ZK60 based alloys with high-strength and high-ductility: A review

Qiang Yang , Zefeng Xie , Jun Li , Shuhui Lv , Wei Zhang , Ruizhi Wu , Hucheng Pan , Rongguang Li , Xin Qiu
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引用次数: 4

Abstract

Wrought magnesium alloys with high-strength and high-ductility property have been attracting more and more interest in automotive and aerospace industries, and the conventional Mg-Zn based alloys are widely accepted as the representative one. Development of Mg-Zn based alloys with rare earth (RE) element additions and with modified preparation processes domains the evolution of their potential structural applications. Nonetheless, their highest tensile yield strength (TYS) is still in the order of 400 MPa, clearly lower than that of the Mg-RE based alloys, in the order of 500 MPa, much less compared with the high-strength aluminum alloys and titanium alloys. According to many previous investigations, two relatively efficient methods to improve mechanical properties of ZK based alloys were revealed as: alloying by RE and optimizing wrought processes. However, comprehensive combinative investigation was hitherto not conducted to date. Thus, it is imperative in the next work to further improve the yield strength to the order of 500 MPa or much higher, and simultaneously modify the tension-compression strength asymmetry of the ZK series alloys. Maybe, developing novel wrought processes for ZK60 (+ RE) alloys or exploring appropriate pre-dealing treatments before or after the wrought processes might be an important approach to accomplish a much higher level of balance of high-strength and high-ductility.

Abstract Image

高强高塑性ZK60基合金研究进展
具有高强度和高延展性的镁合金在汽车和航空航天工业中引起了越来越多的兴趣,传统的镁锌基合金是其中的代表性合金。添加稀土元素和改进制备工艺的镁锌基合金的发展及其潜在结构应用的发展。尽管如此,它们的最高拉伸屈服强度(TYS)仍在400MPa的量级,明显低于Mg-RE基合金的500MPa的量级的拉伸屈服强度,与高强度铝合金和钛合金相比要低得多。根据先前的许多研究,揭示了两种相对有效的改善ZK基合金力学性能的方法:RE合金化和优化锻造工艺。然而,迄今为止尚未进行全面的综合调查。因此,在接下来的工作中,必须将屈服强度进一步提高到500MPa或更高的数量级,同时改变ZK系列合金的拉伸-压缩强度不对称性。也许,为ZK60(+RE)合金开发新的锻造工艺,或在锻造工艺之前或之后探索适当的预处理处理,可能是实现高强度和高延展性更高水平平衡的重要途径。
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