vsgiuВестник Сибирского государственного индустриального университетаBulletin of the Siberian State Industrial University2304 - 44972307-1710Федеральное государственное бюджетное образовательное учреждение высшего образования "Сибирский государственный индустриальный университет"vsgiu-340Research ArticleМеталлургия и материаловедениеMetallurgy and Materials ScienceИЗМЕНЕНИЕ МЕХАНИЧЕСКИХ ХАРАКТЕРИСТИК ПОЛИКРИСТАЛЛИЧЕСКИХ ПАРАМАГНИТНЫХ МАТЕРИАЛОВ В МАГНИТНОМ ПОЛЕCHANGE OF MECHANICAL CHARACTERISTICS OF POLYCRYSTALLINE PARAMAGNETIC MATERIALS IN A MAGNETIC FIELDШляровВ.В.ShlyarovV.V.shlyarov@mail.ruЗагуляевД.В.ZagulyaevD.V.vestnicsibgiu@sibsiu.ruСибирский государственный индустриальный университетРоссияSiberian State Industrial UniversityRussian Federation202029072025013943Copyright © Шляров В., Загуляев Д., 20252025Шляров В., Загуляев Д.Shlyarov V., Zagulyaev D.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://vestnik.sibsiu.ru/jour/article/view/340

Работа посвящена анализу влияния слабых постоянных магнитных полей с индукцией до 0,6 Тл на прочностные и пластические характеристики парамагнитных материалов (поликристаллические технически чистые титан и алюминий). В ходе работы установлено, что слабые магнитные поля могут на качественном уровне повлиять на пластические характеристики исследуемых материалов. Эффект влияния магнитного поля линейно зависит от индукции магнитного поля и количественно характеризуется изменением микротвердости поликристаллических технически чистых титана и алюминия. Приведен сравнительный анализ изменения скорости стационарной ползучести в магнитном поле 0,4 Тл для титана и алюминия.

The work is devoted to the analysis of the influence of weak constant magnetic fields with induction up to 0.6 T on the strength and plastic characteristics of paramagnetic materials, in this case polycrystalline technical pure titanium and aluminum. In the course of the work, it was found that weak magnetic fields can qualitatively affect the plastic characteristics of the materials under study. The effect of the magnetic field linearly depended on the induction of the magnetic field and was quantitatively characterized by a change in the microhardness of polycrystalline technically pure titanium and polycrystalline technically pure aluminum. A comparative analysis of the change in the stationary creep rate in a magnetic field of 0.4 T for titanium and aluminum is presented.

магнитное полетехнически чистый титантехнически чистый алюминиймикротвердостьползучестьпарамагнитные материалыполикристаллические металлыиндукция магнитного поляmagnetic fieldtechnically pure titaniumtechnically pure aluminummicrohardnesscreepparamagnetic metalspolycrystalline metalsmagnetic field inductionReferencesEbadi Z., Pourali N., Mohammadzadeh H. Plasma coating of nanoparticles in the pres-ence of an external electric field // Physics Letters A. 2018. Vol. 382. P. 1024 – 1030.Ebadi Z., Pourali N., Mohammadzadeh H. Plasma coating of nanoparticles in the pres-ence of an external electric field // Physics Letters A. 2018. Vol. 382. P. 1024 – 1030.Agrawal S., Ghose A. K., Chakrabarty I. Ef-fect of rotary electromagnetic stirring during solidification of In-situ Al-TiB2 composites // Materials and Design. 2017. Vol. 113. P. 195 – 206.Agrawal S., Ghose A. K., Chakrabarty I. Ef-fect of rotary electromagnetic stirring during solidification of In-situ Al-TiB2 composites // Materials and Design. 2017. Vol. 113. P. 195 – 206.Tsunekawa Y., Suzuki H., Genma Y. Applica-tion of ultrasonic vibration to in situ MMC process by electromagnetic melt stirring // Ma-terials and Design. 2001. Vol. 22. No. 6. P. 467 – 472.Tsunekawa Y., Suzuki H., Genma Y. Applica-tion of ultrasonic vibration to in situ MMC process by electromagnetic melt stirring // Ma-terials and Design. 2001. Vol. 22. No. 6. P. 467 – 472.Joffe R., Shavit R., Kamenetskii E.O. Micro-wave magnetoelectric fields: an analytical study of topological characteristics // Journal of Magnetism and Magnetic. 2015. Vol. 392. P. 6 – 21.Joffe R., Shavit R., Kamenetskii E.O. Micro-wave magnetoelectric fields: an analytical study of topological characteristics // Journal of Magnetism and Magnetic. 2015. Vol. 392. P. 6 – 21.Burdin D.A., Chashin D.V., Ekonomov N.A., Fetisov Y.K. Static deformation of a ferro-magnet in alternating magnetic field // Journal of Magnetism and Magnetic Materials. 2016. Vol. 406. P. 217 – 220.Burdin D.A., Chashin D.V., Ekonomov N.A., Fetisov Y.K. Static deformation of a ferro-magnet in alternating magnetic field // Journal of Magnetism and Magnetic Materials. 2016. Vol. 406. P. 217 – 220.Yetim A.F., Kovacı H., Aslan M., Çelik A. The effect of magnetic field on the wear prop-erties of a ferromagnetic steel // Wear. 2013. Vol. 301. P. 636 – 640.Yetim A.F., Kovacı H., Aslan M., Çelik A. The effect of magnetic field on the wear prop-erties of a ferromagnetic steel // Wear. 2013. Vol. 301. P. 636 – 640.Wu G. H., Hou T.P., Wu K.M., Chen L. In-fluence of high magnetic field on carbides and the dislocation density during tempering of high chromium-containing steel // Journal of Magnetism and Magnetic Materials. 2019. Vol. 479. P. 43 – 49.Wu G. H., Hou T.P., Wu K.M., Chen L. In-fluence of high magnetic field on carbides and the dislocation density during tempering of high chromium-containing steel // Journal of Magnetism and Magnetic Materials. 2019. Vol. 479. P. 43 – 49.Guirong L., Hongming W., Xueting Y., Yutao Z. Microstructure of nanometer Al2O3 particles reinforced aluminum matrix compo-sites processed by high pulsed electromagnetic field // Materials Letters. 2013. Vol. 99. P. 50 – 53.Guirong L., Hongming W., Xueting Y., Yutao Z. Microstructure of nanometer Al2O3 particles reinforced aluminum matrix compo-sites processed by high pulsed electromagnetic field // Materials Letters. 2013. Vol. 99. P. 50 – 53.Yin L., Qiang W., Tie L., Pengfei G., Yi Y., Jicheng H. Effects of high magnetic fields on the crystal orientation and magnetostriction of a TbFe2 based alloy during treatment in the semi-solid state // Journal of Alloys and Com-pounds. 2014. Vol. 590. P. 110 – 115.Yin L., Qiang W., Tie L., Pengfei G., Yi Y., Jicheng H. Effects of high magnetic fields on the crystal orientation and magnetostriction of a TbFe2 based alloy during treatment in the semi-solid state // Journal of Alloys and Com-pounds. 2014. Vol. 590. P. 110 – 115.Yang L., Zhen L., Fuyu Y., Rui D., Qi Y. Ef-fect of external magnetic field on resistance spot welds of aluminum alloy // Material and Design. 2014. Vol. 56. P. 1025 – 1033.Yang L., Zhen L., Fuyu Y., Rui D., Qi Y. Ef-fect of external magnetic field on resistance spot welds of aluminum alloy // Material and Design. 2014. Vol. 56. P. 1025 – 1033.Li C., Hu S., Ren Z., Fautrelle Y., Li X. Ef-fect of the simultaneous application of a high static magnetic field and a low alternating current on grain structure and grain boundary of pure aluminum // Journal of Materials Sci-ence & Technology. 2018. Vol. 34. No. 12. P. 2431 – 2438.Li C., Hu S., Ren Z., Fautrelle Y., Li X. Ef-fect of the simultaneous application of a high static magnetic field and a low alternating current on grain structure and grain boundary of pure aluminum // Journal of Materials Sci-ence & Technology. 2018. Vol. 34. No. 12. P. 2431 – 2438.Li Y.J., Tao W.Z., Yang Y.S. Grain refine-ment of Al–Cu alloy in low voltage pulsed magnetic field // Journal of Materials Pro-cessing Technology. 2012. Vol. 212. P. 903 – 909.Li Y.J., Tao W.Z., Yang Y.S. Grain refine-ment of Al–Cu alloy in low voltage pulsed magnetic field // Journal of Materials Pro-cessing Technology. 2012. Vol. 212. P. 903 – 909.Fu J.W., Yang Y.S. Microstructure and me-chanical properties of Mg–Al–Zn alloy under a low-voltage pulsed magnetic field // Materials Letters. 2012. Vol. 67. P. 252 – 255.Fu J.W., Yang Y.S. Microstructure and me-chanical properties of Mg–Al–Zn alloy under a low-voltage pulsed magnetic field // Materials Letters. 2012. Vol. 67. P. 252 – 255.Alshits V.I., Darinskaya E.V., Koldaeva M.V., Petrzhik E.A. Magnetoplastic effect in nonmagnetic crystals // Dislocations in Sol-ids. 2008. Vol. 14. P. 333 – 437.Alshits V.I., Darinskaya E.V., Koldaeva M.V., Petrzhik E.A. Magnetoplastic effect in nonmagnetic crystals // Dislocations in Sol-ids. 2008. Vol. 14. P. 333 – 437.Cheng J., Gui-rong Li., Hong-ming W., Pei-si Li., Chao-qun Li. Influence of high pulsed magnetic field on the dislocations and me-chanical properties of Al2O3 / Al composites // Journal of Materials Engineering and Perfor-mance. 2018. Vol. 27. P. 1083 – 1092.Cheng J., Gui-rong Li., Hong-ming W., Pei-si Li., Chao-qun Li. Influence of high pulsed magnetic field on the dislocations and me-chanical properties of Al2O3 / Al composites // Journal of Materials Engineering and Perfor-mance. 2018. Vol. 27. P. 1083 – 1092.Guirong L., Yueming L., Fangfang W., Hongming W. Microstructure and perfor-mance of solid TC4 titanium alloy subjected to the high pulsed magnetic field treatment // Journal of Alloys and Compounds. 2015. Vol. 644. P. 750 – 756.Guirong L., Yueming L., Fangfang W., Hongming W. Microstructure and perfor-mance of solid TC4 titanium alloy subjected to the high pulsed magnetic field treatment // Journal of Alloys and Compounds. 2015. Vol. 644. P. 750 – 756.Кеннеди А.Дж. Ползучесть и усталость в металлах. – M.: Металлургия, 1965. – 312 с.Кеннеди А.Дж. Ползучесть и усталость в металлах. – M.: Металлургия, 1965. – 312 с.Kassner M.E. Fundamentals of creep in met-als and alloys. – Elsevir Ltd., 2015. – 356 p.Kassner M.E. Fundamentals of creep in met-als and alloys. – Elsevir Ltd., 2015. – 356 p.

The authors declare that there are no conflicts of interest present.