MM-SPS工艺的Mg切削屑的固相再利用材料及其特性

Q4 Materials Science
Takumi TANAKA, Masahiro KUBOTA
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引用次数: 0

摘要

本研究的目的是利用MM-SPS工艺从切屑中制备高硬度的Mg。研究了镁粉、镁切屑等不同原料对复合材料性能的影响。研究了烧结保温时间对性能的影响,确定了工艺条件与性能之间的关系。对粉末和块状材料进行了硬度测试和x射线衍射表征。硬度测试结果表明,MM-SPS工艺可以合成高质量的镁切屑再生材料。对于切屑,在MM时间为6小时,烧结保持时间为60分钟时观察到最大硬度。另一方面,粉末在MM时间为6小时,烧结保温时间为10分钟时硬度最大。但硬度不随烧结保温时间的延长而增加。在粉末和切屑制备的SPS材料中未观察到固态反应。此外,在MM处理期间未观察到杂质污染。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
MM-SPSプロセスによるMg切削屑の固相リサイクル材およびその特性
The purpose of this research is to produce high hardness of Mg from cutting chips using MM-SPS process. Effects of different starting materials, such as powder and cutting chips of Mg, on the properties were investigated. The influence of sintering holding times on the properties was also investigated to establish between the process conditions and the properties. Hardness testing and X-ray diffraction were carried out for characterization of powders and bulk materials. The results of hardness indicated that MM-SPS process can synthesis upgrade recycled material fabricated from Mg cutting chips. In the case of cutting chips, the maximum hardness was observed at 6 hours of MM and 60 min of sintering holding time. On the other hand, in the case of powder showed the maximum hardness at 6 hours of MM and 10 min of sintering holding time. However, the hardness did not increase with increasing sintering holding time. No solid-state reaction was observed in SPS materials fabricated from powder and cutting chips. In addition, no contamination of impurities during MM treatment was observed.
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CiteScore
0.40
自引率
0.00%
发文量
112
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