Rolling Processes and Performance of Cu-Fe In Situ Composites


Article Preview

The deformation processed Cu-based in-situ composite was a kind of structural function materials with high physical and mechanical performance and used widely in large scale integrated circuit. Especially, the sheet material of Cu-Fe in-situ composites was interested to researchers because the Fe was cheaper and the use of sheets was more widely in electron industry. In this study, the sheets of Cu-10Fe-1Ag in-situ composite were achieved by cold rolling which the thickness was from 6mm to 2.56mm, 1.28mm, 0.64mm and 0.32mm. Corresponding, the rolling ratio was 4.9, 5.3, 5.9 and 6.6. The maximum strength was 722Mpa at the rolling ratio 4.9. The conductivity was measured also with maximum 59.5% IACS. The experimental results show that the tensile strength and electrical resistance increase with the increasing of rolling strain. Although the conductivity of Cu-Fe in-situ composites was not very high, the matching of strength and conductivity was favorable. It is feasible that the high performance Cu-based in-situ composite can be obtained by cold rolling with merits of materials cheaper, melting simple and usage wide



Advanced Materials Research (Volumes 79-82)

Edited by:

Yansheng Yin and Xin Wang






J. Q. Guo et al., "Rolling Processes and Performance of Cu-Fe In Situ Composites", Advanced Materials Research, Vols. 79-82, pp. 159-162, 2009

Online since:

August 2009




[1] Liu Ping. High performance copper alloy and processing technology. Beijing: Metallurgical industry press, (2004).

[2] Zhang Xiaohui, Li Yongnian. Precious Metals. Vol. 22(2001): 47.

[3] Yin Zhimin,Zhang Shenglong. Mining and Metallurgical Engineering Vol. 22(2002):1-5.

[4] Shigeki Skai, SuzukiH G, et al. Materials Transaction Vol. 44(2003): 232.

[5] Bevk J, Harbison J L. Appl Phys, Vol. 49(1978) : 6031-6038.

[6] Verhoeven J D, Chuen S C, Gibson E D. J Mater Sci, Vol. 24(1989): 1748.

[7] SUN Shiqing, MAO Lei. Journal of Hebei University of Science and Technology. Vol. 21(2000): 20.

[8] GE Jiping, YAO Zaiqi. The Chinese Journal of Nonferrous Metals. Vol. 14(20044): 568-573.

[9] SUN Shiqing, MAO Lei. Acta Metallrugica Sinica. Vol., 39(2003): 565-568.

[10] GAO Haiyan, WANG Jun. Materials Review. Vol. 20(2006): 87-91.

[11] Bengh Alem A, Mirris D G. Acta Materialia. Vol. 45(1997): 397-406.

[12] Gayathri Rao, James M Howe. Scripta Metallurgica Materialia. Vol. 30(1994): 731-736.

DOI: 10.1016/0956-716x(94)90190-2

[13] Hong S I, HILL M A. Materials Science and Technology. Vol. 281(2000): 189-197.

[14] Verhoeven JD, Chueh S C, Gibson E D. Journal of Materials Science. Vol. 24(1989): 1748-1752.

In order to see related information, you need to Login.