1. Ukai S., Harada M., Okada H., Inoue M., Nomura S., Shikakura S., Asabe K., Nishida T., Fujiwara M. Alloying design of oxide dispersion strengthened ferritic steel for long life FBRs core materials. Journal of Nuclear Materials, 1993, v. 204, pp. 65  73.
2. Агеев В.С., Никитина А.А., Сагарадзе В.В., Сафронов Б.В., Чуканов А.П., Цвелев В.В. Исполь­зование методов металлургии распыленных и быстрозакаленных порошков для изготовления оболочек твэлов из дисперно-упрочненных ок­сидами (ДУО) жаропрочных ферритно-мартенситных сталей (Часть I). Вопросы атомной науки и техники. Серия: Материаловедение и новые материалы, 2007, т. 2, № 90, c. 134  141. / Ageev V.S., Nikitina A.A., Sagaradze V.V., Safronov B.V., Chukanov A.P., Tsvelev V.V. Ispol'zovanie metodov metallurgii raspylennyh i bystrozakalennyh poroshkov dlya izgotovleniya obolochek tvelov iz disperno-uprochnennyh oksidami (DUO) zharoprochnyh ferritno-martensitnyh stalej (Chast' I) [The use of metallurgy methods of sprayed and quick-quenched powders for the manufacture of fuel element shells from oxide dispersion-strengthened (ODS) heat-resistant ferritic-martensitic steels (Part I)]. Voprosy atomnoj nauki i tekhniki. Seriya: Materialovedenie i novye materialy [Issues of atomic science and technology. Series: Materials Science and New Materials], 2007, v. 2, no. 90, pp. 134  141. (In Russ.).
3. Sakamoto K., Miura Y., Ukai S., Oono N.H., Kimura A., Yamaji A., Kusagaya K., Takano S., Kondo T., Ikegawa T., Ioka I., Yamashita S. Development of accident tolerant FeCrAl-ODS fuel cladding for BWRs in Japan. Journal of Nuclear Materials, 2021, v. 557,
art. 153276.
4. Mukhopadhyay D.K., Froes F.H., Gelles D.S. Deve­lopment of oxide dispersion strengthened ferritic steels for fusion. Journal of Nuclear Materials, 1998, v. 258  263, pp. 1209  1215.
5. Lindau R., Möslang A., Schirra M., Schlossmacher P., Klimenkov M. Mechanical and microstructural properties of a hipped RAFM ODS-steel. Journal of Nuclear Materials, 2002, v. 307  311, art. 769  772.
6. Lindau R., Möslang A., Rieth M., Klimiankou M., Materna-Morris E., Alamo A., Tavassoli A.-A.F., Cayron C., Lancha A.-M., Fernandez P., Baluc N., Schäublin R., Diegele E., Filacchioni G., Rensman J.W., Schaaf B. v. d., Lucon E., Dietz W. Present development status of EUROFER and ODS-EUROFER for application in blanket concepts. Fusion Engineering and Design, 2005, v. 75  79, pp. 989  996.
7. Ukai S., Ohtsuka S., Kaito T., De Carlan Y., Ribis J., Malaplate J. Oxide dispersion-strengthened/ferrite-martensite steels as core materials for Generation IV nuclear reactors. In book: Structural Materials for Generation IV Nuclear Reactors, Elsevier, 2017, pp. 357  414.
8. Certain A., Kuchibhatla S., Shutthanandan V., Hoelzer D.T., Allen T.R. Radiation stability of nano­clusters in nano-structured oxide dispersion strengthened (ODS) steels. Journal of Nuclear Materials, 2013, v. 434, no. 1  3, pp. 311  321.
9. Фролов А.С., Кулешова Е.А., Гурович Б.А., Никитина А.A., Мальцев Д.А., Федотова С.В., Сафонов Д.В. Стабильность оксидов системы Y–Ti–O в реакторных материалах в условиях нейтронного облучения при повышенных температурах. Вопросы материаловедения, 2022, т. 111, № 3, с. 109  130. / Frolov A.S., Kuleshova E.A., Gurovich B.A., Nikitina A.A., Maltsev D.A., Fedotova S.V., Safonov D.V. Stabil'nost' oksidov sistemy Y–Ti–O v reaktornyh materialah v usloviyah nejtronnogo oblucheniya pri povyshennyh temperaturah [Stability of the Y–Ti–O oxides in reactor materials under neutron irradiation at high temperatures]. Voprosy Materialovedeniya [Problems of Material science], 2022, v. 111, no. 3, pp. 109  130. (In Russ.).
10. Wharry J.P., Swenson M.J., Yano K.H. A review of the irradiation evolution of dispersed oxide nanoparticles in the b.c.c. Fe-Cr system: Current understanding and future directions. Journal of Nuclear Materials, 2017, v. 486, pp. 11  20.
11. Sakasegawa H., Chaffron L., Legendre F., Boulanger L., Cozzika T., Brocq M., de Carlan Y. Correlation between chemical composition and size of very small oxide particles in the MA957 ODS ferritic alloy. Journal of Nuclear Materials, 2009, v. 384, no. 2, pp. 115  118.
12. Hoffmann J., Rieth M., Lindau R., Klimenkov M., Möslang A., Sandim H.R.Z. Investigation on different oxides as candidates for nano-sized ODS particles in reduced-activation ferritic (RAF) steels. Journal of Nuclear Materials, 2013, v. 442, no. 1  3, pp. 444  448.
13. Oksiuta Z., Lewandowska M., Unifantowicz P., Baluc N., Kurzydlowski K.J. Influence of Y2O3 and Fe2Y additions on the formation of nano-scale oxide particles and the mechanical properties of an ODS RAF steel. Fusion Engineering and Design, 2011, v. 86,
no. 9  11, pp. 2417  2420.
14. Ukai S., Fujiwara M. Perspective of ODS alloys application in nuclear environments. Journal of Nuclear Materials, 2002, v. 307  311, pp. 749  757.
15. Cho H.S., Kimura A., Ukai S., Fujiwara M. Corrosion properties of oxide dispersion strengthened steels in super-critical water environment. Journal of Nuclear Materials, 2004, v. 329  333, pp. 387  391.
16. Klimenkov M., Lindau R., Jäntsch U., Möslang A. Effect of irradiation temperature on microstructure of ferritic-martensitic ODS steel. Journal of Nuclear Materials, 2017, v. 493, pp. 426  435.
17. Liu X., Miao Y., Wu Y., Maloy S., Stubbins J. Stability of nanoclusters in an oxide dispersion strengthened alloy under neutron irradiation. Scripta Materialia, 2017, v. 138, pp. 57  61.
18. Rogozhkin S., Bogachev A., Korchuganova O., Nikitin A., Orlov N., Aleev A., Zaluzhnyi A., Kozodaev M., Kulevoy T., Chalykh B., Lindau R., Hoffmann J., Möslang A., Vladimirov P., Klimenkov M., Heilmaier M., Wagner J., Seils S. Nanostructure evolution in ODS steels under ion irradiation. Nuclear Materials and Energy, 2016, v. 9, pp. 66  74.
19. Williams C.A., Marquis E.A., Cerezo A., Smith G.D.W. Nanoscale characterisation of ODS–Eurofer 97 steel: An atom-probe tomography study. Journal of Nuclear Materials, 2010, v. 400, no. 1, pp. 37  45.
20. Aleev A.A., Iskandarov N.A., Klimenkov M., Lindau R., Möslang A., Nikitin A.A., Rogozhkin S.V., Vladimirov P., Zaluzhnyi A.G. Investigation of oxide particles in unirradiated ODS Eurofer by tomographic atom probe. Journal of Nuclear Materials, 2011, v. 409, no. 2, pp. 65  71.
21. Рогожкин С.В., Хомич А.А., Богачев А.А., Никитин А.А., Хорошилов В.В., Лукьянчук А.А., Разницын О.А., Шутов А.С., Васильев А.Л., Пресняков М.Ю. Детальный анализ наноструктуры дисперсно-упрочненных оксидами сталей — перс­пективных материалов ядерных реакторов. Ядерная физика и инжиниринг, 2020, т. 11, № 1, с. 22 – 31. / Rogozhkin S.V., Khomich A.A., Bogachev A.A., Nikitin A.A., Lukyanchuk A.A., Raznitsyn O.A., Shutov A.S., Vasiliev A.L., Presniakov M.Yu. Comprehensive analysis of nanostructure of oxide dispersion strengthened steels as prospective materials for nuclear reactors. Physics of Atomic Nuclei, 2020, v. 83, no. 10, pp. 1425  1433.
22. Klimiankou M., Lindau R., Möslang A. HRTEM Study of yttrium oxide particles in ODS steels for fusion reactor application. Journal of Crystal Growth, 2003, v. 249, no. 1  2, pp. 381  387.
23. Klimiankou M., Lindau R., Möslang A. TEM characterization of structure and composition of nanosized ODS particles in reduced activation ferritic–martensitic steels. Journal of Nuclear Materials, 2004, v. 329  333, pp. 347  351.
24. Rogozhkin S., Klauz A., Ke Y., Almásy L., Nikitin A., Khomich A., Bogachev A., Gorshkova Y., Bokuchava G., Kopitsa G., Sun L.Y. Study of precipitates in oxide dispersion-strengthened steels by SANS, TEM, and APT. Nanomaterials, 2024, v. 14, art. 194.
25. Rogozhkin S.V., Bogachev A.A., Nikitin A.A., Vasiliev A.L., Presnyakov M.Yu., Tomut M., Trautmann C. TEM analysis of radiation effects in ODS steels induced by swift heavy ions. Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, 2021, v. 486, pp. 1  10.
26. Kimura A., Kasada R., Iwata N., Kishimoto H., Zhang C.H., Isselin J., Dou P., Lee J.H., Muthukumar N., Okuda T., Inoue M., Ukai S., Ohnuki S., Fujisawa T., Abe T.F. Development of Al added high-Cr ODS steels for fuel cladding of next generation nuclear systems. Journal of Nuclear Materials, 2011, v. 417, no. 1  3, pp. 176  179.
27. Jeong Y.H., Kim W.J., Kim D.J., Jang J., Kang S.H., Chun Y.-B., Kim T.K. Development of advanced structural materials for future nuclear systems in Korea. Procedia Engineering, 2014, v. 86, pp. 1  7.
28. Агеев В.С., Вильданова Н.Ф., Козлов К.А., Кочеткова Т.Н., Никитина А.А., Сагарадзе В.В., Сафронов Б.В., Цвелев В.В., Чуканов А.П. Структура и термическая ползучесть дисперсно-упрочненной оксидами реакторной стали ЭП-450. Физика металлов и металловедение, 2008, т. 106, № 3, c. 329  336. /Ageev V.S., Nikitina A.A., Safronov B.V., Tsvelev V.V., Chukanov A.P., Vil'danova N.F., Kozlov K.A., Kochetkova T.N., Sagaradze V.V. Structure and thermal creep of the oxide-dispersion-strengthened EP-450 reactor steel. Physics of Metals and Metallography. 2008, v. 106, no 3, pp. 318  325.
29. Никитина А.А., Цветкова Е.В., Иванов К.А. Коррозионная стойкость ДУО ферритно-мартен­ситных сталей в свинцовом теплоносителе. Вопросы атомной науки и техники. Серия: Материаловедение и новые материалы, 2018, т. 95, № 4, c. 30  39. / Nikitina A.A., Tsvetkova E.V., Ivanov K.A. Korrozionnaya stojkost' DUO ferritno-martensitnyh stalej v svincovom teplonositele [Corrosion resistance of a DUO of ferritic-martensitic steels in a lead coolant]. Voprosy atomnoj nauki i tekhniki. Seriya: Materialovedenie i novye materialy [Issues of atomic science and technology. Series: Materials Science and New Materials], 2018, v. 95, no. 4, pp. 30  39. (In Russ.).
30. Сагарадзе В.В., Кочеткова Т.Н., Катаева Н.В., Козлов К.А., Завалишин В.А., Вильданова Н.Ф., Агеев В.С., Леонтьева-Смирнова М.В., Никитина А.А. Структура и ползучесть российских реакторных сталей с ОЦК-решеткой. Физика металлов и металловедение, 2017, № 5, c. 522  534. / Sagaradze V.V., Kochetkova T.N., Kataeva N.V., Kozlov K.A., Zavalishin V.A., Vil’danova N.F., Ageev V.S., Leont’eva-Smirnova M.V., Nikitina A.A. Structure and creep of Russian reactor steels with bcc structure. Physics of Metals and Metallography. 2017, v. 118, no. 5, pp. 494  506.
31. Рогожкин С.В., Никитин А.А., Хомич А.А., Искандаров Н.А., Хорошилов В.В., Богачев А.А., Лукьянчук А.А., Разницын О.А., Шутов А.С., Федин П.А., Куйбида Р.П., Кулевой Т.В., Васильев А.Л., Пресняков М.Ю., Кравчук К.С., Усеинов А.С. Имитационные эксперименты на пучках тяжелых ионов для моделирования радиа­ционных повреждений конструкционных материалов активной зоны ядерных и термоядерных энергетических установок. Ядерная физика и инжиниринг, 2018, т. 9, № 3, c. 245  258. / Rogozhkin S.V., Nikitin A.A., Khomich A.A., Iskandarov N.A., Khoroshilov V.V., Bogachev A.A., Lukyanchuk A.A., Raznitsyn O.A., Shutov A.S., Fedin P.A., Kuibeda R.P., Kulevoy T.V., Vasiliev A.L., Presniakov M.Yu., Kravchuk K.S., Useinov A.S. Emulation of radiation damage of structural materials for fission and fusion power plants using heavy ion beams. Physics of Atomic Nuclei, 2019, v. 82, no. 9, pp. 1239 – 1251.
32. Fedin P., Saratovskikh M., Kuibida R., Sitnikov A., Kulevoy T., Nikitin A., Rogozhkin S. Simulation of irradiation effects with ions on the RFQ linac HIPr. Journal of Physics: Conference Series, 2018, v. 1115, no. 3, art. 032026.
33. Ziegler J.F., Ziegler M.D., Biersack J.P. SRIM – The stopping and range of ions in matter (2010). Nuclear Instruments and Methods in Physics Research. Section B: Beam Interactions with Materials and Atoms, 2010, v. 268, no. 11  12, pp. 1818  1823.
34. Рогожкин С.В., Алеев А.А., Лукьянчук А.А., Шутов А.С., Разницын О.А., Кириллов С.Е. Прото­тип атомного зонда с лазерным испарением. Приборы и техника эксперимента, 2017, №3, c. 129  134. / Rogozhkin S.V., Aleev A.A., Lukyanchuk A.A., Shutov A.S., Raznitsyn O.A., Kirillov S.E. An atom probe tomography prototype with laser evaporation. Instruments and Experimental Techniques, 2017, v. 60, no. 3, pp. 428  433.
35. Алеев А.А., Рогожкин С.В., Лукьянчук А.А., Шутов А.С., Разницын О.А., Никитин А.А., Искандаров Н.А., Корчуганова О.А., Кириллов С.Е. Программный комплекс по восстановлению, обра­ботке и анализу томографических атомно-зондовых данных “КВАНТМ-3D” V1.0.0. Свидетельство о государственной регистрации программы для ЭВМ № 2018661876, рег. 20.09.2018. / Aleev A.A., Rogozhkin S.V., Lukyanchuk A.A., Shutov A.S., Raznitsyn O.A., Nikitin A.A., Iskandarov N.A., Korchuganova O.A., Kirillov S.E. Programmnyj kompleks po vosstanovleniyu, obrabotke i analizu tomograficheskih atomno-zondovyh dannyh “KVANTM-3D” V1.0.0. [Software complex for recovery, processing and analysis of tomographic atom probe date “KVANTM-3D” V1.0.0.]. Certificate of state registration of the computer program no. 2018661876, reg. 09.20.2018. (In Russ.).
36. Bas P., Bostel A., Deconihout B., Blavette D. A general protocol for the reconstruction of 3D atom probe data. Applied Surface Science, 1995, v. 87  88, pp. 298  304.
37. Лукьянчук А.А., Алеев А.А., Шутов А.С., Разницын О.А., Кириллов С.Е., Рогожкин С.В. Ре­кон­­струкция трехмерных распределений атомов в методе атомно-зондовой томографии с учетом плотности материала. Ядерная физика и инжиниринг, 2020, т. 11, № 3, c. 125  132. / Lukyanchuk A.A., Aleev A.A., Shutov A.S., Raznitsyn O.A., Kirillov C.E., Rogozhkin S.V. Atom probe tomography data reconstruction with the correction on material density. Physics of Atomic Nuclei, 2021, v. 84, no. 11, pp. 1836  1842.
38. Шутов А.С., Лукьянчук А.А., Рогожкин С.В., Разницын О.А., Никитин А.А., Алеев А.А., Кириллов С.Е. Оптимизация базового алгоритма восстановления масс для томографического атомно-зондового анализа. Ядерная физика и инжиниринг, 2018, т. 9, № 4, с. 371  381. / Shutov A.S., Lukyanchuk A.A., Rogozhkin S.V., Raznitsyn O.A., Nikitin A.A., Aleev A.A., Kirillov S.E. Optimization of mass reconstruction algorithm for atom probe tomography analysis. Physics of Atomic Nuclei, 2019, v. 82, no. 9, pp. 1292  1301.
39. Mott B.W. Micro-indentation hardness testing. London: Butterworths, 1956.
40. ГОСТ 9450-76 (СТ СЭВ 1195-78) Измерение микротвердости вдавливанием алмазных наконечников (с Изменениями N 1, 2) — docs.cntd.ru. URL: https://docs.cntd.ru/document/1200012869. / GOST 9450-76 (ST SEV 1195-78) Izmerenie mikrotverdosti vdavlivaniem almaznyh nakonechnikov (s izmeneniyami N 1, 2) [Measurement of microhardness by indentation of diamond tips (with changes N 1, 2)] — docs.cntd.ru. URL: https://docs.cntd.ru/document/1200012869. (In Russ.).
41. Mouawad B., Boulnat X., Fabrègue D., Perez M., De Carlan Y. Tailoring the microstructure and the mechanical properties of ultrafine grained high strength ferritic steels by powder metallurgy. Journal of Nuclear Materials, 2015, v. 465, pp. 54  62.
42. Lucas G.E. Effects of radiation on the mechanical properties of structural materials. Journal of Nuclear Materials, 1994, v. 216, pp. 322  325.
43. Kamikawa N., Sato K., Miyamoto G., Murayama M., Sekido N., Tsuzaki K., Furuhara T. Stress–strain behavior of ferrite and bainite with nano-precipitation in low carbon steels. Acta Materialia, 2015, v. 83, pp. 383  396.
44. Schaeublin R., Leguey T., Spätig P., Baluc N., Victoria M. Microstructure and mechanical properties of two ODS ferritic/martensitic steels. Journal of Nuclear Materials, 2002, v. 307  311, pp. 778  782.
45. Petch N.J. The cleavage strength of polycrystals, 1953, v. 174, pp. 25  28.
46. Gladman T. Precipitation hardening in metals. Materials Science and Technology, 1999, v. 15, no. 1, pp. 30  36.
47. Stoller R.E., Toloczko M.B., Was G.S., Certain A.G., Dwaraknath S., Garner F.A. On the use of SRIM for computing radiation damage exposure. Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, 2013, v. 310, pp. 75  80.
48. Bergner F., Pareige C., Hernández-Mayoral M., Malerba L., Heintze C. Application of a three-feature dispersed-barrier hardening model to neutron-irradiated Fe–Cr model alloys. Journal of Nuclear Materials, 2014, v. 448, no. 1  3, pp. 96  102.
49. Gil E., Ordás N., García-Rosales C., Iturriza I. Microstructural characterization of ODS ferritic steels at different processing stages. Fusion Engineering and Design, 2015, v. 98  99, pp. 1973  1977.
50. Swenson M.J., Dolph C.K., Wharry J.P. The effects of oxide evolution on mechanical properties in proton- and neutron-irradiated Fe-9%Cr ODS steel. Journal of Nuclear Materials, 2016, v. 479, pp. 426  435.
51. Jia H., Zhou Z., Li S. A new strategy for additive manufacturing ODS steel using Y-containing gas atomized powder. Materials Characterization, 2022, v. 187, art. 111876.
52. Рогожкин С.В., Искандаров Н.А., Никитин А.А., Хомич А.А., Хорошилов В.В., Богачев А.А., Лукьянчук А.А., Разницын О.А., Шутов А.С., Кулевой Т.В., Федин П.А., Васильев А.Л., Пресняков М.Ю., Леонтьева-Смирнова М.В., Можанов Е.М., Никитина А.А. Исследование микро­скопических причин радиационного упрочнения сталей ЭК-181 и ЧС-139 с помощью имитационного облучения ионами. Перспективные материалы, 2019, № 12, с. 39  51. / Rogozhkin S.V., Iskandarov N.A., Nikitin A.A., Khomich A.A., Khoroshilov V.V., Bogachev A.A., Lukyanchuk A.A., Raznitsyn O.A., Shutov A.S., Kulevoy T.V., Fedin P.A., Vasiliev A.L., Presnyakov M. Yu., Leontyeva-Smirnova M.V., Mozhanov E.M., Nikitina A.A. Study of the microscopic origins of radiation hardening of ferritic-martensitic steels RUSFER-EK-181 and ChS-139 in the simulation experiment with heavy ion irradiation. Inorganic Materials: Applied Research, 2020, v. 11, no. 2, pp. 359 - 365.
53. Swenson M.J., Wharry J.P. Nanocluster irradiation evolution in Fe – 9 % Cr ODS and ferritic-martensitic alloys. Journal of Nuclear Materials, 2017, v. 496, pp. 24 - 40.

1. Declercq M.J., Gerzberg L., Meidl J.D. Optimization of hydrazine-water solution for anizotropic etching of silicon in integrated circuit technology. J. Electrochem. Soc. Solid State Science and Technology, 1975, v. 122, no. 4, pp. 545 − 552.
2. Mehregany M., Senturia S.D. Anisotropic etching of silicon in hydrazine. Sensors and Actuators, 1988, v. 13, pp. 375 − 390.
3. Sundaram K.B., Hsiao-Wei Chang. Electrochemical etching of silicon by hydrazine. J. Electrochem. Soc., 1993, v. 140, no. 6, pp. 1592 − 1597.
4. Gajda M.A., Ahmed H., Shaw J.E.A., Putnis A. Anisotropic etching of silicon in hydrazine. Sensors and Actuators A, 1994, v. 40, pp. 227 − 236.
5. Yang C.-R., Chen P.-Y., Yang C.-H., Chiou Y.-C., Lee R.-T. Effects of various ion-typed surfactants on silicon anisotropic etching properties in KOH and TMAH solutions. Sensors and Actuators A, 2005, v. 119, pp. 271 – 281.
6. Gosalvez M.A., Tang B., Pal P., Sato K., Kimura Y., Ishibashi K. Orientation- and concentration-dependent surfactant adsorption on silicon in aqueous alkaline solutions: explaining the changes in the etch rate, roughness and undercutting for MEMS application. J. Micromech. Microeng., 2009, v. 19, art. 125011.
7. Koh M., Sawara S., Shinada T., Goto T., Ando Y., Ohdomari I. Simple nanostructuring on silicon surface by means of focused beam patterning and wet etching. Applied Surface Science, 2000, v. 162 – 163, pp. 599 – 603.

1. Leal B.B.J., Wakabayashi N., Oyama K., Kamiya H., Braghirolli D.I., Pranke P. Vascular tissue engineering: polymers and methodologies for small caliber vascular grafts. Front Cardiovasc Med., 2021, v. 11, no. 7, art. 592361. doi: 10.3389/fcvm.2020.592361
2. Hasan A., Memic A., Annabi N., Hossain M., Paul A., Dokmeci M.R., Dehghani F., Khademhosseini A. Electrospun scaffolds for tissue engineering of vascular grafts. Acta Biomater, 2014, v. 10, no. 1, pp. 11 – 25. doi: 10.1016/j.actbio.2013.08.022
3. Dimopoulos A., Markatos D.N., Mitropoulou A., Panagiotopoulos I., Koletsis E., Mavrilas D. A novel polymeric fibrous microstructured biodegradable small-caliber tubular scaffold for cardiovascular tissue engineering. J. Mater. Sci. Mater. Med., 2021, v. 32, no. 2, art. 21. doi: 10.1007/s10856-021-06490-1
4. Биосовместимые материалы. Под ред. В.И. Севастьянова, М.П. Кирпичникова. М.: “МИА”, 2011, 544 с. / Biosovmestimye materialy (uchebnoe posobie) [Biocompatible materials (textbook)]. Ed. by V.I. Sevastyanov, M.P. Kirpichnikov. Moscow, “MIA” Publ., 2011, 544 p. (In Russ.).
5. Durán-Rey D., Crisóstomo V., Sánchez-Margallo J.A., Sánchez-Margallo F.M. Systematic review of tissue-engineered vascular grafts. Front. Bioeng. Biotechnol., 2021, v. 9, pp. 1059 – 1074. doi: 10.3389/fbioe.2021.771400
6. Pashneh-Tala S., MacNeil S., Claeyssens F. The tissue-engineered vascular graft — past, present, and future. Tissue Eng., Part B, Rev., 2016, v. 22, no. 1, pp. 68 – 100. doi: 10.1089/ten.teb.2015.0100
7. Zhang Q., Bosch-Rué È., Pérez R.A., Truskey G.A. Biofabrication of tissue engineering vascular systems. APL Bioeng., 2021, v. 5, no. 2, art. 021507. doi: 10.1063/5.0039628
8. Carrabba M., Madeddu P. Current strategies for the manufacture of small size tissue engineering vascular grafts. Front. Bioeng. Biotechnol., 2018, v. 6, p. 41 – 53. doi: 10.3389/fbioe.2018.00041
9. Антонова Л.В., Матвеева В.Г., Барбараш Л.С. Использование метода электроспиннинга в создании биодеградируемых сосудистых графтов малого диаметра: проблемы и решения. Комплексные проблемы сердечно-сосудистых заболеваний, 2015, № 3, c. 12 – 22. doi: 10.17802/2306-1278-2015-3-12-22 / Antonova L.V., Matveeva V.G., Barbarash L.S. Ispol’zovanie metoda elektrospinninga v sozdanii bio­degradiruemyh sosudistyh graftov malogo dia­metra: problemy i resheniya [Electrospinning and bio­degradable small - diameter vascular grafts: problems and solutions (Review)]. Kompleksnye problemy serdechno-sosudistyh zabolevanij [Complex Issues of Cardiovascular Diseases], 2015, no. 3, pp. 12 – 22. (In Russ). doi: 10.17802/2306-1278-2015-3-12-22
10. Triedman J.K., Newburger J.W. Trends in congenital heart disease: the next decade. Circulation, 2016, v. 133, no. 25, pp. 2716 – 2733. doi: 10.1161/CIRCULATIONAHA.116.023544
11. Mallis P., Kostakis A., Stavropoulos-Giokas C., Michalopoulos E. Future perspectives in small-diameter vascular graft engineering. Bioengineering (Basel), 2020, v. 7, no. 4, pp. 160 – 200. doi: 10.3390/bioengineering7040160
12. Thottappillil N., Nair P.D. Scaffolds in vascular regeneration: current status. Vasc. Health Risk Manag., 2015, v. 11, pp. 79 – 91.
13. Ercolani E., Del Gaudio C., Bianco A. Vascular tissue engineering of small-diameter blood vessels: reviewing the electrospinning approach. J. Tissue Eng. Regen. Med., 2015, v. 9, no. 8, pp. 861 – 888. doi: 10.1002/term.1697
14. Zavan B., Gardin C., Guarino V., Rocca T., Cruz Maya I., Zanotti F., Ferroni L., Brunello G., Chachques J.C., Ambrosio L., Gasbarro V. Electrospun PCL-based vascular grafts: in vitro tests. Nanomaterials (Basel), 2021, v. 11, no. 3, art. 751. doi: 10.3390/nano11030751
15. Wang D., Xu Y., Li Q., Turng L.S. Artificial small-diameter blood vessels: materials, fabrication, surface modification, mechanical properties, and bioactive functionalities. J. Mater. Chem. B., 2020, v. 8, no. 9, pp. 1801 – 1822. doi: 10.1039/c9tb01849b
16. Bertram U., Steiner D., Poppitz B., Dippold D., Köhn K., Beier J.P., Detsch R., Boccaccini A.R., Schubert D.W., Horch R.E., Arkudas A. Vascular tissue engineering: effects of integrating collagen into a PCL based nanofiber material. Biomed. Res. Int., 2017, v. 2017, art. 9616939. doi: 10.1155/2017/9616939
17. Zoghbi W.A., Duncan T., Antman E., Barbosa M., Champagne B., Chen D., Gamra H., Harold J.G., Josephson S., Komajda M., Logstrup S., Mayosi B.M., Mwangi J., Ralston J., Sacco R.L., Sim K.H., Smith S.C. Jr., Vardas P.E., Wood D.A. Sustainable development goals and the future of cardiovascular health: A statement from the Global Cardiovascular Disease. J. Am. Coll. Cardiol., 2014, v. 64, pp. 1385 – 1387. doi: 10.1016/j.jacc.2014.08.018
18. Nelson J.A., Fischer J.P., Grover R., Kovach S.J., Low D.W., Kanchwala S.K., Levin L.S., Serletti J.M., Wu L.C. Vein grafting your way out of trouble: Examining the utility and efficacy of vein grafts in microsurgery. J. Plast. Reconstr. Aesthet. Surg., 2015, v. 68, pp. 830 – 836. doi: 10.1016/j.bjps.2015.02.008
19. Caliskan E., de Souza D.R., Böning A., Liakopoulos O.J., Choi Y.H., Pepper J., Gibson C.M., Perrault L.P., Wolf R.K., Kim K.B., Emmert M.Y. Saphenous vein grafts in contemporary coronary artery bypass graft surgery. Nat. Rev. Cardiol., 2020, v. 7, no. 3, pp. 155 – 169. doi: 10.1038/s41569-019-0249-3
20. Cai Q., Liao W., Xue F., Wang X., Zhou W., Li Y., Zeng W. Selection of different endothelialization modes and different seed cells for tissue-engineered vascular graft. Bioact. Mater., 2021, v. 6, pp. 2557 – 2568. doi: 10.1016/j.bioactmat.2020.12.021
21. Piotrowski J.J., McCroskey B.L., Rutherford R.B. Selection of grafts currently available for repair of abdominal aortic aneurysms. Surgical Clinics of North America, 1989, v. 69, no. 4, pp. 827 – 836. doi: 10.1016/s0039-6109(16)44888-7
22. Copes F., Pien N., Van Vlierberghe S., Boccafoschi F., Mantovani D. Collagen-based tissue engineering strategies for vascular medicine. Frontiers in Bioengineering and Biotechnology, 2019, v. 7, v. 166. doi: 10.3389/fbioe.2019.00166
23. Zdrahala R.J. Small caliber vascular grafts. Part I: State of the art. J. Biomater. Appl., 1996, v. 10, no. 4, pp. 309 – 329. doi: 10.1177/088532829601000402
24. Drury J.K., Ashton T.R., Cunningham J.D., Maini R., Pollock J.G. Experimental and clinical experience with a gelatin impregnated Dacron prosthesis. Ann. Vasc. Surg., 1987, v. 1, no. 5, pp. 542 – 547. doi: 10.1016/S0890-5096(06)61437-4
25. Немец Е.А., Хайруллина А.И., Белов В.Ю., Сургученко В.А., Василец В.Н., Волкова Е.А., Басок Ю.Б., Севастьянов В.И. Способ уменьше­ния хирургической пористости протезов крове­носных сосудов малого диаметра. Вестник трансплантологии и искусственных органов, 2023, т. XXV, № 3, c. 87 – 96. doi: 10.15825/1995-1191-2023-3-87-96 / Nemets E.A., Khairullina A.I., Belov V.Yu., Surguchenko V.A., Vasilets V.N., Volkova E.A., Basok Yu.B., Sevastianov V.I. Technique for reducing the surgical porosity of small-diameter vascular grafts. Russ. J. Transplant. Artif. Organs, 2023, v. 25, no. 3, pp. 72 – 79. doi: 10.15825/1995-1191-2023-3-87-96
26. Немец Е.А., Белов В.Ю., Кирьяков К.С., Грудинин Н.В., Богданов В.К., Филиппов К.С., Никольская А.О., Тюняева И.Ю., Выпрышко А.А., Захаревич В.М., Басок Ю.Б., Севастьянов В.И. Биомиметический подход к разработке протезов кровеносных сосудов малого диаметра. Вестник трансплантологии и искусственных органов, 2024, т. 26, № 2, с. 145 – 155. https://doi.org/10.15825/1995-1191-2024-2-145-155 / Nemets E.A., Belov Yu.V., Kiryakov K.S., Grudinin N.V., Bogdanov V.K., Filippov K.S., Nikolskaya A.O., Tyunyaeva I.Yu., Vypryshko A.A., Zaxarevich V.M., Basok Yu.B., Sevastianov V.I. Biomimeticheskij podhod k razrabotke protezov krovenosnyh sosudov malogo diametra. [Biomimetic approach to the design of artificial small diameter blood vessels]. Vestnik transplantologii i iskusstvennyh organov [Rus. J. Transplant. Artif. Organs], 2024, v. 26, no. 2, pp. 145 – 155. (In Russ.). doi: 10.15825/1995-1191-2024-2-145-155
27. Nagam Hanumantharao S., Rao S. Multi-functional electrospun nanofibers from polymer blends for scaffold tissue engineering. Fibers, 2019, v. 7, art. 66. doi: 10.3390/fib7070066
28. ГОСТ ISO 10993-4-2023. Изделия медицинские. Оценка биологического действия медицинских изделий. Часть 4. Исследования изделий, взаимодействующих с кровью. М.: Стандартинформ, 2023. Дата введения 2024.06.01. / GOST ISO 10993-4-2023. Izdelija medicinskie. Ocenka biologicheskogo dejstvija medicinskih izdelij. Chast’ 4. Issledovaniya izdelij, vzaimodejstvuyushhix s krov`yu [Medical products. Evaluation of the biological effect of medical devices. Part 4. Studies of products interacting with blood]. Moscow, Standartinform Publ., 2023. Valid from 24.06.01. (In Russ.).
29. ГОСТ ISO 10993-12-2023. Изделия медицинские. Оценка биологического действия медицинских изделий. Часть 12. Приготовление проб и контрольные образцы. М.: Стандартинформ, 2023. Дата введения 2024.06.01. / GOST ISO 10993-12-2023 Izdelija medicinskie. Ocenka biologicheskogo dejstvija medicinskih izdelij. Chast’ 12. Prigotovlenie prob i kontrol’nye obrazcy [Medical products. Evaluation of the biological effect of medical devices. Part 12: Sample preparation and control samples]. Moscow, Standartinform Publ., 2023. Valid from 24.06.01. (In Russ.).
30. ГОСТ ISO 10993-5-2023. Изделия медицинские. Оценка биологического действия медицинских изделий. Часть 5. Исследование на цитотоксичность: методы in vitro. М.: Стандартинформ, 2023. Дата введения 2024.06.01. / GOST ISO 10993-5-2023 Izdelija medicinskie. Ocenka biologicheskogo dejstvija medicinskih izdelij. Chast’ 5. Issledovanie na citotoksichnost`: metody` in vitro [Medical products. Evaluation of the biological effect of medical devices. Part 5. Cytotoxicity study: in vitro methods]. Moscow, Standartinform Publ., Valid from 24.06.01. (In Russ.).
31. Tresoldi C., Pellegata A.F., Mantero S. Cells and stimuli in small-caliber blood vessel tissue engineering. Regen. Med., 2015, v. 10, no. 4, pp. 505 – 527. doi:10.2217/rme.15.19
32. Helms F., Haverich A., Wilhelmi M., Böer U. Establishment of a modular hemodynamic simulator for accurate in vitro simulation of physiological and pathological pressure waveforms in native and bioartificial blood vessels. Cardiovasc. Eng. Technol., 2022, v. 13, no. 2, pp. 291 – 306. doi:10.1007/s13239-021-00577-0
33. Williams C., Wick T.M. Perfusion bioreactor for small diameter tissue-engineered arteries. Tissue Eng., 2004, v. 10, no. 5-6, pp. 930 – 941. doi:10.1089/1076327041348536
34. Севастьянов В.И., Басок Ю.Б., Григорьев А.М., Кирсанова Л.А., Василец В.Н. Применение технологии тканевой инженерии для формирования хрящевой ткани человека в проточном биореакторе. Вестник трансплантологии и искусственных органов, 2017, т. 19, № 3, с. 81 – 92. doi:10.15825/1995-1191-2017-3-81-92 / Sevastianov V.I., Basok Yu.B., Grigoriev A.M., Kirsanova L.A., Vasilets V.N. Application of tissue engineering technology for formation of human articular cartilage in perfusion bioreactor. Rus. J. Transplant. Artif. Organs., 2017, v. 19, no. 3, pp. 81 – 92. (In Russ.).

1. Tolosa I., Garciandía F., Zubiri F., Zapirain F., Esnaola A. Study of mechanical properties of AISI 316 stainless steel processed by selective laser melting, following different manufacturing strategies. The International Journal of Advanced Manufacturing Technology, 2010, v. 51, pp. 639 – 647. doi:10.1007/s00170-010-2631-5.
2. Liang X., Hor A., Robert C., Salem M, Lin F., Morel F. High cycle fatigue behavior of 316L steel fabricated by laser powder bed fusion: Effects of surface defect and loading mode. International Journal of Fatigue, 2022, v. 160, art. 106843. doi:10.1016/j.ijfatigue.2022.106843
3. Zhang M., Sun C.-N., Zhang X., Goh P. C., Wei J., Hardacre D., Li H. Fatigue and fracture behaviour of laser powder bed fusion stainless steel 316L: Influence of processing parameters. Materials Science and Engineering: A, 2017, v. 703, pp. 251 – 261. doi:10.1016/j.msea.2017.07.071
4. Avanzini A. Fatigue behavior of additively manufactured stainless steel 316L. Materials, 2023, v. 16, no. 1, art. 65. doi: 10.3390/ma16010065
5. Solberg K., Guan S., Razavi S. M. J., Welo T., Chan K. C., Berto F. Fatigue of additively manufactured 316L stainless steel: The influence of porosity and surface roughness. Fatigue & Fracture of Engineering Materials & Structures, 2019, v. 42, pp. 2043 – 2052. doi:10.1111/ffe.13077
6. Liverani E., Toschi S., Ceschini L., Fortunato A. Effect of selective laser melting (SLM) process parameters on microstructure and mechanical properties of 316L austenitic stainless steel. Journal of Materials Processing Technology, 2017, v. 249, pp. 255 – 263. doi:10.1016/j.jmatprotec.2017.05.042
7. Hatami S., Ma T., Vuoristo T., Bertilsson J., Lyckfeldt O. Fatigue strength of 316L stainless steel manufactured by selective laser melting. Journal of Materials Engineering and Performance, 2020, v. 29, no. 5, pp. 3183 – 3194. doi:10.1007/s11665-020-04859-x
8. Ботвина Л.Р., Белецкий Е.Н. Демина Ю.А., Иванов И.А. Усталостное разрушение стали 316L, изготовленной методом селективного лазерного плавления. Заводская лаборатория. Диагностика материалов, 2024, т 90, № 7, с. 56 – 67. doi.org/10.26896/1028-6861-2024-90-7-56-67 / Botvina L.R., Belecky E.N., Demina Yu. A., Ivanov I.A. Ustalostnoe razrushenie stali 316L, izgotovlennoj metodom selektivnogo lazernogo plavleniya [Fatigue fracture of 316L steel manufactured by selective laser melting method]. Zavodskaya Laboratoriya. Diagnostika Materialov [Industrial laboratory. Diag­nostics of materials], 2024, v. 90, no. 7, pp. 56 – 67. (In Russ.).
9. Wang Z., Yang S., Huang Y., Fan C., Peng Z., Gao Z. Microstructure and fatigue damage of 316L stainless steel manufactured by selective laser melting (SLM). Materials, 2021, v. 14, no. 24, art. 7544. https://doi.org/10.3390/ma14247544
10. Voloskov B., Evlashin S., Dagesyan S., Abaimov S., Akhatov I. and Sergeichev I. Very high cycle fatigue behavior of additively manufactured 316L stainless steel. Materials, 2020, v. 13, no. 15, art. 3293. doi:10.3390/ma13153293
11. Kedziora S., Decker T., Museyibov E., Morbach J., Hohmann S., Huwer A., Wahl M. Strength properties of 316L and 17-4 PH stainless steel produced with additive manufacturing. Materials, 2022, v. 15, no. 18, art. 6278. doi:10.3390/ma15186278
12. Spiller S, Kolstad S., Razavi N. Fatigue behavior of 316L stainless steel fabricated via material extrusion additive manufacturing. Engineering Fracture Mechanics, 2023, v. 291, art. 109544. doi: 10.1016/j.engfracmech.2023.109544
13. Ботвина Л.Р., Белецкий Е.Н., Левин В.П., Юдин А.В. Изменение характеристик неразрушающего контроля при циклическом нагружении стали 316L аддитивного производства. Mеталлы, 2024, № 2, с. 64 – 71. / Botvina L.R., Beleckiy E.N., Levin V.P., Yudin A.V. Izmenenie harakteristik nerazrushayushchego kontrolya pri ciklicheskom nagruzhenii stali 316L additivnogo proizvodstva [Changes in nondestructive testing characteristics during cyclic loading of additively manufactured 316L steel]. Metally [Metals], 2024, no. 2, pp. 64 – 71. (In Russ.).
14. Isaenkova M.G., Yudin A. V., Rubanov A.E., Osintsev A. V., Degadnikova L.A. Deformation behavior modelling of lattice structures manufactured by a selective laser melting of 316L steel powder. J. Mater. Res. Technol., 2020, v. 9, no. 6, pp. 15177 –1 5184. doi: 10.1016/j.jmrt.2020.10.089
15. Журков С.Н., Куксенко В.С., Слуцкер И.А. Образование субмикроскопических трещин в полимерах под нагрузкой. Физика твердого тела, 1969, т. 11, № 2, с. 296 – 301. / Zhurkov S.N., Kuksenko V.S., Slucker I.A. Obrazovanie submikroskopicheskih treshchin v polimerah pod nagruzkoj [Formation of submicroscopic cracks in polymers under load]. Fizika tverdogo tela [Solid State Physics], 1969, v. 11, no. 2, pp. 296 – 301. (In Russ.).
16. Huang J.-Y., Yeh J.-J., Jeng S.-L., Chen C.-Y., Kuo R.-C. High-cycle fatigue behavior of type 316L stainless steel. Mater. Trans., 2006, v. 47, no. 2, pp. 409 – 417. DOI: 10.2320/matertrans.47.409
17. Ботвина Л. Р. Разрушение: кинетика, механизмы, общие закономерности. М.: Наука, 2008, 334 c. / Botvina L. R. Razrushenie: kinetika, mekhanizmy, obshchie zakonomernosti [Fracture: kinetics, mechanisms, general regularities]. Moscow, Nauka Publ., 2008, 334 p. (In Russ.).
18. Шабалин В.И. О разрыве в кривых усталости дуралюмина. Докл. АН СССР, 1958, т. 122, №. 4, с. 600 – 604. / Shabalin V.I. O razryve v krivyh ustalosti duralyumina [On the breakdown in duralumin fatigue curves]. Dokl. AN SSSR [Papers of the USSR Academy of Sciences], 1958, v. 122, no. 4, pp. 600–604. (In Russ.).
19. Ботвина Л.Р. Основы фрактодиагностики. М.: Техносфера, 2022, 394 с. /Botvina L.R. Osnovy fraktodiagnostiki [Fundamentals of fractodiagnostics]. Moscow, Tekhnosfera Publ., 2022, 394 p. (In Russ.).

1. Krichene A., Boujelben W. Multifunctionality of phase-separated manganites. Journal of Superconductivity and Novel Magnetism, 2022, v. 35, pp. 2609 – 2613. https://doi.org/10.1007/s10948-022-06374-7
2. Бебенин Н.Г., Зайнуллина Р.И., Устинов В.В. Манганиты с колоссальным магнетосопротивлением. Успехи физических наук, 2018, № 188, с. 801 – 820. / Bebenin N.G., Zainullina R.I., Ustinov V.V. Colossal magnetoresistance manganites. Physics-Uspekhi, 2018, v. 61, no. 8, pp. 719 – 738. https://doi.org/10.3367/UFNe.2017.07.038180
3. Королева Л.И., Демин Р.В., Козлов А.В. и др. Связь гигантской объемной магнитострикции с колос­сальным магнитосопротивлением и размяг­чением кристаллической решетки в манганитах La1-xAyMnO3 (A = Ca, Ag, Ba, Sr). Журнал экcпериментальной и теоретической физики, 2007, т. 131, вып. 1, с. 85 – 96. / Koroleva L.I., Demin R.V., Kozlov A.V., et al. Relation between giant volume magnetostriction, colossal magnetoresistance, and crystal lattice softening in manganites La1-xAyMnO3 (A=Ca, Ag, Ba, Sr). Journal of Experimental and Theoretical Physics, 2007, v. 104, no. 1. pp. 76 – 86.
4. Королева Л.И., Морозов А.С., Жакина Э.С. и др. Новый способ повышения термоэдс в легированных манганитах. Письма в журнал технической физики, 2016, т. 42, вып. 12, с. 88 – 95. / Koroleva L.I., Morozov A.S., Zhakina E.S., et al. A new method of increasing thermopower in doped manganites. Technical Physics Letters, 2016, v. 42, pp. 652 – 655. https://doi.org/10.1134/S1063785016060237
5. Карпасюк В.К., Баделин А.Г., Державин И.М., Меркулов Д.И. Системы манганитов с повы­шен­ны­ми электромагнитными параметрами. Перспективные материалы, 2018, № 4, с. 5 – 13. doi: 10.30791/1028-978X-2018-4-5-13 / Karpasyuk V.K., Badelin A.G., Derzhavin I.M., Merkulov D.I. Systems of manganites with enhanced electromagnetic parameters. Inorganic Materials: Applied Research, 2018, v. 9, no. 5, pp. 807 – 812. https://doi.org/10.1134/S2075113318050143
6. Камилов И.К., Алиев К.М., Ибрагимов Х.О., Абакарова Н.С. N-образная ВАХ и колебания тока в манганите Sm1-xSrxMnO3. Письма в журнал экспериментальной и теоретической физики, 2003, т. 78, вып. 8, с. 957 – 959. / Kamilov I.K., Aliev K.M., Ibragimov Kh.O., Abakarova N.S. N-shaped voltage-current characteristic and current oscillations in Sm1−xSrxMnO3 manganite. Journal of Experimental and Theoretical Physics Letters, 2003, v. 78, pp. 485 – 487. https://doi.org/10.1134/1.1637699
7. Tulina N.A., Uspenskaya L.S., Sirotkin V.V., et al. Intrinsic inhomogeneities and effects of resistive switching in doped manganites. Physica C: Superconductivity and its Applications, 2006, v. 444, no. 1 – 2, pp. 19 – 22. https://doi.org/10.1016/j.physc.2006.05.081
8. Karpasyuk V.K., Badelin A.G., Smirnov A.M., et al. N-type current-voltage characteristics of manganites. Journal of Physics: Conference Series, 2010, v. 200,
art. 052026. doi: 10.1088/1742-6596/200/5/052026
9. Fisher B., Genossar J., Patlagan L., Reisner G.M. Electric-field effects in resistive oxides: facts and artifacts. EPJ Web of Conference, 2013, v. 40, art. 15009. doi: 10.1051/epjconf/20134015009
10. Rupp J., Valov I., Ielmini D. Resistive switching: Oxide materials, mechanisms, devices and operations. Springer Nature Switzerland AG, 2022, 386 p. https://doi.org/10.1007/978-3-030-42424-4_1
11. Kowalik M., Tokarz W., Kolodziejczyk A. Electronic band structures of La2/3Pb1/3Mn2/3(Fe,Co,Ni)1/3O3. Acta Physica Polonica A, 2015, v. 127. pp. 251 – 253. doi:10.12693/APhysPolA.127.251
12. Liu G.-L., Zhou J.-S., Goodenough J.B. Interplay between charge, orbital and magnetic ordering in La1-xSrxMnO3. Physical Review B, 2001, v. 64, pp. 144414 – 144420. https://doi.org/10.1103/PhysRevB.64.144414
13. Karpasyuk V.K., Badelin A.G., Derzhavin I.M., et al. Nonstoichiometry defects and microinhomogeneities in multicomponent manganites. Journal of Magnetism and Magnetic Materials, 2019, v. 476, pp. 371 – 375. https://doi.org/10.1016/j.jmmm.2018.12.070
14. Карпасюк В.К., Баделин А.Г., Датская З.Р. и др. Свойства La-Sr манганитов с комбинированным замещением стронция и марганца разновалентными ионами. Перспективные материалы, 2017, №10, с. 24 – 32. / Karpasyuk V.K., Badelin A.G., Datskaya Z.R., et al. Properties of La–Sr manganites with combined substitution of different valence ions for strontium and manganese. Inorganic Materials: Applied Research, 2018, v. 9, no. 2, pp. 201 – 206. https://doi.org/10.1134/S2075113318020132
15. Raychaudhuri P., Mitra C., Mann P.D.A., Wirth S. Phase diagram and Hall Effect of the electron doped manganite La1-xCexMnO3. Journal of Applied Physics, 2003, v. 93, pp. 8328 – 8330. https://doi.org/10.1063/1.1556976.
16. Han S.W., Kang J.-S., Kim K.H., et al. Photoemission and X-ray absorption spectroscopy study of electron-doped colossal magnetoresistance manganite La0.7Ce0.3MnO3. Physical Review B, 2004, v. 69, pp. 104406 – 104412. https://doi.org/10.1103/PhysRevB.69.104406.
17. Mizusaki J., Mori N., Takai H., et al. Oxygen nonstoichiometry and defect equilibrium in the perovskite-type oxides La1-xSrxMnО3+d. Solid State Ionics, 2000, v. 129, pp. 163 – 177. https://doi.org/10.1016/S0167-2738(99)00323-9.
18. Karpasyuk V. K., Badelin A. G., Merkulov D. I., et al. Unusual properties and features of oxygen nonstoichiometry of La-Sr manganites with manganese replacement by a combination of nickel and germanium. Journal of Physics: Conference Series, 2019, v. 1347, art. 012036. https://doi.org/10.1088/1742-6596/1347/1/012036.
19. Shannon R.D. Revised effective ionic radii and systematic studies of interatomic distances in halides and chalcogenides. Acta Crystallographica, 1976, A32, pp. 751 – 767.
20. Bulatov M.F., Parkhomenko Yu.N. Conduction mechanisms of magnetic semiconductors with a garnet structure in relation to variable-valence impurity con­centration. Semiconductors, 2006, v. 40, pp. 169 – 171. https://doi.org/10.1134/S1063782606020102
21. Нагаев Э.Л. Манганиты лантана и другие магнитные проводники с гигантским магнитосопротивлением. Успехи физических наук, 1996, т. 166, №8,
c. 833 – 858. doi:10.3367/UFNr.0166.199608b.0833 / Nagaev E.L. Lanthanum manganites and other giant-magnetoresistance magnetic conductors. Physics-Uspekhi, 1996, v. 39, pp. 781 – 805. doi: 10.1070/PU1996v039n08ABEH000161.

1. Агеев О.А., Беляев А.Е, Болотовец Н.С и др. Карбид кремния: технология, свойства, применение. Харьков, ИСМА, 2010, 532 с. / Ageev O.A., Belyaev A.E, Bolotovec N.S et al. Karbid kremniya: tekhnologiya, svojstva, primenenie [Silicon carbide: technology, properties, application]. Har’kov, ISMA Publ., 2010, 532 p. (In Russ.).
2. Косолапова Т.Я. Свойства, получение и применение тугоплавких соединений. Справочник. Москва, Металлургия, 1986, 928 с. / Kosolapova T.Ya. Svojstva, poluchenie i primenenie tugoplavkih soedinenij [Properties, preparation and use of refractory compounds]. Handbook, Moscow, Metallurgiya Publ., 1986, 928 p. (In Russ.).
3. Evans R.S., Bourell D.L., Beaman J.J. Reaction bonded silicon carbide: SFF, process refinement and applications. International solid freeform fabrication symposium. The University of Texas in Austin on August 4–6, 2003, Austin, pp. 414 – 422.
4. Rashed A.H. Properties and characteristics of silicon carbide. Poco Graphite Inc., 2002, 19 p.
5. Munro R.G. Material properties of a sintered α–SiC. J. Phys. Chem. Ref. Data, 1997, v. 26, no. 5, pp. 1205 – 1203.
6. Безумов В.Н., Захаров Р.Г., Кабанов А.А., Новиков В.В., Пименов Ю.В. Вопросы разработки оболочки твэла из композиционного материала на основе карбида кремния в рамках концепции безопасности водоохлаждаемых реакторов в условиях аварий. Инновационные проекты и технологии ядерной энергетики: доклады. Москва, ОАО НИКИЭТ, 2014, т. 1, с. 303 – 315. / Bezumov V.N., Zaharov R.G., Kabanov A.A., Novikov V.V., Pimenov YU.V. Voprosy razrabotki obolochki tvela iz kompozicionnogo materiala na osnove karbida kremniya v ramkah koncepcii bezopasnosti vodoohlazhdaemyh reaktorov v usloviyah avarij [Issues of developing a fuel rod cladding made of a composite material based on silicon carbide within the framework of the safety concept of water-cooled reactors in accident conditions]. Innovacionnye proekty i tekhnologii yadernoj energetiki: doklady [Innovative projects and technologies of nuclear energy: reports]. Moscow, NIKIET Publ., 2014, v. 1, pp. 303 – 315. (In Russ.).
7. Huseynov E.M. Neutron irradiation, amorphous transformation and agglomeration effects on the permittivity of nanocrystalline silicon carbide (3C-SiC). Nano: Brief Reports and Reviews, 2018, v. 13, no. 3, art. 1830002.
8. Лебедев А.А., Иванов А.М., Строкан Н.Б. Радиационная стойкость SiC и детекторы жестких излучений на его основе. Физика и техника полупроводников, 2004, т. 38, № 2, c. 129 – 150. / Lebedev A.A., Ivanov A.M., Strokan N.B. Radiacionnaya stojkost’ SiC i detektory zhestkih izluchenij na ego osnove [Radiation resistance of SiC and hard radiation detectors based on it]. Fizika i tekhnika poluprovodnikov [Physics and technology of semiconductors]. 2004, v. 38, no. 2, pp. 129 – 150. (In Russ.).
9. Панфилов А.В. Современное состояние и перспек­тивы развития литых дискретно-армированных алюмоматричных композиционных материалов. Литейщик России, 2008, № 7, c. 23 – 28. / Panfilov A.V. Sovremennoe sostoyanie i perspektivy razvitiya lityh diskretno-armirovannyh alyumomatrichnyh kompozicionnyh materialov [Current state and prospects for the development of cast discretely reinforced aluminum matrix composite materials]. Litejshchik Rossii [Foundry worker of Russia], 2008, no. 7, pp. 23 – 28. (In Russ.).
10. Алымов М.И. Порошковая металлургия нанокристаллических материалов. Москва, Наука, 2007, 169 с. / Alymov M.I. Poroshkovaya metallurgiya nanokristallicheskih materialov [Powder metallurgy of nanocrystalline materials]. Moscow, Nauka Publ., 2007, 169 p. (In Russ.).
11. Nikitin D.S., Sivkov A.A., Pak A.Ya. The plasmadynamic synthesis of silicon carbide. Известия высших учебных заведений. Физика, 2012, т. 55, № 12/2, с. 228 – 230. / Nikitin D.S., Sivkov A.A., Pak A.Ya. The plasma­dynamic synthesis of silicon carbide. Izvestiya vysshikh uchebnykh zavedeny. Fizika [Russian Physics Journal], 2012, v. 55, no. 12/2, pp. 228 – 230.
12. Севастьянов В.Г., Павелко Р.Г., Симоненко Е.П., Кузнецов Н.Т. Способ получения высокодисперсного карбида кремния. Патент РФ № 2339574. Заявл. 12.02.2007. Опубл. 27.11.2008. / Sevast’yanov V.G., Pavelko R.G., Simonenko E.P., Kuznecov N.T. Sposob polucheniya vysokodispersnogo karbida kremniya [Method for producing highly dispersed silicon carbide]. Patent RF № 2339574. Declared 12.02.2007. Publ. 27.11.2008. (In Russ.).
13. Андриевский Р.А. Наноразмерный карбид кремния: синтез, структура, свойства. Успехи химии, 2009,
т. 78, № 9, c. 889 – 900. / Andrievski R.A. Nano-sized silicon carbide: synthesis, structure, properties. Russ. Chem. Rev., 2009, v. 78,
no. 9, pp. 821 – 831.
14. Бушуев В.М., Синани И.Л., Бутузов С.Е. Перспективы использования процесса силицирования при изготовлении крупногабаритных герметичных конструкций из углерод-карбидокремниевых материалов. Химия и химическая технология, 2012, т. 55, № 6, с. 63 – 66. / Bushuev V.M., Sinani I.L., Butuzov S.E. Perspektivy ispol’zovaniya processa silicirovaniya pri izgotovlenii krupnogabaritnyh germetichnyh konstrukcij iz uglerod-karbidokremnievyh materialov [Prospects for the use of the siliconizing process in the manufacture of large-sized sealed structures from silicon carbide materials]. Himiya i himicheskaya tekhnologiya [Chemistry and chemical technology], 2012, v. 55, no. 6, pp. 63 – 66. (In Russ.).
15. Бушуев В.М., Лунегов С.Г., Бушуев М.В. Разработка комбинированного метода силицирования крупногабаритных изделий из УУКМ, базирующегося на альтернативном жидкофазном методе и применении процесса капиллярной конденсации паров кремния. Вестник ПНИПУ. Аэрокосмическая техника, 2015, № 40, с. 44 – 63. / Bushuev V.M., Lunegov S.G., Bushuev M.V. Razrabotka kombinirovannogo metoda silicirovaniya krupnogabaritnyh izdelij iz UUKM, baziruyushchegosya na al’ternativnom zhidkofaznom metode i primenenii processa kapillyarnoj kondensacii parov kremniya [Development of a combined method of siliconizing of large-sized CCCM product based on alternative liquid-phase method and process of capillary condensation of silicon vapors]. Vestnik PNIPU. Aerokosmicheskaya tekhnika [Bulletin of PNIPU. Aerospace engineering], 2015, v. 40, pp. 44 – 63. (In Russ.).
16. Бушуев В.М. Способ изготовления изделий из углерод-карбидокремниевого материала. Патент РФ № 2469950. Заявл. 26.07.2011. Опубл. 20.12.2012. / Bushuev V.M. Sposob izgotovleniya izdelij iz uglerod-karbidokremnievogo materiala [Method of manufacturing products from carbon-silicon carbid material]. Patent RF № 2469950. Declared 26.07.2011. Publ. 20.12.2012 (In Russ.).
17. Беленков Е.А., Тюменцев В.А. Фазообразование при взаимодействии расплавов Si и Si-Me с углеродной поверхностью. Известия Челябинского научного центра, 1998, № 1, с. 20 – 23. / Belenkov E.A., Tyumencev V.A. Fazoobrazovanie pri vzaimodejstvii rasplavov Si i Si-Me s uglerodnoj poverhnost’yu [Phase formation during the interaction of Si and Si-Me melts with a carbon surface]. Izvestiya Chelyabinskogo nauchnogo centra [News of the Chelyabinsk Scientific Center], 1998, no. 1, pp. 20 – 23. (In Russ.).
18. Бабичев А.П., Бабушкина Н.А., Братковский А.М. и др. Физические величины: Справчник. Под ред. Григорьев И.С., Мейлихова Е.З. Москва, Энергоатомиздат, 1991, 1232 с. / Babichev A.P., Babushkina N.A., Bratkovskij A.M. et al. Fizicheskie velichiny: Spravchnik [Physical quantities: Handbook]. Ed. by Grigor’ev I.S., Mejlihova E.Z. Moskow, Energoatomizdat Publ., 1991, 1232 p. (In Russ.).
19. Тяпунина Н.А., Наими Е.К. Действие ультразвука на кристаллы с дефектами. Москва: МГУ, 1999, 214 с. / Tyapunina N.A., Naimi E.K. Dejstvie ul’trazvuka na kristally s defektami [The effect of ultrasound on crystals with defects]. Moscow, Moscow State University Publ., 1999, 214 p. (In Russ.).

1. Ali Z., Gao Y., Tang B., Wu X., Wang Y., Li M., Yu J. Preparation, properties and mechanisms of carbon fiber/polymer composites for thermal management applications. Polymers, 2021, v. 13, no. 1, art. 169.
2. Zhang J., Lin G., Vaidya U., Wang. Past, present and future prospective of global carbon fibre composite developments and applications. Composites. Part B: Engineering, 2023 v. 250, art. 110463.
3. Gu J. Thermally conductive polymer composites. 1st Edition. Amsterdam, Elsevier, 2023, 270 p.
4. Yang X., Liang C., Ma T., Guo Y., Kong J., Gu J., Zhu J. A review on thermally conductive polymeric composites: classification, measurement, model and equations, mechanism and fabrication methods. Advanced Composites and Hybrid Materials, 2018, v. 1, pp. 207 – 230.
5. Wang J., Hu L., Li W., Ouyang Y., Bai L. Development and perspectives of thermal conductive polymer composites. Nanomaterials, 2022, v. 12, art. 3574.
6. Halim N.A., Mogan J., Sandanamsamy L., Harun W.S.W., Kadirgama K., Ramasamy D., Tarlochan F. A review on 3D printed polymer-based composite for thermal applications. IOP Conference Series: Materials Science and Engineering, 2021, v. 1078, art. 012029.
7. Yuce-Erarslan E., Domb A.J., Kasem H., Uversky V.N., Coskuner-Weber O. Intrinsically disordered synthetic polymers in biomedical applications. Polymers, 2023, v. 15, art. 2406.
8. Xiao S., Zhang Q., You W. Molecular engineering of conjugated polymers for solar cells: An updated report. Advanced Materials, 2016, v. 29, no. 20, art. 1601391.
9. Ding Z., Zhao K. Polymers for new energy technology. Journal of Polymer Science, 2022, v. 60, pp. 863 – 864.
10. Heremans J., Rahim I., Dresselhaus M.S. Thermal conductivity and Raman spectra of carbon fibers. Physical Review B, 1985, v. 32, no. 10, pp. 6742 – 6747.
11. Edie D.D. The effect of processing on the structure and properties of carbon fibers. Carbon, 1998, v. 36, no. 4, pp. 345 – 362.
12. Morgan P. Carbon fibers and their composites. Boca Raton, Taylor & Francis Group, 2005, 1200 p.
13. Frank E., Steudle L.M., Ingildeev D., Spörl J.M., Buchmeiser M.R. Carbon fibers: precursor systems, processing, structure, and properties. Angewandte Chemie International Edition, 2014, v. 53, no. 21, pp. 5262 – 5298.
14. Emmerich F.G. Young’s modulus, thermal conductivity, electrical resistivity and coefficient of thermal expansion of mesophase pitch-based carbon fibers. Carbon, 2014, v. 79, pp. 274 – 293.
15. Newcomb B.A. Processing, structure, and properties of carbon fibers. Composites: Part A. 2016, v. 91, pp. 262 – 282.
16. Newcomb B.A., Chae H.G. The properties of carbon fibers. Handbook of Properties of Textile and Technical Fibres, Amsterdam, Elsevier, 2018, 1052 p., pp. 841 – 871.
17. Jeon Y.-P., Alway-Cooper R., Morales M., Ogale A.A. Carbon fibers. Handbook of Advanced Ceramics-materials, Applications, Processing and Properties, Academic Press, 2013, 1258 p., pp. 143 – 154.
18. Mirdehghan S.A. Fibrous polymeric composites. Engineered Polymeric Fibrous Materials, Woodhead Publishing, 2021, 392 p., pp. 1 – 58.
19. Pradere C, Batsale J.C., Goyhénèche J.M., Pailler R., Dilhaire S. Thermal properties of carbon fibers at very high temperature. Carbon, 2009, v. 47, no. 3, pp. 737 – 743.
20. Qiu L., Zheng X.H., Zhu J., Su G.P., Tang D.W. The effect of grain size on the lattice thermal conductivity of an individual polyacrylonitrile-based carbon fiber. Carbon, 2013, v. 51, pp. 265 – 273.
21. Wang Z.L., Tang D.W., Zhang W.G. Simultaneous measurements of the thermal conductivity, thermal capacity and thermal diffusivity of an individual carbon fibre. Journal of Physics D: Applied Physics, 2007, v. 40, no. 15, pp. 4686 – 4690.
22. Самойлов В.М., Находнова А.В., Осмова М.А., Вербец Д.Б., Бубненков А.Н., Степарева Н.Н., Гареев А.Р., Фатеева М.А., Шило Д.В., Овсянников Н.Е. Определение эффективной темпе­ратуры обработки углеродных материалов в высокотемпературных печах по параметрам спектроскопии комбинационного рассеяния образцов-свидетелей. Перспективные материалы, 2021, № 1, c. 67 – 84. / Samoilov V.M., Nakhodnova A.V., Osmova M.A., Verbets D.B., Bubnenkov A.N., Steparyova N.N., Gareev A.R., Fateeva M.A., Shilo D.V., Ovsyannikov N.E. Effective heat treatment tempe­rature of carbon materials in high temperature furnaces: Determination by the parameters of Raman spectroscopy of witness samples. Inorganic Materials: Applied Research, 2021, v. 12, no. 5, pp. 1416 – 1427.
23. Northolt M.G., Veldhuizen L.H., Jansen H. Tensile deformation of carbon fibers and the relationship with the modulus for shear between the basal planes. Carbon, 1991, v. 29, no. 8, pp. 1267 – 1279.
24. Howe J.Y., Rawn C.J., Jones L.E., Ow H. Improved crystallographic data for graphite. Powder Diffraction, 2003, v. 18, no. 2, pp.150 – 154.
25. Blakslee O.L., Proctor D.G., Seldin E.J., Spence G.B., Weng, T. Elastic constants of compression‐annealed pyrolytic graphite. Journal of Applied Physics, 1970, v. 41, no. 8, pp. 3373 – 3382.
26. Diefendorf R.J., Tokarsky E. High-performance carbon fibers. Polymer Engineering and Science, 1975, v. 15, no. 3, pp. 150 – 159.
27. Bosak A., Krisch M., Mohr M., Maultzsch J., Thomsen C. Elasticity of single-crystalline graphite: Inelastic x-ray scattering study. Physical Review B, 2007, v. 75, art. 153408.
28. Li M., Kang J.S., Hu Y. Anisotropic thermal conductivity measurement using a new asymmetric-beam time-domain thermoreflectance (AB-TDTR) method. Review of Scientific Instruments, 2018, v. 89, no. 8, art. 084901.
29. Boden A. Copper graphite composite materials: A novel way to engineer thermal conductivity and expansion. Berlin, Freie Universität, 2015, 92 p.
30. Slack G.L. Anisotropic thermal conductivity of pyrolytic graphite. Physical Review, 1962, v. 127, pp. 694 – 701.
31. Bowman J.C., Krumhansl J.A., Meers J.T. Industrial carbon and graphite. London, Society of Chemical Industry, 1958, 630 p., pp. 52 – 59.
32. Guigonn M., Oberlin A., Desarmot G. Microtexture and structure of some high tensile strength, PAN-base carbon fibres. Fibre Science and Technology, 1984, v. 20, no. 1, pp. 55 – 72.
33. Huang Y., Young R.J. Microstructure and mechanical properties of pitch-based carbon fibres. Journal of Materials Science, 1994, v. 29, no. 15, pp. 4027 – 4036.
34. Naito K., Tanaka Y., Yang J.-M., Kagawa Y. Tensile properties of ultrahigh strength PAN-based, ultrahigh modulus pitch-based and high ductility pitch-based carbon fibers. Carbon, 2008, v. 46, no. 2, pp. 189 – 195.
35. Naito K., Yang J.-M., Xu Y., Kagawa Y. Enhancing the thermal conductivity of polyacrylonitrile- and pitch-based carbon fibers by grafting carbon nanotubes on them. Carbon, 2010, v. 48, no. 6, pp. 1849 – 1857.
36. Li D., Wang H., Wang X. Effect of microstructure on the modulus of PAN-based carbon fibers during high temperature treatment and hot stretching graphitization. Journal of Materials Science, 2007, v. 42, no. 12, pp. 4642 – 4649.
37. Zhou G., Liu Y., He L., Guo Q., Ye H. Microstructure difference between core and skin of T700 carbon fibers in heat-treated carbon/carbon composites. Carbon, 2011, v. 49, no. 9, pp. 2883 – 2892.
38. Wu G.-P., Li D.-H., Yang Y., Lu C.-X., Zhang S.-C., Li X.-T., Li, Z.-H. Carbon layer structures and thermal conductivity of graphitized carbon fibers. Journal of Materials Science, 2011, v. 47, no. 6, pp. 2882 – 2890.
39. Qin X., Lu Y., Xiao H., Wen Y., Yu T. A comparison of the effect of graphitization on microstructures and properties of polyacrylonitrile and mesophase pitch-based carbon fibers. Carbon, 2012, v. 50, no. 12, pp. 459 – 4469.
40. Sun Z., Lu Y., Wang R., Yang C. Analysis of carbon fiber structure based on dynamic laser Raman spectroscopy. Journal of Applied Polymer Science, 2020, v. 138, no. 16, art. 50247.
41. Dumanli A.G., Windle, A.H. Carbon fibres from cellulosic precursors: a review. Journal of Materials Science, 2012, v. 47, no. 10, pp. 4236 – 4250.
42. Panerai F., Ferguson J.C., Lachaud J., Martin A., Gasch M.J., Mansour N.N. Micro-tomography based analysis of thermal conductivity, diffusivity and oxidation behavior of rigid and flexible fibrous insulators. International Journal of Heat and Mass Transfer, 2017, v. 108, pp. 801 – 811.
43. Peng S., Shao H., Hu X. Lyocell fibers as the precursor of carbon fibers. Journal of Applied Polymer Science, 2003, v. 90, no. 7, pp. 1941 – 1947.
44. Sauder C., Lamon J., Pailler R. The tensile behavior of carbon fibers at high temperatures up to 2400 °C. Carbon, 2004, v. 42, no. 4, pp. 715 – 725.
45. Ruland W. Carbon fibers. Advanced Materials, 1990, v. 2, no. 11, pp. 528 – 536.
46. Островский В.С., Виргильев Ю.С., Костиков В.И., Шипков. Н.Н. Искусственный графит. Москва, Металлургия, 1986, 271 с. / Ostrovskij V.S., Virgilev Yu.S., Kostikov V.I., Shipkov N.N. Iskusstvennyj grafit [Artificial graphite]. Moscow, Metallurgiya Publ., 1986, 271 p. (In Russ).
47. Li D.F., Yang G.Z., Qi L.N., Zheng Q.B., Yang J.H. Raman study of the relationship between microstructure and physical properties of isotropic graphite. Advanced Materials Research, 2012, v. 487, pp. 860 – 863.
48. Shen K., Huang Z.-H., Hu K., Shen W., Yu S., Yang J., Kang, F. Advantages of natural microcrystalline graphite filler over petroleum coke in isotropic graphite preparation. Carbon, 2015, v. 90, pp.197 – 206.
49. Bacon G.E. A method for determining the degree of orientation of graphite. Journal of Applied Chemistry, 2007, v. 6, no. 11, pp. 477 – 481.
50. Костиков В.И., Котоносов А.C., Остронов Б.Г., Холодилова Е.И. Структура углеродного материала, полученного из карбонизованного под давлением каменноугольного пека. Углеродные материалы. Сборник трудов АО “НИИграфит”. Москва, Металлургия, 1989, c. 76 – 79. / Kostikov V.I., Kotonosov A.C., Ostronov B.G., Holodilova E.I. Struktura uglerodnogo materiala, poluchennogo iz karbonizovannogo pod davleniem kamennougol’nogo peka [Structure of carbon material obtained from pressure carbonized coal tar pitch]. Uglerodnye materialy. Sbornik trudov AO “NIIgrafit” [Carbon materials. Collection of works of JSC “NIIgrafit”]. Moscow, Metallurgiya Publ., 1989, pp. 76 – 79. (In Russ).
51. Высокотехнологичное углеродное волокно на основе ПАН-прекурсора. Режим доступа: https://umatex.com/production/fiber/ /Vysokotekhnologichnoe uglerodnoe volokno na osnove PAN-prekursora [High-tech carbon fiber based on a PAN precursor]. https://umatex.com/production/fiber/. (In Russ.).
52. ОАО “СветлогорскХимволокно”. Режим доступа: https://www.sohim.by/ / OAO “SvetlogorskHimvolokno” [JSC SvetlogorskKhimvolokno]. https://www.sohim.by/. (In Russ.).