A. A. Shiryaev

发表

Oxalamide-based bisdiamidophosphites: synthesis, coordination, and application in asymmetric metallocatalysis

V. Chernyshev, K. P. Birin, V. Tafeenko, 2019, Organic Chemistry Frontiers.

Chiral inducers with (1R,2R)-1,2-diaminocyclohexane core for organo- and metallocatalysis

A. V. Maximychev, I. Beletskaya, A. Perepukhov, 2019, Mendeleev Communications.

Iminophosphites as new chiral P,N-bidentate ligands

S. E. Lyubimov, V. Davankov, Z. Starikova, 2001 .

Palladium and rhodium-catalyzed enantioselective reactions mediated by pseudodipeptide-based phosphite-type ligand

K. Gavrilov, S. Zheglov, V. Gavrilov, 2018, Russian Chemical Bulletin.

Diastereomeric bisamidophosphites based on oxalamide 1,3-diol in asymmetric metal complex catalysis

K. Gavrilov, V. Zimarev, S. Zheglov, 2018, Russian Chemical Bulletin.

Palladium-catalysed asymmetric allylation and complex formation involving P,N-bidentate diamidophosphites with 1,3,2-diazaphospholidine cycles

S. E. Lyubimov, V. Davankov, K. Gavrilov, 2005 .

Pd-catalyzed asymmetric reactions using resorcinol- and hydroquinone-based P∗,P∗-bidentate diamidophosphites

V. Davankov, K. Gavrilov, S. Zheglov, 2011 .

Diastereomeric P*-mono- and P*,P*-bidentate diamidophosphite ligands based on 1,4:3,6-dianhydro-d-mannitol in asymmetric metallocomplex catalysis

A. Börner, B. Schäffner, S. E. Lyubimov, 2008 .

NOBIN-based chiral phosphite-type ligands and their application in asymmetric catalysis

V. Chernyshev, V. Tafeenko, I. A. Zamilatskov, 2015 .

Diamidophosphites with remote P∗-stereocentres and their performance in Pd-catalyzed enantioselective reactions

I. A. Zamilatskov, A. Volov, K. Gavrilov, 2014 .

Development of P∗-monodentate diamidophosphites with a C1-symmetric 1,2-diamine backbone: the effects of substituents in the 1,3,2-diazaphospholidine cycle on Pd-catalyzed asymmetric allylations

V. Davankov, K. Gavrilov, I. Chuchelkin, 2013 .

BINOL-derived diphosphoramidites bearing unsymmetrical 1,2-diamine link and their application in asymmetric catalysis

A. Börner, V. Davankov, K. Gavrilov, 2012 .

Nonsimple relationships between the P∗-chiral diamidophosphite and the arylphosphine moieties in Pd-catalyzed asymmetric reactions: combinatorial approach and P,P∗-bidentate phosphine-diamidophosphites

I. A. Zamilatskov, A. Volov, K. Gavrilov, 2014 .

Pd-Catalyzed asymmetric transformations involving P*-mono- and P*,N-bidentate diamidophosphites derived from (2S,3S)-N2,3-dimethyl-N1-phenylpentane-1,2-diamine

V. Davankov, P. Petrovskii, K. Gavrilov, 2012, Russian Chemical Bulletin.

First P,P*-bidentate phosphine-phosphite-type ligand with a P*-stereocenter in the phosphite moiety: synthesis and application in the Pd-catalyzed asymmetric allylic alkylation

I. Zamilatskov, I. A. Zamilatskov, A. Volov, 2013, Russian Chemical Bulletin.

P-Chiral Monodentate Diamidophosphites − New and Efficient Ligands for Palladium-Catalysed Asymmetric Allylic Substitution

A. Kabro, S. E. Lyubimov, V. Davankov, 2004 .

Novel Highly Efficient P‐Chiral Ferrocenylimino Diamidophosphite Ligands for Pd‐Catalysed Asymmetric Allylation

M. Antipin, S. E. Lyubimov, V. Davankov, 2005 .

The first pincer-type phosphodiamidite ligand containing chiral phosphorus atoms

S. E. Lyubimov, V. Davankov, K. Gavrilov, 2009 .

P*,N‐Bidentate Amino Phosphoramidites: New Highly Effective Ligands for Pd‐Catalysed Asymmetric Allylic Substitution

M. Antipin, S. E. Lyubimov, V. Davankov, 2004 .

New oxazoline-containing phosphoramidite ligand for palladium-catalyzed asymmetric allylic sulfonylation

S. E. Lyubimov, V. Davankov, A. Kucherenko, 2003 .

K3(U3O6)(Si2O7) and Rb3(U3O6)(Ge2O7): a pentavalent-uranium silicate and germanate.

K. Lii, Y. Zubavichus, Chia-Hui Lin, 2008, Inorganic chemistry.

Novel P,N-bidentate phosphite ligands in asymmetric catalysis.

S. E. Lyubimov, V. Davankov, H. Gais, 2003, Chirality.

Easily Accessible Chiral P,N‐Bidentate Aryl Phosphites, Their Complexation and Application in Enantioselective Allylic Alkylation, Sulfonylation and Hydrosilylation

K. Lyssenko, N. S. Ikonnikov, S. E. Lyubimov, 2002 .

A first P,N-bidentate phosphite with a chiral ketimine fragment. Catalytic properties of its RhI and PdII complexes in comparison with those of phosphine analogs

S. E. Lyubimov, V. Davankov, K. Gavrilov, 2004 .

Novel P,N-Bidentate Phosphite Ligands in Asymmetric Catalysis

S. E. Lyubimov, H. Gais, A. Polosukhin, 2004 .

An efficient chiral phosphitooxazoline ligand for Pd-catalyzed asymmetric allylic sulfonylation

S. E. Lyubimov, V. Davankov, K. Gavrilov, 2002 .

A First P,N-Bidentate Phosphite with a Chiral Ketimine Fragment. Catalytic Properties of Its RhI and PdII Complexes in Comparison with Those of Phosphine Analogues.

S. E. Lyubimov, V. Davankov, K. Gavrilov, 2005 .

Nanostructured catalysts for direct electrooxidation of dimethyl ether based on Bi- and trimetallic Pt–Ru and Pt–Ru–Pd alloys prepared from coordination compounds

N. A. Maiorova, V. Andreev, V. V. Emets, 2017, Russian Journal of Coordination Chemistry.

Nanoscale Catalysts of Oxygen Reduction Based on Bimetallic Clusters in Hydrogen–Air Fuel Cell Operating Conditions

A. D. Modestov, V. V. Emets, V. A. Grinberg, 2019, Protection of Metals and Physical Chemistry of Surfaces.

Cesium speciation in aluminophosphate-based glass-crystalline materials for immobilization of high level waste from uranium-graphite channel reactor spent nuclear fuel reprocessing

P. V. Kozlov, B. Myasoedov, Y. Zubavichus, 2014, Doklady Chemistry.

Oxidation state and coordination environment of uranium in sodium iron aluminophosphate glasses

V. Murzin, B. Myasoedov, A. A. Shiryaev, 2016, Doklady Physical Chemistry.

Synthesis and Structure–Energy Characteristics of an MOF Al-BTC Organometallic Framework Structure

A. Tsivadze, A. Shkolin, A. Fomkin, 2017, Protection of Metals and Physical Chemistry of Surfaces.

Nanoscale catalysts based on platinum-ruthenium and platinum-ruthenium-tin alloys: Synthesis from appropriate metal complexes and the use in direct methanol electrooxidation

V. Andreev, V. V. Emets, V. A. Grinberg, 2015, Russian Journal of Coordination Chemistry.

Coordination compounds as the precursors for preparation of nanosized platinum or platinum-containing mixed-metal catalysts of oxygen reduction reaction

V. Andreev, V. V. Emets, V. A. Grinberg, 2015, Russian Journal of Coordination Chemistry.

Distribution of water-soluble phthalocyanine in latex polymer according to small-angle X-ray scattering

A. Tsivadze, V. A. Kotenev, T. Aslamazova, 2013, Protection of Metals and Physical Chemistry of Surfaces.

Silver deposition from its nitrate solutions by hydrogenated palladium

S. V. Vashchenko, A. Tsivadze, I. Bardyshev, 2017, Theoretical Foundations of Chemical Engineering.

Novel 1,3,2-diazaphospholidines with pseudodipeptide substituents

V. Chernyshev, V. Tafeenko, K. Gavrilov, 2018, Phosphorus, Sulfur, and Silicon and the Related Elements.

Nanostructured Catalysts of Methanol Electrooxidation Based on Platinum–Ruthenium–Palladium and Platinum–Ruthenium–Iridium Alloys Derived from Coordination Compounds

N. A. Maiorova, V. A. Grinberg, V. Vysotskii, 2018, Russian Journal of Coordination Chemistry.