and other polycyclic aromatic ligands

A. Kudinov, D. Perekalin, 2014 .

Arene Exchange in the Ruthenium–Naphthalene Complex [CpRu(C10H8)]+

K. Lyssenko, A. Kudinov, P. Petrovskii, 2012 .

Convenient synthesis of the ruthenium complexes CpRu(diene)X (X = Cl, Br, I) by naphthalene substitution in [CpRu(C10H8)]+

A. Kudinov, D. Perekalin, A. Borissova, 2011 .

Unexpected antifungal activity of half-sandwich complexes with metal−iodine bonds

Y. Nelyubina, N. Efimov, D. Loginov, 2020, Journal of Organometallic Chemistry.

Synthesis of Ruthenium Half‐Sandwich Complexes by Naphthalene Replacement in [CpRu(C10H8)]+

Y. Nelyubina, A. Kudinov, D. Perekalin, 2013 .

Synthesis of 13-vertex dimetallacarboranes by electrophilic insertion into 12-vertex ruthenacarboranes.

K. Lyssenko, A. Kudinov, F. Fabrizi de Biani, 2017, Dalton transactions.

Direct electrophilic insertion into a twelve-vertex metallacarborane.

K. Lyssenko, A. Kudinov, P. Petrovskii, 2002, Angewandte Chemie.

Cyclobutadiene cobalt complexes as catalysts for insertion of diazo compounds into X–H bonds

N. V. Shvydkiy, D. Perekalin, 2021, Mendeleev Communications.

Insertion of carbenoids into X-H bonds catalyzed by the cyclobutadiene rhodium complexes

Y. Nelyubina, N. V. Shvydkiy, D. Perekalin, 2017, Journal of Organometallic Chemistry.

Rhodium Complexes with Chiral Cyclopentadienyl Ligands for Catalytic Synthesis of Dihydroisoquinolones from Aryl Hydroxamic Acids and Alkenes

D. Perekalin, E. A. Trifonova, 2019, INEOS OPEN.

Some Aspects of Reductive Amination in the Presence of Carbon Monoxide: Cyclopropyl Ketones as Bifunctional Electrophiles

D. Usanov, D. Perekalin, O. I. Afanasyev, 2017, Synthesis.

Synthesis of cyclohexadienyl ruthenium complexes by replacement of the naphthalene ligand in [(η5-C6H3Me4)Ru(η6-C10H8)]+

Y. Nelyubina, A. Kudinov, D. Perekalin, 2015 .

Synthesis of cyclohexadienyl ruthenium arene complexes by replacement of acetonitrile ligands in [(η5-C6H7)Ru(MeCN)3]+

Y. Nelyubina, A. Kudinov, D. Perekalin, 2014 .

Reactions of the cyclopentadienyl ruthenium complexes (C5R5)Ru(cod)Cl and [(C5R5)Ru(MeCN)3]+ (R = H, Me) with phenylacetylene and acetic acid: Unexpected difference in reactivity of CpRu and Cp*Ru complexes

V. Novikov, Y. Nelyubina, A. Kudinov, 2013 .

Cyclotrimerization of alkynes catalyzed by the naphthalene ruthenium complex [CpRu(C10H8)]+

A. Kudinov, P. Petrovskii, D. Perekalin, 2011 .

Cyclopentadienyl ruthenium complexes with tricarbollide ligands

J. Holub, A. Kudinov, D. Perekalin, 2010 .

Simple synthesis of ruthenium pi complexes of aromatic amino acids and small peptides.

Y. Nelyubina, K. Lyssenko, E. Nikolaev, 2010, Chemistry.

Photochemical arene exchange in the naphthalene complex [CpRu(η6-C 10H8)]+

A. Kudinov, P. Petrovskii, D. Perekalin, 2009 .

Thermal arene exchange in the naphthalene complex [CpRu(η6-C10H8)]+

A. Kudinov, P. Petrovskii, D. Perekalin, 2008 .

New method for the synthesis of substituted ruthenocenes

A. Kudinov, P. Petrovskii, D. Perekalin, 2008 .

Sandwich complexes of iron and ruthenium with the semiconducting aromatic hydrocarbon picene

Y. Nelyubina, D. Perekalin, A. Shved, 2018, Journal of Organometallic Chemistry.

Synthesis of the half-sandwich ruthenium complexes [Cp*RuL3]+via naphthalene replacement in [Cp*Ru(C10H8)]+

Y. Nelyubina, A. Kudinov, N. V. Shvydkiy, 2015 .

Cluster [Co3(CO)3(µ2‐CO)3(µ3‐C8H8)]– as a Ligand: Experimental and Theoretical Study

V. Novikov, M. Vinogradov, A. Kudinov, 2017 .

Synthesis and structures of cationic bis(arene)rhenium complexes

K. Lyssenko, A. Kudinov, D. Perekalin, 2013 .

Catalytic and Stoichiometric Reactions of the Parent Olefin Rhodium(I) Complex with Alkynes

Y. Nelyubina, D. Perekalin, A. V. Kolos, 2022, Organometallics.

Stacking interaction in crystals of a dinuclear rhodium complex with a bridging phenylborole ligand

K. Lyssenko, A. Kudinov, P. Petrovskii, 2009 .

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

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

Tetramethylcyclobutadiene)cobalt Complexes with Tricarbollide Ligands (

K. Lyssenko, J. Holub, A. Kudinov, 2006 .

(Tetramethylcyclobutadiene)cobalt Complexes with Five-Electron Carbo- and Heterocyclic Ligands†

F. Laschi, A. Kudinov, Z. Starikova, 2004 .

Synthesis of cyclopentadienyl iron complexes with substituted phenylene ligands via Suzuki coupling

Y. Nelyubina, D. Perekalin, A. Shved, 2020 .

Synthesis of amino acid esters of the ruthenium naphthalene complex [(C5Me4CH2OH)Ru(C10H8)]+

Y. Nelyubina, A. Kudinov, A. P. Molotkov, 2014 .

Structures of cationic metallacarborane complexes [(η-9-Me2S-7,8-C2B9H10)Ni(μ-Cp)Ni(η-9-Me2S-7,8-C2B9H10)]+ and [Cp*Ru(Me2S-C2B9H10)RuCp*]+

V. I. Meshcheryakov, Yu. A. Zhuravlev, K. Lyssenko, 2004 .

Selective ruthenium labeling of the tryptophan residue in the bee venom Peptide melittin.

A. Pavlov, V. Novikov, D. Volkov, 2015, Chemistry.

17-Crown-5 ether condensed with 11-vertex nido-carborane

K. Lyssenko, A. Kudinov, D. Perekalin, 2014, Russian Chemical Bulletin.

General Route to Cyclobutadiene Rhodium Complexes.

Y. Nelyubina, A. Kudinov, N. V. Shvydkiy, 2015, Chemistry.

Iron and Cobalt Complexes with Thiacarborane Ligands

I. Císařová, J. Holub, A. Kudinov, 2008 .

Arene exchange in the anthracene ruthenium complex [(C5Me4CH2OMe)Ru(C14H10)]+

Y. Nelyubina, A. Kudinov, P. Petrovskii, 2011 .

Calculations of thermodynamic stability of CpCoC2B9H11 cobaltacarborane isomers

A. Kudinov, D. Perekalin, 2005 .

Electrochemical behaviour of cobalta-dicarbollide sandwich complexes with different capping units

V. I. Meshcheryakov, K. Lyssenko, A. Kudinov, 2005 .

Rhodium Catalysts with a Chiral Cyclopentadienyl Ligand Derived from Natural R‐Myrtenal

Y. Nelyubina, D. Perekalin, Roman A. Pototskiy, 2020 .

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.

Synthesis and reactivity of the cyclohexadienyl rhodium complexes

Y. Nelyubina, D. Perekalin, A. Lisov, 2018 .

Synthesis and structure of rhodium complexes with monoanionic carborane ligand [9-SMe2-7,8-C2B9H10]-

K. Lyssenko, A. Kudinov, Z. Starikova, 2002 .

The remarkable stability of the Cl–···(π-system) contacts in 2,3,5-triphenyltetrazolium chloride

K. Lyssenko, M. Antipin, D. Perekalin, 2005 .

Synthesis, structure, electrochemistry, and mössbauer effect studies of the ferraphosphadicarbollides [(C5R5)Fe(PC2B8H10)] (R = H, Me)

F. Laschi, A. Kudinov, S. Fedi, 2007 .

Non‐Fermi‐Liquid Behavior of Superconducting SnH4

I. Kruglov, A. Kvashnin, A. Ivanova, 2023, Advanced science.

Anthracene-rhodium complexes with metal coordination at the central ring - a new class of catalysts for reductive amination.

D. Perekalin, E. Kuchuk, D. Chusov, 2018, Organic and biomolecular chemistry.

Synthesis of the cyclopentadienone rhodium complexes and investigation of their catalytic activity in the reductive amination of aldehydes in the presence of carbon monoxide

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

Patterning of various materials by the photochemical reaction of [(C5H5)Fe(C6H6)]+ complex with salicylate dyes

D. Perekalin, P. Zhmurov, A. Shved, 2020 .

Unpredictable cycloisomerization of 1,11-dien-6-ynes by a common cobalt catalyst

V. Novikov, Y. Nelyubina, D. Perekalin, 2017, Beilstein journal of organic chemistry.

A restricted polyhedral rearrangement of an aminosubstituted 12-vertex ferratricarbollide

A. Kudinov, B. Štíbr, D. Perekalin, 2006 .

Noble Metal versus Abundant Metal Catalysts in Fine Organic Synthesis: Cost Comparison of C–H Activation Methods

D. Perekalin, A. A. Komarova, 2023, Organometallics.

Planar chiral rhodium complexes of 1,4-benzoquinones.

Y. Nelyubina, D. Perekalin, Nikita M. Ankudinov, 2022, Chemistry.

Organometallic cyanotype: formation of Prussian blue by a photochemical decomposition of the arene iron complex

Y. Nelyubina, D. Perekalin, D. Shved, 2019, Mendeleev Communications.

Synthesis and reactivity of the cyclohexadienyl ruthenium complex [(hhh5-C6H7)Ru(MeCN)3]+ with labile acetonitrile ligands

Y. Nelyubina, A. Kudinov, D. Perekalin, 2013 .

Metal complexes with an aminosubstituted tricarbollide ligand

K. Lyssenko, J. Holub, A. Kudinov, 2005 .

Structural dualism in the zwitterionic 7-RR'NH-nido-7,8,9-C3B8H10 tricarbollide series: an example of absolute tautomerism.

I. Císařová, J. Holub, D. Hnyk, 2005, Angewandte Chemie.

Synthesis and rearrangements of aminosubstituted ferra- and ruthenatricarbaboranes.

K. Lyssenko, J. Holub, A. Kudinov, 2005, Inorganic chemistry.

Ferra- and ruthenatricarbollides CpFeC3B8H11 and Cp*RuC3B8H11

K. Lyssenko, J. Holub, A. Kudinov, 2005 .

Synthesis of the iridacarborane halide complexes [(η-9-SMe2-7,8-C2B9H10)IrX2]2 (X = Cl, Br, or I)

A. Kudinov, P. Petrovskii, D. Perekalin, 2001 .

Sandwich iridium complexes with the monoanionic carborane ligand [9-SMe2-7,8-C2B9H10]−

K. Lyssenko, M. Vinogradov, A. Kudinov, 2006 .

Selective ruthenium labeling of the tryptophan residue in the bee venom Peptide melittin.

A. Pavlov, V. Novikov, D. Volkov, 2015, Chemistry.

A Planar-Chiral Rhodium(III) Catalyst with a Sterically Demanding Cyclopentadienyl Ligand and Its Application in the Enantioselective Synthesis of Dihydroisoquinolones.

Y. Nelyubina, D. Perekalin, E. A. Trifonova, 2018, Angewandte Chemie.