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Magnetic Properties of a Hard Magnetic Fe–30Cr–14Co Powder Alloy

Experimental design performed with the Statgraphics XVI Centurion software is used to optimize the magnetic hysteretic properties of an anisotropic hard magnetic Fe–30Cr–14Co powder alloy. The following magnetic hysteretic properties are reached: the remanence is B r = 1.24 T, the coercive force is...

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Published in:Russian metallurgy Metally 2021-12, Vol.2021 (13), p.1650-1655
Main Authors: Milyaev, I. M., Kuchin, E. V., Alymov, M. I., Buryakov, I. N., Yusupov, V. S., Zelenskii, V. A., Laisheva, N. V.
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container_issue 13
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container_title Russian metallurgy Metally
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creator Milyaev, I. M.
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Laisheva, N. V.
description Experimental design performed with the Statgraphics XVI Centurion software is used to optimize the magnetic hysteretic properties of an anisotropic hard magnetic Fe–30Cr–14Co powder alloy. The following magnetic hysteretic properties are reached: the remanence is B r = 1.24 T, the coercive force is H cB = 50.7 kA/m, and maximum energy product is ( BH ) max = 35.5 kJ/m 3 . Regression equations of the dependences of B r , H cB , and ( BH ) max on the heat treatment parameters of the alloy are derived and adequately describe the dependences within the phase space within variation ranges of selected parameters. The reached level of magnetic hysteretic properties of the alloy is almost identical to that of one of the most widely used industrial alloys, namely, YuNDK24 (GOST 17809–72) [1], although the cobalt content in the alloy under study is lower by more than 40%.
doi_str_mv 10.1134/S0036029521130176
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subjects Alloys
Chemistry and Materials Science
Coercivity
Design of experiments
Ferrous alloys
Heat treatment
Hysteresis
Magnetic properties
Materials Science
Metallic Materials
Parameters
Physical Metallurgy. Thermal and Thermochemical Treatment Technologies
Remanence
title Magnetic Properties of a Hard Magnetic Fe–30Cr–14Co Powder Alloy
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