A Perspective on Solid-State Additive Manufacturing of Aluminum Matrix Composites Using MELD

被引:0
作者
R. Joey Griffiths
Mackenzie E. J. Perry
Jennifer M. Sietins
Yunhui Zhu
Nanci Hardwick
Chase D. Cox
Hunter A. Rauch
Hang Z. Yu
机构
[1] Virginia Tech,Department of Materials Science and Engineering
[2] Aberdeen Proving Ground,Army Research Laboratory
[3] Virginia Tech,Bradley Department of Electrical and Computer Engineering
[4] MELD Manufacturing Corporation,undefined
来源
Journal of Materials Engineering and Performance | 2019年 / 28卷
关键词
aluminum; additive manufacturing; composites; metallic matrix; thermomechanical processing;
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中图分类号
学科分类号
摘要
MELD, previously known as additive friction stir, is an emerging solid-state process that enables additive manufacturing of a broad range of metals and metal matrix composites. Here, we discuss its potential for fabricating aluminum matrix composites by showing examples of Al-SiC, Al 6061-Mo, and Al 6061-W composites. Thanks to its solid-state nature, MELD is uniquely suited for the use of high-strength aluminum alloys as matrix material, which would suffer from hot cracking problems in liquid-state processes. Using complementary characterization tools, we show that this process results in aluminum matrix composites with no observed porosity and homogeneous particle distribution. These properties stem from the extensive material flow and mixing during the deposition process. In addition to the high quality of produced composites, its ease of use, versatility of feed materials, and scalability all make MELD an attractive tool for additive manufacturing of aluminum matrix composites. We also discuss the limitations of MELD for composite fabrication, with issues related to maximum reinforcement loading, tool wear, and in-plane resolution. Finally, we compare the benefits and limitations of MELD with other composite fabrication processes such as powder bed fusion, friction stir processing, stir casting, and powder processing.
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页码:648 / 656
页数:8
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