Additive Friction Stir-Enabled Solid-State Additive Manufacturing for the Repair of 7075 Aluminum Alloy

被引:120
作者
Griffiths, R. Joey [1 ]
Petersen, Dylan T. [1 ]
Garcia, David [1 ]
Yu, Hang Z. [1 ]
机构
[1] Virginia Tech, Dept Mat Sci & Engn, 460 Old Turner St, Blacksburg, VA 24061 USA
来源
APPLIED SCIENCES-BASEL | 2019年 / 9卷 / 17期
关键词
solid-state additive manufacturing; repair; high-strength Al alloys; friction stir; severe plastic deformation; interface; CORROSION BEHAVIOR; DYNAMIC RECRYSTALLIZATION; WELDING PROCESS; WELDED-JOINTS; MICROSTRUCTURE; KEYHOLE;
D O I
10.3390/app9173486
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
The repair of high strength, high performance 7075 aluminum alloy is essential for a broad range of aerospace and defense applications. However, it is challenging to implement it using traditional fusion welding-based approaches, owing to hot cracking and void formation during solidification. Here, the use of an emerging solid-state additive manufacturing technology, additive friction stir deposition, is explored for the repair of volume damages such as through-holes and grooves in 7075 aluminum alloy. Three repair experiments have been conducted: double through-hole filling, single through-hole filling, and long, wide-groove filling. In all experiments, additive friction stir deposition proves to be effective at filling the entire volume. Additionally, sufficient mixing between the deposited material and the side wall of the feature is always observed in the upper portions of the repair. Poor mixing and inadequate repair quality have been observed in deeper portions of the filling in some scenarios. Based on these observations, the advantages and disadvantages of using additive friction stir deposition for repairing volume damages are discussed. High quality and highly flexible repairs are expected with systematic optimization work on process control and repair strategy development in the future.
引用
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页数:15
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共 38 条
[31]   Microstructures and mechanical behavior of Inconel 625 fabricated by solid-state additive manufacturing [J].
Rivera, O. G. ;
Allison, P. G. ;
Jordon, J. B. ;
Rodriguez, O. L. ;
Brewer, L. N. ;
McClelland, Z. ;
Whittington, W. R. ;
Francis, D. ;
Su, J. ;
Martens, R. L. ;
Hardwick, N. .
MATERIALS SCIENCE AND ENGINEERING A-STRUCTURAL MATERIALS PROPERTIES MICROSTRUCTURE AND PROCESSING, 2017, 694 :1-9
[32]   Dynamic and post-dynamic recrystallization under hot, cold and severe plastic deformation conditions [J].
Sakai, Taku ;
Belyakov, Andrey ;
Kaibyshev, Rustam ;
Miura, Hiromi ;
Jonas, John J. .
PROGRESS IN MATERIALS SCIENCE, 2014, 60 :130-207
[33]   A study on corrosion behavior of friction stir welded and tungsten inert gas welded AA2014 aluminium alloy [J].
Sinhmar, Sunil ;
Dwivedi, Dheerendra Kumar .
CORROSION SCIENCE, 2018, 133 :25-35
[34]   Investigation of Nondestructive Testing Methods for Friction Stir Welding [J].
Taheri, Hossein ;
Kilpatrick, Margaret ;
Norvalls, Matthew ;
Harper, Warren J. ;
Koester, Lucas W. ;
Bigelow, Timothy ;
Bond, Leonard J. .
METALS, 2019, 9 (06)
[35]   Friction stir welding of aluminium alloys [J].
Threadgill, P. L. ;
Leonard, A. J. ;
Shercliff, H. R. ;
Withers, P. J. .
INTERNATIONAL MATERIALS REVIEWS, 2009, 54 (02) :49-93
[36]   Selective laser melting of Al-Zn-Mg-Cu: Heat treatment, microstructure and mechanical properties [J].
Wang, P. ;
Li, H. C. ;
Prashanth, K. G. ;
Eckert, J. ;
Scudino, S. .
JOURNAL OF ALLOYS AND COMPOUNDS, 2017, 707 :287-290
[37]   Investigation on welding parameters and bonding characteristics of underwater wet friction taper plug welding for pipeline steel [J].
Yin, Yayun ;
Yang, Xinqi ;
Cui, Lei ;
Cao, Jun ;
Xu, Wei .
INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2015, 81 (5-8) :851-861
[38]   Non-beam-based metal additive manufacturing enabled by additive friction stir deposition [J].
Yu, Hang Z. ;
Jones, Mackenzie E. ;
Brady, George W. ;
Griffiths, R. Joey ;
Garcia, David ;
Rauch, Hunter A. ;
Cox, Chase D. ;
Hardwick, Nanci .
SCRIPTA MATERIALIA, 2018, 153 :122-130