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Structure evolution of Ni36Al27Co37 alloy in the process of mechanical alloying and plasma spheroidization. / Mazeeva, Alina K.; Kim, Artem; Ozerskoi, Nikolay E.; Shamshurin, Aleksey I.; Razumov, Nikolay G.; Nazarov, Denis V.; Popovich, Anatoliy A.

в: Metals, Том 11, № 10, 1557, 10.2021, стр. 1-14.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

Harvard

Mazeeva, AK, Kim, A, Ozerskoi, NE, Shamshurin, AI, Razumov, NG, Nazarov, DV & Popovich, AA 2021, 'Structure evolution of Ni36Al27Co37 alloy in the process of mechanical alloying and plasma spheroidization', Metals, Том. 11, № 10, 1557, стр. 1-14. https://doi.org/10.3390/met11101557, https://doi.org/10.3390/met11101557

APA

Mazeeva, A. K., Kim, A., Ozerskoi, N. E., Shamshurin, A. I., Razumov, N. G., Nazarov, D. V., & Popovich, A. A. (2021). Structure evolution of Ni36Al27Co37 alloy in the process of mechanical alloying and plasma spheroidization. Metals, 11(10), 1-14. [1557]. https://doi.org/10.3390/met11101557, https://doi.org/10.3390/met11101557

Vancouver

Author

Mazeeva, Alina K. ; Kim, Artem ; Ozerskoi, Nikolay E. ; Shamshurin, Aleksey I. ; Razumov, Nikolay G. ; Nazarov, Denis V. ; Popovich, Anatoliy A. / Structure evolution of Ni36Al27Co37 alloy in the process of mechanical alloying and plasma spheroidization. в: Metals. 2021 ; Том 11, № 10. стр. 1-14.

BibTeX

@article{6ec69300fdbb421d9e2cfa011bf7c9fa,
title = "Structure evolution of Ni36Al27Co37 alloy in the process of mechanical alloying and plasma spheroidization",
abstract = "In this paper, a novel approach to obtain a ferromagnetic material for smart applications was implied. A combination of mechanical alloying (MA) and plasma spheroidization (PS) was applied to produce Ni36 Al27 Co37 spherical powder. Then its structure was systematically studied. It was shown that homogenization of the structure occurs due to mechanism of layered structure formation. The dependence of the lamella thickness on the energy dose input at MA was defined. It was found that 14.7 W·h/g is sufficient to obtain lamella thickness of 1 µm and less. The low-energy mode of a planetary mill with rotation speeds of the main disk/bowl of 150/−300 rpm makes it possible to achieve a uniform element distribution upon a minimal amount of impurity. During MA in an attritor Ni3 Al-type intermetallic compounds are formed that result in more intensive degradation in particle size. Plasma spheroidization of the powder after MA allowed obtaining Ni36 Al27 Co37 spherical powder. The powder had a fine β + γ-structure. The particle size distribution remains almost unchanged compared to the MA stage. Coercivity of the powder is 79 Oe. The powder obtained meets the requirements of selective laser melting technology, but also can be utilized as a functional filler in various magnetic composites.",
keywords = "4D-technology, Ferromagnetic smart alloy, Mechanical alloying, Plasma spheroidization, Spherical powder",
author = "Mazeeva, {Alina K.} and Artem Kim and Ozerskoi, {Nikolay E.} and Shamshurin, {Aleksey I.} and Razumov, {Nikolay G.} and Nazarov, {Denis V.} and Popovich, {Anatoliy A.}",
note = "Publisher Copyright: {\textcopyright} 2021 by the authors. Licensee MDPI, Basel, Switzerland.",
year = "2021",
month = oct,
doi = "10.3390/met11101557",
language = "English",
volume = "11",
pages = "1--14",
journal = "Metals",
issn = "2075-4701",
publisher = "MDPI AG",
number = "10",

}

RIS

TY - JOUR

T1 - Structure evolution of Ni36Al27Co37 alloy in the process of mechanical alloying and plasma spheroidization

AU - Mazeeva, Alina K.

AU - Kim, Artem

AU - Ozerskoi, Nikolay E.

AU - Shamshurin, Aleksey I.

AU - Razumov, Nikolay G.

AU - Nazarov, Denis V.

AU - Popovich, Anatoliy A.

N1 - Publisher Copyright: © 2021 by the authors. Licensee MDPI, Basel, Switzerland.

PY - 2021/10

Y1 - 2021/10

N2 - In this paper, a novel approach to obtain a ferromagnetic material for smart applications was implied. A combination of mechanical alloying (MA) and plasma spheroidization (PS) was applied to produce Ni36 Al27 Co37 spherical powder. Then its structure was systematically studied. It was shown that homogenization of the structure occurs due to mechanism of layered structure formation. The dependence of the lamella thickness on the energy dose input at MA was defined. It was found that 14.7 W·h/g is sufficient to obtain lamella thickness of 1 µm and less. The low-energy mode of a planetary mill with rotation speeds of the main disk/bowl of 150/−300 rpm makes it possible to achieve a uniform element distribution upon a minimal amount of impurity. During MA in an attritor Ni3 Al-type intermetallic compounds are formed that result in more intensive degradation in particle size. Plasma spheroidization of the powder after MA allowed obtaining Ni36 Al27 Co37 spherical powder. The powder had a fine β + γ-structure. The particle size distribution remains almost unchanged compared to the MA stage. Coercivity of the powder is 79 Oe. The powder obtained meets the requirements of selective laser melting technology, but also can be utilized as a functional filler in various magnetic composites.

AB - In this paper, a novel approach to obtain a ferromagnetic material for smart applications was implied. A combination of mechanical alloying (MA) and plasma spheroidization (PS) was applied to produce Ni36 Al27 Co37 spherical powder. Then its structure was systematically studied. It was shown that homogenization of the structure occurs due to mechanism of layered structure formation. The dependence of the lamella thickness on the energy dose input at MA was defined. It was found that 14.7 W·h/g is sufficient to obtain lamella thickness of 1 µm and less. The low-energy mode of a planetary mill with rotation speeds of the main disk/bowl of 150/−300 rpm makes it possible to achieve a uniform element distribution upon a minimal amount of impurity. During MA in an attritor Ni3 Al-type intermetallic compounds are formed that result in more intensive degradation in particle size. Plasma spheroidization of the powder after MA allowed obtaining Ni36 Al27 Co37 spherical powder. The powder had a fine β + γ-structure. The particle size distribution remains almost unchanged compared to the MA stage. Coercivity of the powder is 79 Oe. The powder obtained meets the requirements of selective laser melting technology, but also can be utilized as a functional filler in various magnetic composites.

KW - 4D-technology

KW - Ferromagnetic smart alloy

KW - Mechanical alloying

KW - Plasma spheroidization

KW - Spherical powder

UR - http://www.scopus.com/inward/record.url?scp=85115966171&partnerID=8YFLogxK

UR - https://www.mendeley.com/catalogue/8ce13c55-c246-30d2-bfc3-2c243c2dcfe4/

U2 - 10.3390/met11101557

DO - 10.3390/met11101557

M3 - Article

AN - SCOPUS:85115966171

VL - 11

SP - 1

EP - 14

JO - Metals

JF - Metals

SN - 2075-4701

IS - 10

M1 - 1557

ER -

ID: 86114106