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HomeMaterials Science ForumMaterials Science Forum Vol. 852Effects of RE on Precipitation Behaviors of the...

Effects of RE on Precipitation Behaviors of the Inclusions and Magnetic Properties of Non-Oriented Electrical Steel

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Abstract:

Effects of RE addition on deoxidation and desulphurization efficiency, precipitation behaviors of the inclusions, microstructure and magnetic properties of the finished sheets have been investigated for no-oriented electrical steel produced in industrial scale. The most suitable addition amount of RE alloy added in the electrical steel bearing is proposed for excellent deoxidation and desulphurization efficiency. RE added into the steel can form larger and higher melt point RE oxides, RE sulfides and RE oxysulfides inclusions removing from the bath by floating which decreases the numbers and increases the size of the fine inclusions. The average size of the inclusions remained in the steel is 0.8μm~1.4μm. RE content affects grain size by influencing number and size of fine inclusions in the finished steel sheets. The magnetic flux density of the finished steel sheets dereases with the increase of RE content while the lowest core loss of it has an optimum RE content in the steel. In the steel bearing 1.15wt% Si, the content of RE should be strictly controlled in the range from 20×10^-4 wt% to 60×10^-4 wt%.

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Periodical:

Materials Science Forum (Volume 852)

Pages:

38-48

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.852.38

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Online since:

April 2016

Authors:

Cheng Yi Zhu, Xian Hong Chen, Li Fang Zhang, Xiao Yu Liang, Feng Zhang

Keywords:

Magnetic Properties, Microstructure, Non-Metallic Inclusions, Non-Oriented Electrical Steel, RE Treatment

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© 2016 Trans Tech Publications Ltd. All Rights Reserved

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[1] K. Matsumura and B. Fukuda: IEEE Transactions on Magnetics, Vol. 5 (1984), p.1533.

[2] H. Yashiki and T. Kaneko: ISIJ International, Vol. 4 (1990), p.325.

[3] K.K. Cai: Iron and Steel Iron and Steel, Vol. 44 (2009) No. 5, p.27.

[4] T. Nakayama, N. Honjou and T. Minaga: Journal of Magnetism and Magnetic Materials, Vol. 234 (2001), p.55.

[5] T. Kubota: CAMP-ISIJ, Vol. 16 (2003)No. 4, p.626.

[6] T. Irie, K. Matsumura and H. Nakamura: Kawashiki Steel Giho, Vol. 10 (1978)No. 1, p.15.

[7] F. Zhang, G.Q. Li and B. Wang: AIS Tech. 2011 Proceedings, Vol. 2 (2014), p.651.

[8] O. Yoshihiko, T. Yasushi, N and Yamagami: NKK Technical Review, Vol. 87 (2002), p.12.

[9] C.K. Hou and C.C. Liao: ISIJ International, Vol. 48 (2008) No. 4, p.531.

[10] István Bóca, Ágnes Czirákib and Tamás Grófc: Journal of Magnetic Materials, Vol. 83 (1990) No. 1-3, p.381.

[11] K. Matsumura, B. Fukuda and K. Kinoshita: Kawashiki Steel Giho, Vol. 15 (1983) No. 3, p.208.

[12] Y.Y. Guo and K. K Cai: Journal of the Chinese RE Society, Vol. 22 (2004), p.498.

[13] M. Numata, Y. Higuchi and S. Fukagawa: Tetsu-to-Hagane, Vol. 84 (1998) No. 3, p.1.

[14] Y. Wang, W.Q. Chen and X.J. Wu: Journal of Rare Earths, Vol. 31 (2013) No. 7, p.727.

[15] H. Sun, Y.P. Ji, L. Chen: The Chinese Journal of Process Engineering, Vol. 10 (2010)No. 2, p.240.

[16] N. Yu, H.L. Li, Z.Y. Sun and J.W. Ji: Journal of the Chinese RE society, Vol. 23 (2005)No. 1, p.91.

[17] X. Liu, J.C. Yang and X.Z. Gao: Iron and Steel, Vol. 45 (2010) No. 8: 65-69.

[18] Y.B. Li, F.M. Wang and C.R. Li: Journal of the Chinese Rare Earth Society, Vol. 27 (2009) No. 1, p.123.

[19] L.J. Yue, L.M. Wang, C.H. Xu and X.Y. Pu: Journal of Northeastern University(Natural Science). Vol. 25 (2004) No. 12, p.1179.

[20] S.K. Samanta, S.K. Mi tra and T.K. Pal: Materials Science and Engineering A, Vol. 430 (2006), p.242.

[21] M. Takashima and N. Morito: IEEE. Trans. Magn. Vol. 35 (1999)No. 1, p.557.

[22] H.B. Guang, W.K. Zhang, X. C Xin, Z.Q. Hu. Effect of Rare Earth Element on Structure and Magnetic Performance of Cold Rolled Non Oriented Electrical Steel Products, Shanxi Metallurgy. Vol. 33 No. 2 (2012) 58-61.

[23] H.B. Guang, Y.Z. Liu, R.X. Jian, Z.Q. Hu. Influence of RE on surface quality of non-oriented electrical steel, Shanxi Metallurgy. Vol. 32 No. 6 (2009) 4-6.

[24] F. Zhang, C.S. Ma, B. Wang. Control of non-metallic inclusions of non-Oriented silicon steel sheets by RE treatment, Baosteel Technical Research. Vol. 15 No. 2 (2011) 14-18.

[25] M. Masaaki, M. Takashima, M. Kawano. Effect of REM addition on grain growth behavior of non-oriented electrical steel sheets, CAMP-ISIJ. Vol. 15 No. 6 (2002) 1207.