INTRINSIC MAGNETISM AND MAGNETIC ANISOTROPY OF AMORPHOUS ALLOYS Fe_(1-x)(Si, B)_x

Acta Metall Sin

1989, Vol. 25

Issue (5): 111-114 DOI:

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INTRINSIC MAGNETISM AND MAGNETIC ANISOTROPY OF AMORPHOUS ALLOYS Fe_(1-x)(Si, B)_x

GUAN Kehong;WANG Jun Northeast University of Technology; Shenyang GUAN Kekong; associate professor; Department of Material Science and Engineering;Northeast University of Technology; 110006 Shenyang

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GUAN Kehong;WANG Jun Northeast University of Technology; Shenyang GUAN Kekong; associate professor; Department of Material Science and Engineering;Northeast University of Technology; 110006 Shenyang. INTRINSIC MAGNETISM AND MAGNETIC ANISOTROPY OF AMORPHOUS ALLOYS Fe_(1-x)(Si, B)_x. Acta Metall Sin, 1989, 25(5): 111-114.

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Abstract The magnetic moment and the magnetostriction decrease slightly withthe increase of totel Si + B content. A maximum of the Curie temperature appears atabout 25 at.-% of Si + B. The magnetic anisotropy is uninfluential by the content ofSi + B, but much influence by the demagnetization effect of streak. A qualitativeexplanation of the experimental phenomenon seems to be noted by aid of the elec-tron transition and structure model of amorphous alloy.

Key words: Fe-Si-B alloy amorphous alloy magnetic moment Curie temperature magnetic anisotropy magnetostriction

Received: 18 May 1989

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https://www.ams.org.cn/EN/ OR https://www.ams.org.cn/EN/Y1989/V25/I5/111

1 Ward K D, Crangle J, Davies H A. In: Masumoto T et al. eds., Rapidly Quenched Metals 4, Vol. Ⅱ, Proc 4th Int Conf on Rapidly Quenched Metals, Sendai, Aug., 24--28, 1981． Japan: The Japan Institute of Metals, 1982: 1141--1144
2 Stell G. Physica, 1963; 29: 517
3 Fisher I Z. Soviet Phys Uspekhi, Fizicheskikh Nauk, 1962; 5: 239
4 宫可洪,孙庭烈,李东辉.金属学报,1983;19:A417--421

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