Achieving high-plasticity pure aluminium from wire-based friction stir additive manufacturing

In the request for sustainable development in complex components manufacturing, designing room-temperature high-plasticity material with simpler alloys becomes paramount. Here, pure aluminium composed of homogenously equiaxed grain was achieved by wire-based friction stir additive manufacturing, exhibiting an ultimate tensile strength of 143 MPa and a uniform elongation of 52.1%. The significant enhancement in plasticity was attributed to the equiaxed grains sustaining huge plastic strains via grain boundary sliding and grain rotation. Dislocation/disclination motion was discovered for the activation mechanism of the grain boundary sliding and grain rotation. This discovery advances the tailoring approach to developing large-sized materials with higher plasticity.

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Publication Details

Journal
Materials Research Letters
Published
2024-12-21
DOI
https://doi.org/10.1080/21663831.2024.2441372
Citations
13
Primary Topic
Aluminum Alloys Composites Properties
Type
article
Field-Weighted Citation Impact
2.76

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article

Achieving high-plasticity pure aluminium from wire-based friction stir additive manufacturing

Qi Wen, Dongxin Mao, Yongxian Huang, Yuming Xie et al.
13 citations
Materials Research Letters
Aluminum Alloys Composites Properties
2.76
article

Achieving high-plasticity pure aluminium from wire-based friction stir additive manufacturing

Qi Wen, Dongxin Mao, Yongxian Huang, Yuming Xie, Long Wan, Zeyu Zhang, Xiangchen Meng, Wenjiang Dong, Xiuwen Sun, Huijia Tian
article en
13 citations

Abstract

In the request for sustainable development in complex components manufacturing, designing room-temperature high-plasticity material with simpler alloys becomes paramount. Here, pure aluminium composed of homogenously equiaxed grain was achieved by wire-based friction stir additive manufacturing, exhibiting an ultimate tensile strength of 143 MPa and a uniform elongation of 52.1%. The significant enhancement in plasticity was attributed to the equiaxed grains sustaining huge plastic strains via grain boundary sliding and grain rotation. Dislocation/disclination motion was discovered for the activation mechanism of the grain boundary sliding and grain rotation. This discovery advances the tailoring approach to developing large-sized materials with higher plasticity.

Materials Research LettersVol. 13(3)
Welding Science (Brazil) (BR), Harbin Welding Institute (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 9%
Aluminum Alloys Composites Properties
2.76
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