Combining fusion-based and solid-state additive manufacturing: Investigation of additive DED structures with friction surfacing interlayer

IF 4.7 Q2 ENGINEERING, MANUFACTURING
Zina Kallien , Eloise Eimer , Arne Roos , Victor Ortolland , Lars Rath , Stewart Williams , Benjamin Klusemann
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Abstract

Fusion-based additive manufacturing (AM) techniques face some challenges for aluminium due to the necessity of material melting resulting in insufficient bonding. The present work provides a novel insight into the combination of fusion-based and solid-state AM approaches to successfully generate structures from different aluminium alloys. Specifically, the friction-based solid-state AM technique of friction surfacing (FS) is used to generate an interlayer structure on AA2050 substrate material. On top of this structure, additional AA5087 is deposited via Wire and Arc Additive Manufacturing (WAAM). For the FS interlayer structure, two different alloys, AA5083 and AA7050, are explored. Additionally, the effect of inter-layer rolling is investigated for the final WAAM structure. The built structures are investigated with special focus on the interfaces, i.e., FS deposit-to-substrate and WAAM deposit-to-FS deposit interfaces. In the cross sections, no defects could be detected at the FS deposit-to-substrate interfaces and the structures did not show visible cracks at the WAAM deposit-to-FS deposit interfaces. The investigation showed that the mechanical properties of the WAAM structure improve when inter-layer rolling is applied, leading to homogeneous mechanical properties across the interfaces. The study highlights that FS as friction-based solid-state AM process is capable to build interlayer structures for material combinations, which cannot be achieved directly via a fusion-based process. The approach of combining different AM techniques can be advantageous not only to achieve a dissimilar material combinations but also to build hybrid structures with locally optimized properties.

Abstract Image

融合与固态增材制造的结合:具有摩擦表面夹层的增材DED结构研究
基于融合的增材制造(AM)技术由于材料熔化的必要性而导致粘接不足,因此对铝面临一些挑战。目前的工作为融合和固态增材制造方法的结合提供了新的见解,以成功地从不同的铝合金中生成结构。具体而言,采用基于摩擦的摩擦表面固态增材制造技术(FS)在AA2050衬底材料上生成层间结构。在此结构的顶部,通过线材和电弧增材制造(WAAM)沉积额外的AA5087。对于FS层间结构,研究了两种不同的合金AA5083和AA7050。此外,还研究了层间轧制对最终WAAM结构的影响。对所建结构进行了研究,特别关注界面,即FS沉积-衬底和WAAM沉积-FS沉积界面。在横截面上,FS沉积层与基体界面处未检测到缺陷,WAAM沉积层与FS沉积层界面处结构未出现明显裂纹。研究表明,层间轧制能改善WAAM组织的力学性能,使其在界面上的力学性能趋于均匀。该研究强调,FS作为基于摩擦的固态增材制造工艺能够为材料组合构建层间结构,这是无法通过基于融合的工艺直接实现的。结合不同增材制造技术的方法不仅有利于实现不同的材料组合,而且有利于构建具有局部优化性能的混合结构。
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来源期刊
Additive manufacturing letters
Additive manufacturing letters Materials Science (General), Industrial and Manufacturing Engineering, Mechanics of Materials
CiteScore
3.70
自引率
0.00%
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0
审稿时长
37 days
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