Modeling of Dendrite Growth for Mg Alloy with Compact Hexagonal Crystal Structure

Acta Metall Sin

2007, Vol. 43

Issue (4): 367-373 DOI:

Research Articles

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Modeling of Dendrite Growth for Mg Alloy with Compact Hexagonal Crystal Structure

Zhiyong LIU;;

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Zhiyong LIU. Modeling of Dendrite Growth for Mg Alloy with Compact Hexagonal Crystal Structure. Acta Metall Sin, 2007, 43(4): 367-373 .

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Abstract Magnesium alloy is getting more and more worldwide application. Therefore, microstructure simulation of Mg alloy during solidification process not only has important academic value, but also can meet the active demand for development of industry. Based on the crystallographic structure and preferential growth direction of Mg alloy, physical model of grain growth for compact hexagonal structure was founded and a new stochastic simulation method named virtual core growth calculation model was proposed in this paper. Considering dendrite growth kinetics, anisotropy of grain growth and secondary dendrite arm coarsening, the present model adopted dendrite shape functions to reveal the evolution of primary and secondary dendrite arms. A coordinate transformation technique was introduced to calculate the cell capture of growing dendrites with arbitrary orientations rapidly and accurately. Coupled with the calculation of microscopic solute concentration, the simulation can get more accurate growth morphology of dendrites and solute distribution. Finally, applications to the Mg-Al based alloys are presented describing directional as well as equiaxed dendritic growth, which indicated the high theoretic and practical value of proposed models.

Key words: Modeling Magnesium alloy Dendrite growth Compact hexagonal

Received: 23 August 2006

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[1]Wu S S,Li D N,Mao Y W.Foundry,2002;51:583 (吴树森,李东南,毛有武．铸造,2002;51:583)
[2]Beltran-Sanchez L,Stefanescu D M.Metall Mater Trans, 2004;35A:2471
[3]Zhu M F,Dai T,Li C Y,Hong C P.Sci Chin,2005;35E: 673 (朱鸣芳,戴挺,李成允,洪俊杓．中国科学,2005;35E: 673)
[4]Eiken J,Bottger B,Steinbach I.In:Gandin C A,Bel- let M,eds.,Modeling of Casting,Welding and Advanced Solidification Processes-Ⅺ,Warrendale:TMS,2006:489
[5]Liu Z Y,Xu Q Y,Liu B C.Mater Sci Forum,in press
[6]Dahle A K,Lee Y C,Nave M D,Schaffer P L,StJohn D H.J Light Met,2001;1:61
[7]Steinbach I,Beckermann C,Kauerauf B,Li Q,Guo J. Acta Mater,1999;47:971
[8]Li Q,Beckermann C.Phys Rev,1998;57E:3176
[9]Xu Q Y,Feng W M,Liu B C.J Mater Sci Technol,2003; ??19:391
[10]Kattamis T Z,Coughlin J C,Flemings M C.Trans Met Soc AIME,1967;239:1504
[11]Chang G W,Wang J Z.Crystal Growth and Control in the Solidification of Metal.Beijing:Metallurgical Indus- try Press,2002:109 (常国威,王建中．金属凝固过程中的晶体生长与控制．北京:冶金工业出版社,2002:109)
[12]Thévoz P,Desbiolles J L,Rappaz M.Metall Trans,1989; 20A:311
[13]Kurz W,Giovanola B,Trivedi R.Acta Metall,1986;34: 823
[14]Xu Q Y,Feng W M,Liu B C.Acta Metall Sin,2002;38: 799 (许庆彦,冯伟明,柳百成．金属学报,2002;38:799)
[15]Goldstein H.Classical Mechanics.Reading Mass,USA: Addison-Wesley Pub.Co.Inc.,1959:107
[16]Zare R N.Angular Momentum.New York:John Wiley & Sons,1988:100

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