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Chin J Mater Res  2004, Vol. 18 Issue (6): 597-605    DOI:
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Solidification microstructure of 3D--meshy SiC/Cu metal matrix composites
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中国科学院金属研究所
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. Solidification microstructure of 3D--meshy SiC/Cu metal matrix composites. Chin J Mater Res, 2004, 18(6): 597-605.

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Abstract  3D--meshy SiC/Cu metal matrix composite was fabricated by squeeze casting process. The influence of process conditions on solidification microstructure of the composites was studied. The results showed that 3D--meshy SiC ceramic skeleton played an important role during the solidification of the matrix and the course of crystal growth and crystallization. Under the certain conditions, the dendrites perpendicular to skeleton surface appeared, and the fine and even equiaxed grains structure formed. The influence of skeleton apertures on microstructure was very remarkable. The fine apertures were benefit to grain refining and structure uniformity, while big apertures were apt to produce macroscopic segregation and concentration of plumbum. The tin inverse segregation was lightened for the SiC skeleton, because tin was gathered in a very narrow region near the surface of skeleton, which avoided tin mass segregation in the surface layer of the cast.
Key words:  composite      metal matrix composites(MMCs)      squeeze casting      3D-meshy SiC      copper      solidification microstru     
Received:  29 December 2004     
ZTFLH:  TB333  
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1 W.R.Osorio, C.A.Santos, J.M.V.Quaresma, A.Garcia, Journal of Materials Processing Technology, 143-144, 703(2003)
2 A.Frenk, W.Kurz, Wear, 174, 81(1994)
3 L. Anestiev, Journal of Crystal Growth, 140, 175(1994)
4 Kuen-Ming Shu, G.C.Tu, Materials Science and Engineering, A349, 236(2003)
5 P.Yih, D.D.L.Chung, Journal of Materials Science, 34, 359(1999)
6 Yongzhong Zhan, Guoding Zhang, Journal of Materials Science Letters, 22, 1087(2003)
7 S.C.Tjong, K.C.Lau, Materials Letters, 43, 274(2000)
8 Joshua Pelleg, M.Ruhr, M.Ganor, Materials Science and Engineering, A212, 139(1996)
9 QI Pixiang, Squeeze Casting (Beijing, Defence Industry Press, 1984) p.27 (齐丕骧,挤压铸造(北京,国防工业出版社,1984)P.27)
10 FAN Dongli, Heat Treatment Technical Data Manual (Beijing, Mechanical Industry Press, 2000) p.6 (樊东黎,热处理技术数据手册(北京,机械工业出版社,2000)P.6)
11 SONG Weixi, Metallic (Beijing, Metallurgical Industry Press, 1989) p.124 (宋维锡,金属学,第二版,(北京,冶金工业出版社,1989)p.124)
12 "Cast Nonferrous Alloy and Its Smelting" Unite Compile Group, Cast Nonferrous Alloy and Its Smelting (Beijing, Defence Industry Press, 1980) p.130 (《铸造有色合金及其熔炼》联合编写组,铸造有色合金及其熔炼(北京,国防工业出版社,1980)p.130)
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