Investigation of physicochemical properties and radiation resistance of fullerene and endohedral metallofullerene derivatives under the ionizing radiation influence
https://doi.org/10.17586/2220-8054-2019-10-4-447-455
Abstract
The radiation resistances of fullerenes C60 and C70, end metallofullerenes Me@C2n (n = 30 – 50), derivatives C60(OH)(30) and Me@C2n(OH)30−40 (Me = Sm, Eu, Gd, Tb, Ho, Fe, Co), and complexes with biocompatible polymers – polyvinylpyrrolidone and dextrin –
Fe@C60(C6H9NO)n, Sm@C82(C6H9NO)n, Gd@C82(C6H9NO)n and Fe@C60(C6H10O5)n were studied. For the structures irradiated by protons with energies of 100 MeV and 1 GeV, radiation resistance was estimated. The comparison of the results of radiation resistance under irradiation by protons and reactor neutrons at fluencies from 1018 to 1019 cm−2 was carried out. It is shown, that endofullerenols are more stable under the proton and neutron irradiation than initial endofullerenes. The molecules containing Eu, Gd and Sm with large thermal neutron capture cross sections were found to be the most stable under neutron irradiation.The mechanism of rebuilding of secondary endofullerenols Eu, Sm, Gd, as well as other factors’ influence on radiation resistance are discussed.
About the Authors
M. V. Suyasova
B.P. Konstantinov Petersburg Nuclear Physics Institute, NRC Kurchatov Institute
Russian Federation
Russian Federation
Leningradskaya oblast, Gatchina, 1 mkr. Orlova roshcha, 188300
A. A. Borisenkova
B.P. Konstantinov Petersburg Nuclear Physics Institute, NRC Kurchatov Institute
Russian Federation
Russian Federation
Leningradskaya oblast, Gatchina, 1 mkr. Orlova roshcha, 188300
V. A. Shilin
B.P. Konstantinov Petersburg Nuclear Physics Institute, NRC Kurchatov Institute
Russian Federation
Russian Federation
Leningradskaya oblast, Gatchina, 1 mkr. Orlova roshcha, 188300Leningradskaya oblast, Gatchina, 1 mkr. Orlova roshcha, 188300
V. P. Sedov
B.P. Konstantinov Petersburg Nuclear Physics Institute, NRC Kurchatov Institute
Russian Federation
Russian Federation
Leningradskaya oblast, Gatchina, 1 mkr. Orlova roshcha, 188300
D. N. Orlova
B.P. Konstantinov Petersburg Nuclear Physics Institute, NRC Kurchatov Institute
Russian Federation
Russian Federation
Leningradskaya oblast, Gatchina, 1 mkr. Orlova roshcha, 188300
References
1. Piotrovsky L.B., Kiselev O.I. Fullerenes in biology, Rostock, SPb, 2006, 336 p.
2. Anokhin Yu.N. Nanotechnologies and nanomaterials for the visualization and therapy of malignant tumors. The success of modern science, 2014, 5 (2), P. 14–25.
3. Lebedev V.T., Kulvelis Yu.V., et al. Biocompatible water-soluble endometallofullerenes: peculiarities of self-assembly in aqueous solutions and ordering under an applied magnetic field. Nanosystems: physics, chemistry, mathematics, 2016, 7 (1), P. 22–29.
4. Lebedev V.T., Szhogina A.A., Bairamukov V.Yu. Small angle neutron and X-ray studies of carbon structures with metal atoms. J. Phys.: Conf. Series, 2017, 848, 012005.
5. Ferrucci J.T., Stark D.D. Iron oxide-enhanced MR imaging of the liver and spleen: Review of the first 5 years. Am. J. Roentgenol, 1990, 155, P. 943–950.
6. Kalambur V.S., Longmire E.K. Cellular level loading and heating of superparamagnetic iron oxide nanoparticles. Langmuir, 2007, 23, P. 12329–12336.
7. Djordjevic A., et al. Review of synthesis and antioxidant potential of fullerenol nanoparticles. Journal of Nanomaterials, 2015, 16 (1), 280.
8. Yevlampieva N.P., et al. Polymer-endofullerene Fe@C60 complexes for biomedical applications. Vestnik SPSU. Physics and chemistry, 2018, 5 (63).
9. Aryutkin K.N., et al. Investigation of the structural features of titanium-polymer composite materials irradiated by protons and electrons. Proceedings of higher educational institutions, 2011, 1/2, P. 44–50.
10. Pavlenko V.I., et al. The phenomena of electrification dielectric polymer composite under the action of a stream of high-energy protons. Proceedings of the Samara Scientific Center of the Russian Academy of Sciences, 2010, 12 (4–3), P. 677–681.
11. Borisov A.M., et al. Modeling the impact of space factors on composite ceramic layers on aluminum alloys. Physics and chemistry of materials processing, 2012, 5, P. 27–30.
12. Lebedev V.T., et al. Investigation of radiation resistance of fullerenes under irradiation with fast neutrons. Physics of the Solid State, 2014, 56 (1), P. 178–182.
13. Harutyunyan G.S. Acceleration methods for obtaining technetium 99M – technology of preparation and processing of the target and beam control, Diss. for the degree of Ph.D., Yerevan, 2016.
14. Khmelev A.V., Bakay P.S. Features of 124I cyclotron production for PET diagnostics during proton irradiation of 124TeO film. Medical Physics, 2013, 4, P. 52–59.
15. Szhogina A.A., Shilin V.A., Sedov V.P., Lebedev V.T. Radiation resistance of endohedral metallofullerenols under neutron irradiation. Crystallogr. Reports, 2016, 61 (4), P. 666–669.
16. Shilin V.A., Lebedev V.T., Sedov V.P., Szhogina A.A. Synthesis and radiation resistance of fullerenes and fullerene derivatives. Crystallogr. Reports, 2016, 61 (4), P. 670–674.
17. Shilin V.A., et al. Fullerenes and Fullerenols survival under irradiation. Nanosystems: physics, chemistry, mathematics, 2016, 7 (1), P. 146–152.
18. Method of producing fullerene C70, Patent.2455230C2 Russia: MPK B01D11/02, B01D15/08, B01D9/00, B82B3/00, B82Y40/00, C01B31/02, Sedov V.P., Kolesnik S.G., N 2010134077/05A, Issue N 19.
19. Method of producing highly water-soluble fullerenols, Patent.2558121C1 Russia: MPK B82B3/00, B82Y40/00, C01B31/02, C07C29/03, Sedov V.P., Szhogina A.A., N 2014113248/05A, Issue N 21.
20. Method of producing 3d-metal endofullerene, Patent. 2664133C1 Russia: MPK C01B 32/156, B82B 3/00, B82Y 40/00, Sedov V.P., Szhogina A.A., Suaysova M. V., Lebedev V.T., N 2017108883A, Issue N 23.
21. Method for producing water-soluble hydroxylated derivatives of endometallofullerenes of lanthanides, Patent. 2659972C1 Russia: MPK C01B 32/156, B82B 3/00, B82Y 40/00, Sedov V.P. Szhogina A.A., Suaysova M.V., Shilin V.A., Lebedev V.T., No. 2016151106A, Issue No. 19.
22. Shilin V.A., et al. Investigation of the neutron activation of endohedral rare earth metallofullerenes. Crystallography Reports, 2011, 56 (7), P. 1192–1196.
23. Kokubo K., et al. Facile synthesis of highly water-soluble fullerenes more than half-covered by hydroxyl groups. ACS nano, 2008, 2 (2), P. 327–333.
24. Husebo L.O., Sitharaman B., et al. Fullerenols revisited as stable radical anions. Journal of the American Chemical Society, 2004, 126 (38), P. 12055–12064.
25. Chiang L.Y., Upasani R.B., Swirczewski J.W., Soled S. Evidence of hemiketals incorporated in the structure of fullerols derived from aqueous acid chemistry. Journal of the American Chemical Society, 1993, 115 (13), P. 5453–5457.
26. Belanova T.S., Ignatyuk A.V., Pashchenko A.B., Plyaskin V.I. Radiative Neutron. Capture – Handbook. Energoatomizdat, Moscow, 1986, 248 p. (in Russian)
27. Schmitt C., Schmidt K.-H., Keli’c-Heil A. SPACS: A semi-empirical parameterization for isotopic spallation cross sections. Physical Review, 2014, 90 (6), 064605.
28. Mishenina L.M., Shelkovnikov V.V. Reference materials in chemistry, educational and methodical manual. 2007, URL: https://ido.tsu.ru/schools/chem/data/files/spravochnik.pdf.
29. Malik B., Panigrahi, S. Effect of amorphization cross-section of polymer due to MeV-proton irradiation. Applied Physics, 2012, 1, P. 20–25.
30. Dubovskii I.M., et al. Study of the Radiation Resistance of Endohedral Fullerenes of Rare-Earth Elements and Their Water-Soluble Derivatives. Crystallography Reports, 2018, 63 (1), P. 132–138.
31. Dunsch L., Krause M., Noack J., Georgi P. Endohedral nitride cluster fullerenes: Formation and spectroscopic analysis of L3xMxN@ C2n (0x3; N =39, 40). Journal of Physics and Chemistry of Solids, 2004, 65 (2–3), P. 309–315.
32. Kobayashi K., Nagase S. Structures and electronic states of M@ C82 (M= Sc, Y, La and lanthanides). Chemical physics letters, 1998, 282 (3– 4), P. 325–329.
33. Hao Y., et al. Sm@C2v (19138)-C76: A non-IPR cage stabilized by a divalent metal ion. Inorganic chemistry, 2015, 54 (9), P. 4243–4248.
34. Mizorogi N., Nagase S. Do Eu@C82 and Gd@C82 have an anomalous endohedral structure?. Chemical physics letters, 2006, 431 (1–3), P. 110–112.
35. Liu L., et al. The structural determination of endohedral metallofullerene Gd@C82 by XANES. Chemical Communications, 2008, 4, P. 474– 476.
36. Sebetci A., Richter M. Gd@C82: origin of the antiferromagnetic coupling between endohedral Gd and the free spin on the carbon cage. The Journal of Physical Chemistry C, 2009, 114 (1), P. 15–19.
37. Grushko Y.S., et al. Radioactive metallofullerenes: Hot atom chemistry aspects. Fullerenes, Nanotubes, and Carbon Nonstructures, 2006, 14 (2–3), P. 249–259.
38. Averbukh V., Cederbaum L.S. Interatomic electronic decay in endohedral fullerenes. Physical review letters, 2006, 96 (5), 053401.
Review
For citations:
Suyasova M.V., Borisenkova A.A., Shilin V.A., Sedov V.P., Orlova D.N. Investigation of physicochemical properties and radiation resistance of fullerene and endohedral metallofullerene derivatives under the ionizing radiation influence. Nanosystems: Physics, Chemistry, Mathematics. 2019;10(4):447–455. https://doi.org/10.17586/2220-8054-2019-10-4-447-455
Views:
0
Email this article 