Rheological Behavior of Semi-Solid AlSi6Mg2 Aluminum Alloy at Steady State

Acta Metall Sin

2005, Vol. 41

Issue (7): 759-762 DOI:

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Rheological Behavior of Semi-Solid AlSi6Mg2 Aluminum Alloy at Steady State

ZHOU Zhihua; MAO Weimin; LIU Zheng; XU Jun; SHI Likai

School of Materials Science and Engineering;University of Science and Technology Beijing; Beijing 100083

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ZHOU Zhihua; MAO Weimin; LIU Zheng; XU Jun; SHI Likai. Rheological Behavior of Semi-Solid AlSi6Mg2 Aluminum Alloy at Steady State. Acta Metall Sin, 2005, 41(7): 759-762 .

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Abstract The apparent viscosities of semi--solid AlSi6Mg2 alloy at steady state were investigated using a Couette type viscometer. The results show that the apparent viscosities of semi--solid AlSi6Mg2 alloy at steady state increase with increasing solid fraction, but decline with increasing shearing rate. When the solid fraction reaches a critical value, the apparent viscosities increase rapidly and with the increase in shearing rate, the critical fraction value becomes bigger. Based on the experimental results, an empirical equation that shows the effect of solid fraction and shearing rate on the apparent viscosities was built as the following,a =78.6 exp(6.17 fs)－1.36。

Key words: aluminum alloy semi--solid rheological behavior

Received: 11 October 2004

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[1] Flemings M C. Metall Trans, 1991; 22A: 957
[2] Kirkwood D H. Int Mater Rev, 1994; 39: 173
[3] Fan Z. Int Mater Rev, 1994; 47: 49
[4] Sharma K C, Ferreira J H, Govender G, Damm O. In: Chiarmetta G L, Rosso M eds, Proc 6th Int Conf on Semisolid Processing of Alloys and Composites. Turin, Italy: Politenico di Torion, 2000: 253
[5] Kopper A, Apelian D. In: Chiarmetta G L, Rosso M, eds., Proc 6th Int Conf on Semi-solid Processing of Alloys and Composites, Turin, Italy: Politenico di Torion, 2000: 379
[6] Ito Y, Flemings M C, Cornie J A. In: Sekhar J A, Dantzig J A, eds., Nature and Properties of Semi-solid Materials. Warrendale, Pennsylvania: The Metals Society of AIME, 1991: 3
[7] Sigworth G K. Can Metall Q, 1996; 35: 101
[8] Suery M, Zavaliangos A. In: Chiarmetta G L, Rosso M, eds., Proc 6th Int Conf on Semi-solid Processing of Alloys and Composites. Turin, Italy: Politenico di Torion, 2000: 129
[9] Zhen Z S, Mao W M, Yan S J, Zhao A M, Cui C L, Zhong X Y. Acta Metall Sin (Engl Lett), 2002; 15: 505
[10] Atkinson H V, Liu D. In: Tsutsui Y, Kiuchi M, Ichikawa K, eds., Proc 7th Int Conf on Semi-solid Processing of Alloys and Composites. Tsukuba, Japan: National Institute of Advanced Industrial Science and Technology, Japan Society for Technology of Plasticity, 2002: 51
[11] Liu Y Q, Fan Z, Patel J. ibid: 599
[12] Camacho A M, Kapranos P, Atkinson H V. ibid: 467
[13] Spencer D B, Mehrabian R, Flemings M C. Metall Trans, 1972; 3: 1925
[14] Joly P A, Mehrabian R. J Mater Sci, 1976; 11: 1393
[15] Hu H Q. The Metal Solidification Theory. Beijing: China Machine Press, 1991 (胡汉起．金属凝固原理．北京:机械工业出版社, 1991)

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