Home / Articles / New method for the synthesis of heterospin metal complexes with nitroxides

New method for the synthesis of heterospin metal complexes with nitroxides

Victor Ivanovich Ovcharenko 1, 2
Victor Ivanovich Ovcharenko
, 
Olga Vasil'evna Kuznetsova 2
Olga Vasil'evna Kuznetsova
1 N.D. Zelinskii Institute of Organic Chemistry, Russian Academy of Sciences
2 International Tomography Center of the Siberian Branch of the Russian Academy of Sciences, Novosibirsk
Published 30 November 2019
21
Share
Cite this
GOST
 | 
Cite this
GOST
Ovcharenko V. I., Kuznetsova O. V. New method for the synthesis of heterospin metal complexes with nitroxides // Russian Chemical Reviews. 2019. Vol. 89. No. 11. pp. 1261-1273.
GOST all authors (up to 50)
Ovcharenko V. I., Kuznetsova O. V. New method for the synthesis of heterospin metal complexes with nitroxides // Russian Chemical Reviews. 2019. Vol. 89. No. 11. pp. 1261-1273.
RIS
 | 
Cite this
RIS
TY - JOUR
DO - 10.1070/RCR4981
UR - https://rcr.colab.ws/publications/10.1070/RCR4981
TI - New method for the synthesis of heterospin metal complexes with nitroxides
T2 - Russian Chemical Reviews
AU - Ovcharenko, Victor Ivanovich
AU - Kuznetsova, Olga Vasil'evna
PY - 2019
DA - 2019/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 1261-1273
IS - 11
VL - 89
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
@article{2019_Ovcharenko,
author = {Victor Ivanovich Ovcharenko and Olga Vasil'evna Kuznetsova},
title = {New method for the synthesis of heterospin metal complexes with nitroxides},
journal = {Russian Chemical Reviews},
year = {2019},
volume = {89},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4981},
number = {11},
pages = {1261--1273},
doi = {10.1070/RCR4981}
}
MLA
Cite this
MLA
Ovcharenko, Victor Ivanovich, and Olga Vasil'evna Kuznetsova. “New method for the synthesis of heterospin metal complexes with nitroxides.” Russian Chemical Reviews, vol. 89, no. 11, Nov. 2019, pp. 1261-1273. https://rcr.colab.ws/publications/10.1070/RCR4981.
Views / Visits / Downloads
22 / 20 / 4

Keywords

New synthetic approach
Nitroxides
redox-active ligands
Transition metal complex

Abstract

A new approach was developed to synthesize transition metal complexes with nitroxides based on the simultaneous involvement of nitronyl nitroxide and imino nitroxide in the reaction with metal. It was shown that the reaction of a metal with nitronyl nitroxide can afford a metal complex containing two different radicals in the metal coordination sphere in the case when imino nitroxide is generated in the reaction medium \textit{via} a redox process. The reaction of a metal with imino nitroxide also can give mixed-ligand complexes, in which the metal is coordinated by both the starting imino nitroxide and its reduction product---the corresponding amidine oxide. This compound can be prepared by an independent synthesis using the reaction of metal with sterically hindered amidine oxide, resulting in the formation of mixed-ligand coordination compounds through the coordination of both the starting amidine oxide and its oxidation product---imino nitroxide. In the latter case, the following conditions have to be met: the reaction should be performed in the presence of oxygen and transition metal, which can easily change its oxidation state under ambient conditions ($\mathrm{Co}^{\mathrm{II}}$, $\mathrm{Mn}^{\mathrm{II}}, \mathrm{Fe}^{\mathrm{II}})$. To synthesize mixed-ligand complexes with transition metals, which are not prone to change the oxidation state under ambient conditions ($\mathrm{Ni}^{\mathrm{II}}$, $\mathrm{Zn}^{\mathrm{II}})$, a specially prepared mixture of nitronyl nitroxide and imino nitroxide should be added to the reaction mixture. It is worth noting that the reaction can be performed using nitronyl nitroxide and imino nitroxide belonging to different series, which significantly extends the scope of the method.

The bibliography includes 156 references.

Funders

Russian Foundation for Basic Research
19-29-08005
Russian Science Foundation
18-13-00380

References

1.
rcr_89_11_1261bib1
Hicks
2010
2.
Introducing Stable Radicals into Molecular Machines
Wang Y., Frasconi M., Stoddart J.F.
ACS Central Science , 2017
3.
rcr_89_11_1261bib3
Volodarsky
1994
4.
The chemistry of nitroxide radicals in the molecular design of magnets
5.
Nitroxides: Brief History, Fundamentals, and Recent Developments
Likhtenshtein G.I.
Springer Series in Materials Science , 2020
6.
Radical ligand-containing single-molecule magnets
Demir S., Jeon I., Long J.R., Harris T.D.
Coordination Chemistry Reviews , 2015
7.
Nitroxides: Versatile Reporters and Reactants
Zottler E., Gescheidt G.
Journal of Chemical Research , 2011
8.
rcr_89_11_1261bib8
Freed
1976
9.
rcr_89_11_1261bib9
Hemminga
2007
10.
rcr_89_11_1261bib10
Calbo
2019
11.
Magnetically ordered molecule-based materials
Miller J.S.
Chemical Society Reviews , 2011
12.
rcr_89_11_1261bib12
Turek
2020
13.
rcr_89_11_1261bib13
Moad
1995
14.
Narrow molecular weight resins by a free-radical polymerization process
Georges M.K., Veregin R.P., Kazmaier P.M., Hamer G.K.
Macromolecules , 1993
15.
New Polymer Synthesis by Nitroxide Mediated Living Radical Polymerizations
Hawker C.J., Bosman A.W., Harth E.
Chemical Reviews , 2001
16.
Kinetic study of H‐atom transfer in imidazoline‐, imidazolidine‐, and pyrrolidine‐based alkoxyamines: Consequences for nitroxide‐mediated polymerization
Edeleva M.V., Kirilyuk I.A., Zubenko D.P., Zhurko I.F., Marque S.R., Gigmes D., Guillaneuf Y., Bagryanskaya E.G.
Journal of Polymer Science, Part A: Polymer Chemistry , 2009
17.
Nitroxide-mediated polymerization
Nicolas J., Guillaneuf Y., Lefay C., Bertin D., Gigmes D., Charleux B.
Progress in Polymer Science , 2013
20.
Imidazol-4-yl 2-Imidazoline Nitroxide Radicals, a New Class of Promising Contrast Agents for Magnetic Resonance Imaging
Ovcharenko V.I., Fursova E.Y., Tolstikova T.G., Sorokina K.N., Letyagin A.Y., Savelov A.A.
Doklady Chemistry , 2005
22.
A novel ascorbic acid-resistant nitroxide in fat emulsion is an efficient brain imaging probe forin vivoEPR imaging of mouse
Emoto M., Mito F., Yamasaki T., Yamada K., Sato-Akaba H., Hirata H., Fujii H.
Free Radical Research , 2011
23.
Synthesis and Reduction Kinetics of Five Ibuprofen–Nitroxides for Ascorbic Acid and Methyl Radicals
Sasaki K., Ito T., Fujii H.G., Sato S.
Chemical and Pharmaceutical Bulletin , 2016
24.
Functional electron paramagnetic resonance imaging of ischemic rat heart: Monitoring of tissue oxygenation and pH
Gorodetsky A.A., Kirilyuk I.A., Khramtsov V.V., Komarov D.A.
Magnetic Resonance in Medicine , 2015
25.
Organic tailored batteries materials using stable open-shell molecules with degenerate frontier orbitals
Morita Y., Nishida S., Murata T., Moriguchi M., Ueda A., Satoh M., Arifuku K., Sato K., Takui T.
Nature Materials , 2011
26.
Electrochemical and spectroscopic measurements for stable nitroxyl radicals
Nakahara K., Iwasa S., Iriyama J., Morioka Y., Suguro M., Satoh M., Cairns E.J.
Electrochimica Acta , 2006
27.
Cell properties for modified PTMA cathodes of organic radical batteries
Nakahara K., Iriyama J., Iwasa S., Suguro M., Satoh M., Cairns E.J.
Journal of Power Sources , 2007
28.
Syntheses and Electrochemical Properties of TEMPO Radical Substituted Silicones: Active Material for Organic Radical Batteries
Suguro M., Mori A., Iwasa S., Nakahara K., Nakano K.
Macromolecular Chemistry and Physics , 2009
29.
Rechargeable batteries with organic radical cathodes
Nakahara K., Iwasa S., Satoh M., Morioka Y., Iriyama J., Suguro M., Hasegawa E.
Chemical Physics Letters , 2002
30.
Organic radical battery: nitroxide polymers as a cathode-active material
Nishide H., Iwasa S., Pu Y., Suga T., Nakahara K., Satoh M.
Electrochimica Acta , 2004
31.
Synthesis and Charge/Discharge Properties of Polyacetylenes Carrying 2,2,6,6-Tetramethyl-1-piperidinoxy Radicals
Qu J., Katsumata T., Satoh M., Wada J., Igarashi J., Mizoguchi K., Masuda T.
Chemistry - A European Journal , 2007
32.
Toward Flexible Batteries
Nishide H., Oyaizu K.
Science , 2008
34.
Twisting of diarylnitroxides: An efficient tool for redox tuning
Levitskiy O.A., Sentyurin V.V., Magdesieva T.V.
Electrochimica Acta , 2018
35.
rcr_89_11_1261bib35
Shiga
J. Mater. Chem. A , 2017
36.
Understanding the fundamentals of redox mediators in Li-O2 batteries: a case study on nitroxides.
Bergner B.J., Hofmann C., Schürmann A., Schröder D., Peppler K., Schreiner P.R., Janek J.
Physical Chemistry Chemical Physics , 2015
37.
The 2,2,6,6-Tetramethyl-1-piperidinyloxy Radical: An Efficient, Iodine- Free Redox Mediator for Dye-Sensitized Solar Cells
Zhang Z., Chen P., Murakami T. ., Zakeeruddin S. ., Grätzel M.
Advanced Functional Materials , 2008
38.
Nitroxide Radicals for Highly Efficient Redox Mediation in Dye-sensitized Solar Cells
Kato F., Hayashi N., Murakami T., Okumura C., Oyaizu K., Nishide H.
Chemistry Letters , 2010
39.
Murakami T., Kato F., Oyaizu K., Nishide H.
Journal of Photopolymer Science and Technology , 2010
41.
Thiophene–nitroxide radical as a novel combination of sensitizer–redox mediator for dye-sensitized solar cells
Lee J.Y., Lee C., Lee Y.M., Cho K.Y., Choi J.W., Park J.
Journal of Solid State Electrochemistry , 2011
42.
Toward molecular magnets: the metal-radical approach
Caneschi A., Gatteschi D., Sessoli R., Rey P.
Accounts of Chemical Research , 1989
44.
rcr_89_11_1261bib44
Iwamura
2001
47.
Control of Magnetic Properties through External Stimuli
Sato O., Tao J., Zhang Y.
Angewandte Chemie - International Edition , 2007
48.
rcr_89_11_1261bib48
Ovcharenko
2010
49.
Synthesis and Structure of Heterospin Compounds Based on the [Mn6(O)2Piv10]-Cluster Unit and Nitroxide
Ovcharenko V., Fursova E., Romanenko G., Ikorskii V.
Inorganic Chemistry , 2004
50.
Synthesis, Structure, and Magnetic Properties of (6−9)-Nuclear Ni(II) Trimethylacetates and Their Heterospin Complexes with Nitroxides
Ovcharenko V., Fursova E., Romanenko G., Eremenko I., Tretyakov E., Ikorskii V.
Inorganic Chemistry , 2006
52.
rcr_89_11_1261bib52
Ovcharenko
2013
54.
Molecular design of stable diarylnitroxides
Magdesieva T.V., Levitskiy O.A.
Russian Chemical Reviews , 2018
55.
Twisted Diarylnitroxides: An Efficient Route for Radical Stabilization
Levitskiy O.A., Eremin D.B., Bogdanov A.V., Magdesieva T.V.
European Journal of Organic Chemistry , 2017
56.
Emerging N-Type Redox-Active Radical Polymer for a Totally Organic Polymer-Based Rechargeable Battery
Suga T., Ohshiro H., Sugita S., Oyaizu K., Nishide H.
Advanced Materials , 2009
57.
TEMPO/Phenazine Combi-Molecule: A Redox-Active Material for Symmetric Aqueous Redox-Flow Batteries
Winsberg J., Stolze C., Muench S., Liedl F., Hager M.D., Schubert U.S.
ACS Energy Letters , 2016
58.
Oxygen Activation by Co(II) and a Redox Non-Innocent Ligand: Spectroscopic Characterization of a Radical–Co(II)–Superoxide Complex with Divergent Catalytic Reactivity
Corcos A.R., Villanueva O., Walroth R.C., Sharma S.K., Bacsa J., Lancaster K.M., MacBeth C.E., Berry J.F.
Journal of the American Chemical Society , 2016
59.
Redox-active ligands in catalysis
Luca O.R., Crabtree R.H.
Chemical Society Reviews , 2013
60.
Aerobic Oxidation of Primary Alcohols (Including Methanol) by Copper(II)− and Zinc(II)−Phenoxyl Radical Catalysts
Chaudhuri P., Hess M., Müller J., Hildenbrand K., Bill E., Weyhermüller T., Wieghardt K.
Journal of the American Chemical Society , 1999
62.
Redox-active ligands in catalysis.
Praneeth V.K., Ringenberg M.R., Ward T.R.
Angewandte Chemie - International Edition , 2012
63.
Non-innocent ligands in bioinorganic chemistry—An overview
Kaim W., Schwederski B.
Coordination Chemistry Reviews , 2010
65.
Cooperating Ligands in Catalysis
Grützmacher H.
Angewandte Chemie - International Edition , 2008
67.
rcr_89_11_1261bib67
Jeon
J. Am. Chem. Soc. , 2013
68.
A stable open-shell redox active ditopic ligand
Bonanno N.M., Lough A.J., Prosser K.E., Walsby C.J., Poddutoori P.K., Lemaire M.T.
Dalton Transactions , 2016
70.
rcr_89_11_1261bib70
Min
2003
71.
rcr_89_11_1261bib71
Min
2004
72.
Ligands that Store and Release Electrons during Catalysis
Dzik W.I., van der Vlugt J.I., Reek J.N., de Bruin B.
Angewandte Chemie - International Edition , 2011
73.
Addition of Nitriles to Alkaline Earth Metal Complexes of 1,2-Bis[(phenyl)imino]acenaphthenes
Fedushkin I.L., Morozov A.G., Rassadin O.V., Fukin G.K.
Chemistry - A European Journal , 2005
74.
Redox-triggered chiroptical molecular switches
Canary J.W.
Chemical Society Reviews , 2009
78.
Electrically Conductive Porous Metal-Organic Frameworks
Sun L., Campbell M.G., Dincă M.
Angewandte Chemie - International Edition , 2016
79.
Reversible Solution π-Dimerization and Long Multicenter Bonding in a Stable Phenoxyl Radical
Bonanno N.M., Poddutoori P.K., Sato K., Sugisaki K., Takui T., Lough A.J., Lemaire M.T.
Chemistry - A European Journal , 2018
80.
Polynuclear Cu4L4 Copper(II) Aminyl Radical Coordination Complexes
Bonanno N.M., Lough A.J., Lemaire M.T.
Inorganic Chemistry , 2018
82.
rcr_89_11_1261bib82
Acworth
2003
83.
rcr_89_11_1261bib83
Banerjee
2008
84.
Thin-Film V[TCNE]x Magnets
Pokhodnya K.I., Epstein A.J., Miller J.S.
Advanced Materials , 2000
85.
Magnetic and Optical Bistability Driven by Thermally and Photoinduced Intramolecular Electron Transfer in a Molecular Cobalt−Iron Prussian Blue Analogue
Li D., Clérac R., Roubeau O., Harté E., Mathonière C., Le Bris R., Holmes S.M.
Journal of the American Chemical Society , 2007
86.
rcr_89_11_1261bib86
Turnbull
Eur. Chem. Bull. , 2013
87.
rcr_89_11_1261bib87
Miller
Science , 1988
88.
Evidence for Interface-Induced Strain and Its Influence on Photomagnetism in Prussian Blue Analogue Core–Shell Heterostructures, RbaCob[Fe(CN)6]c·mH2O@KjNik[Cr(CN)6]l·nH2O
Felts A.C., Andrus M.J., Knowles E.S., Quintero P.A., Ahir A.R., Risset O.N., Li C.H., Maurin I., Halder G.J., Abboud K.A., Meisel M.W., Talham D.R.
Journal of Physical Chemistry C , 2016
89.
Oxidation leading to reduction: redox-induced electron transfer (RIET).
Miller J., Min K.
Angewandte Chemie - International Edition , 2009
95.
Spin-crossover in a homoleptic cobalt(ii) complex containing a redox-active NNO ligand
Taylor R.A., Lough A.J., Lemaire M.T.
Journal of Materials Chemistry C , 2016
100.
Digallane with Redox-Active Diimine Ligand: Dualism of Electron-Transfer Reactions
Fedushkin I.L., Skatova A.A., Dodonov V.A., Chudakova V.A., Bazyakina N.L., Piskunov A.V., Demeshko S.V., Fukin G.K.
Inorganic Chemistry , 2014
101.
Ligand “Brackets” for Ga–Ga Bond
Fedushkin I.L., Skatova A.A., Dodonov V.A., Yang X., Chudakova V.A., Piskunov A.V., Demeshko S., Baranov E.V.
Inorganic Chemistry , 2016
102.
One- and Two-Electron-Transfer Reactions of (dpp-Bian)Sm(dme)3
Fedushkin I.L., Maslova O.V., Hummert M., Schumann H.
Inorganic Chemistry , 2010
103.
Genuine Redox Isomerism in a Rare-Earth-Metal Complex
Fedushkin I.L., Maslova O.V., Morozov A.G., Dechert S., Demeshko S., Meyer F.
Angewandte Chemie - International Edition , 2012
105.
Addition of phenylacetylene to a magnesium complex of monoiminoacenaphtheneone (dpp-mian)
Razborov D.A., Lukoyanov A.N., Baranov E.V., Fedushkin I.L.
Dalton Transactions , 2015
106.
Revisiting the Ullman's Radical Chemistry for Phthalocyanine Derivatives
Fidan I., Luneau D., Ahsen V., Hirel C.
Chemistry - A European Journal , 2018
107.
Molecular magnetism, quo vadis? A historical perspective from a coordination chemist viewpoint☆
Ferrando-Soria J., Vallejo J., Castellano M., Martínez-Lillo J., Pardo E., Cano J., Castro I., Lloret F., Ruiz-García R., Julve M.
Coordination Chemistry Reviews , 2017
109.
A new type of mixed-ligand complex with nitroxyl radicals
Burdukov A.B., Ovcharenko V.I., Ikorski V.N., Pervukhina N.V., Podberezskaya N.V., Grigor'ev I.A., Larionov S.V., Volodarskii L.B.
Inorganic Chemistry , 1991
110.
A One-Dimensional Helical Copper(II) Imino Nitroxide
Oshio H., Watanabe T., Ohto A., Ito T.
Inorganic Chemistry , 1997
111.
Preparation and Magnetic Properties of Metal-Complexes from N-t-Butyl-N-oxidanyl-2-amino-(nitronyl nitroxide)
Furui T., Suzuki S., Kozaki M., Shiomi D., Sato K., Takui T., Okada K., Tretyakov E.V., Tolstikov S.E., Romanenko G.V., Ovcharenko V.I.
Inorganic Chemistry , 2013
112.
Anion Dependent Redox Changes in Iron Bis-terdentate Nitroxide {NNO} Chelates
Gass I.A., Gartshore C.J., Lupton D.W., Moubaraki B., Nafady A., Bond A.M., Boas J.F., Cashion J.D., Milsmann C., Wieghardt K., Murray K.S.
Inorganic Chemistry , 2011
113.
Observation of Ferromagnetic Exchange, Spin Crossover, Reductively Induced Oxidation, and Field-Induced Slow Magnetic Relaxation in Monomeric Cobalt Nitroxides
Gass I.A., Tewary S., Nafady A., Chilton N.F., Gartshore C.J., Asadi M., Lupton D.W., Moubaraki B., Bond A.M., Boas J.F., Guo S., Rajaraman G., Murray K.S.
Inorganic Chemistry , 2013
114.
Room Temperature Magnetic Switchability Assisted by Hysteretic Valence Tautomerism in a Layered Two-Dimensional Manganese-Radical Coordination Framework
Lannes A., Suffren Y., Tommasino J.B., Chiriac R., Toche F., Khrouz L., Molton F., Duboc C., Kieffer I., Hazemann J., Reber C., Hauser A., Luneau D.
Journal of the American Chemical Society , 2016
117.
A self-assembled Cu(ii)4[2 × 2] grid with organic radicals
Shuvaev K.V., Sproules S., Rautiainen J.M., McInnes E.J., Collison D., Anson C.E., Powell A.K.
Dalton Transactions , 2013
118.
Ligand Contributions to the Electronic Structures of the Oxidized Cobalt(II) salen Complexes
Kochem A., Kanso H., Baptiste B., Arora H., Philouze C., Jarjayes O., Vezin H., Luneau D., Orio M., Thomas F.
Inorganic Chemistry , 2012
119.
The magnetochemistry of verdazyl radical-based materials
Koivisto B.D., Hicks R.G.
Coordination Chemistry Reviews , 2005
120.
One-Electron Oxidized Copper(II) Salophen Complexes: Phenoxyl versus Diiminobenzene Radical Species
Kochem A., Jarjayes O., Baptiste B., Philouze C., Vezin H., Tsukidate K., Tani F., Orio M., Shimazaki Y., Thomas F.
Chemistry - A European Journal , 2011
121.
Defining the Electronic and Geometric Structure of One-Electron Oxidized Copper−Bis-phenoxide Complexes
Storr T., Verma P., Pratt R.C., Wasinger E.C., Shimazaki Y., Stack T.D.
Journal of the American Chemical Society , 2008
122.
Persistent Metal Bis(Hexafluoroacetylacetonato) Complexes Featuring a 2,2′-Bipyridine Substituted Triarylamminium Radical Cation
Adugna S., Revunova K., Djukic B., Gorelsky S.I., Jenkins H.A., Lemaire M.T.
Inorganic Chemistry , 2010
123.
Progress and design challenges for high-spin molecules
125.
rcr_89_11_1261bib125
Kochem
Chem. – Eur. J. , 2012
126.
Influence of the chelate effect on the electronic structure of one-electron oxidized group 10 metal(ii)-(disalicylidene)diamine complexes
Shimazaki Y., Arai N., Dunn T.J., Yajima T., Tani F., Ramogida C.F., Storr T.
Dalton Transactions , 2011
127.
rcr_89_11_1261bib127
Benisvy
2001
128.
Ligand Radical Localization in a Nonsymmetric One-Electron Oxidized NiII Bis-phenoxide Complex
Storr T., Verma P., Shimazaki Y., Wasinger E., Stack T. .
Chemistry - A European Journal , 2010
129.
rcr_89_11_1261bib129
Benisvy
2003
130.
Tuning of Spin Transition in Radical-Containing Iron(III) Complexes by Remote Ligand Substituents
Mukherjee S., Weyhermüller T., Bill E., Wieghardt K., Chaudhuri P.
Inorganic Chemistry , 2005
132.
rcr_89_11_1261bib132
Pierpont
2007
133.
rcr_89_11_1261bib133
Hendrickson
2004
134.
rcr_89_11_1261bib134
Pierpont
Prog. Inorg. Chem. , 1994
137.
rcr_89_11_1261bib137
Boskovic
2013
138.
Mn(iv) and Mn(v)-radical species supported by the redox non-innocent bis(2-amino-3,5-di-tert-butylphenyl)amine pincer ligand
Leconte N., Moutet J., Herasymchuk K., Clarke R.M., Philouze C., Luneau D., Storr T., Thomas F.
Chemical Communications , 2017
140.
rcr_89_11_1261bib140
Roy
Inorg. Chem. , 2017
142.
Conducting Organic Frameworks Based on a Main‐Group Metal and Organocyanide Radicals
Zhang Z., Zhao H., Kojima H., Mori T., Dunbar K.R.
Chemistry - A European Journal , 2013
143.
rcr_89_11_1261bib143
Mi
JACS , 2019
144.
Redox-Induced Change in the Ligand Coordination Mode
Ovcharenko V., Kuznetsova O., Fursova E., Romanenko G., Polushkin A., Sagdeev R.
Inorganic Chemistry , 2014
145.
rcr_89_11_1261bib145
146.
rcr_89_11_1261bib146
Messerschmidt
2001
147.
Heterospin MnIII complex as a reaction product of the redox-induced change in the ligand coordination mode
Kuznetsova O.V., Fursova E.Y., Romanenko G.V., Bogomyakov A.S., Sagdeev R.Z., Ovcharenko V.I.
Russian Chemical Bulletin , 2016
149.
A New Method for the Synthesis of Heterospin Complexes
Ovcharenko V., Kuznetsova O., Fursova E., Romаnenko G., Bogomyakov A.
Crystals , 2015
150.
Simultaneous Introduction of Two Nitroxides in the Reaction: A New Approach to the Synthesis of Heterospin Complexes
Ovcharenko V., Kuznetsova O., Fursova E., Letyagin G., Romanenko G., Bogomyakov A., Zueva E.
Inorganic Chemistry , 2017
151.
Problem of a wide variety of products in the Cu(hfac)2-nitroxide system.
Fokin S., Ovcharenko V., Romanenko G., Ikorskii V.
Inorganic Chemistry , 2004
152.
SMM Behavior Tuned by an Exchange Coupling LEGO Approach for Chimeric Compounds: First 2p–3d–4f Heterotrispin Complexes with Different Metal Ions Bridged by One Aminoxyl Group
153.
Magnetic edge states and coherent manipulation of graphene nanoribbons
Slota M., Keerthi A., Myers W.K., Tretyakov E., Baumgarten M., Ardavan A., Sadeghi H., Lambert C.J., Narita A., Müllen K., Bogani L.
Nature , 2018
154.
Thermally Induced Magnetic Anomalies in Solvates of the Bis(hexafluoroacetylacetonate)copper(II) Complex with Pyrazolyl-Substituted Nitronyl Nitroxide
155.
Challenges in Engineering Spin Crossover: Structures and Magnetic Properties of Six Alcohol Solvates of Iron(II) Tris(2-picolylamine) Dichloride
Hostettler M., Törnroos K.W., Chernyshov D., Vangdal B., Bürgi H.
Angewandte Chemie - International Edition , 2004