Mathematic Model of Recrystallization of Cu-20Ni-5Sn Alloy

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Abstract:

Research the kinetic mechanism of grain growth of recrystallization of Cu-20Ni-5Sn alloy. The research result shows that the recrystallization temperature declines with the increase of cold-deformation. The recrystallization temperature is at about 500°C ~650°C respectively for 50% and 60% total cold deformation, and is about 470°C ~620°C respectively for 70% and 85% total deformation. The grains grow up with the increase of annealing temperature and holding time. The mathematic model of average grain size can be described as that Cu-20Ni-5Sn alloy annealed at 620°C ~680°C holding 2~10hours.

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Advanced Materials Research (Volumes 239-242)

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2252-2256

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May 2011

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© 2011 Trans Tech Publications Ltd. All Rights Reserved

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[1] Renjian Tang, Jun Wang and Junlin Yin: Materials Review Vol. 19(1)(2005),P.54.In Chinese.

Google Scholar

[2] Shaozong Zhang, Bohong Jiang and Wenjiang Ding: Special Casting & Nonferrous Alloys Vol. 26(1)(2006),P.62.In Chinese.

Google Scholar

[3] Jun Wang, Junlin Yin and Biao Yan: Shanghai Nonferrous Metals Vol. 25(4)(2004),P.184.In Chinese.

Google Scholar

[4] Xiujuan Chen, Xuelong Liu and Zizhou Yuan: Hot Working Technology Vol. (5)(2003),P.25.In Chinese.

Google Scholar

[5] Wang Yanhui, Wang Mingpu and Hong Bin: Transactions of Materials and Heat Treatment Vol. 25(5)(2004),P.97.In Chinese.

Google Scholar

[6] Shaozong Zhang, Bohong Jiang and Wenjiang Ding: Materials Review Vol. 20(8)(2006),P.84. In Chinese.

Google Scholar

[7] Changzheng Xu, Qingjuan Wang and Meiquan Huang: Heat Treatment of Metals Vol. 32(5) (2007),P.38. In Chinese.

Google Scholar

[8] Yanhui Wang, Mingpu Wang and Bin Hong: Heat Treatment of Metals Vol. 29(2)(2004),P.44. In Chinese.

Google Scholar

[9] Miettinen J. Calphad Vol. 27(3)(2003),P.309.

Google Scholar

[10] Nishijima F, Nomura K, Watanabe C and Monzen R: Journal of the Japan Institute of Metals Vol. 72(6)(2008), P.427.

Google Scholar

[11] Pariskaya L.N., Bogdanov V.V and Kaganovskii Yu: Diffusion and Defect Data Vol. 237-240 (2)(2005),P.849.

Google Scholar

[12] Virtanen P, Tiainen T and Lepisto T: Materials Science Engineering A Vol. A25(1)(1998), P.269.

Google Scholar

[13] Cuiping Wang, Xingjun Liu and Yunqing Ma:The Chinese Journal of Nonferrous Metals Vol. 15(11)(2005),P.1848. In Chinese.

Google Scholar

[14] Chenhou Xiao, Jingsan Liu and Zhe Li: Non-Ferrous Mining and Metallurgy Vol. 17(1) (2001), P.37. In Chinese.

Google Scholar

[15] Bin Yang, Yinghui Zhang and Hongbo Sun: Special Casting & Nonferrous Alloys Vol. 29(11) (2009),P.991. In Chinese.

Google Scholar

[16] Renzhong Tang. The Basis of Physical Metallurgy (Metallurgical Industry Press, Beijing 1997). In Chinese.

Google Scholar

[17] Gelielike, Recrystallization of Metals and its Alloys (Mechanical Press, Beijing 1985). In Chinese.

Google Scholar

[18] Yongning Yu. Metallography Principles (Metallurgical Industry Press, Beijing 2005). In Chinese.

Google Scholar

[19] Weimin Mao and Xinbing Zhao: Recrystallization of Metals and Grain Growth (Metallurgical Industry Press, Beijing 1994). In Chinese.

Google Scholar