A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block

Fabricating a dissimilar-metal block with micro/nano-multilayered structures is usually used by engineers and scientists because of their excellent mechanical properties. In the current work, multilayered copper/brass blocks were effectively fabricated by a synthetical DWFR technique, which includes...

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Autores principales: Jiansheng Li, Zhongchen Zhou, Tong Liu, Yu Zhao, Yan Lu, Ming Chen, Xiaozhen Wang, Gang Wang, Qingzhong Mao
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Lenguaje:EN
Publicado: MDPI AG 2021
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Acceso en línea:https://doaj.org/article/58fe56860912454181d3e40555bead95
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spelling oai:doaj.org-article:58fe56860912454181d3e40555bead952021-11-25T17:16:59ZA Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block10.3390/coatings111114162079-6412https://doaj.org/article/58fe56860912454181d3e40555bead952021-11-01T00:00:00Zhttps://www.mdpi.com/2079-6412/11/11/1416https://doaj.org/toc/2079-6412Fabricating a dissimilar-metal block with micro/nano-multilayered structures is usually used by engineers and scientists because of their excellent mechanical properties. In the current work, multilayered copper/brass blocks were effectively fabricated by a synthetical DWFR technique, which includes the processes of diffusion welding, forging and rolling. Diffusion welding was used as the first operation to metallurgically bond the copper and brass sheets, with a Zn diffusion transition layer (thickness of ~100 μm), which can guarantee the bonding strength of copper/brass interfaces during the subsequent forging and rolling processes. After diffusion welding, the original copper/brass blocks were required to be forged, with its total thickness reduced to ~10 mm. This can further restrain the delamination of copper and brass layers during the final rolling process. Rolling was utilized as the ideal operation that can precisely tune the thickness of copper/brass laminate. This novel DWFR technique can easily tune the multilayered copper/brass blocks with controllable layer thickness (from ~250 to ~800 nm). The copper/brass interfaces were well-bonded, and the utilization efficiency of raw materials was very high (>95%).Jiansheng LiZhongchen ZhouTong LiuYu ZhaoYan LuMing ChenXiaozhen WangGang WangQingzhong MaoMDPI AGarticlediffusion weldingforgingrollingcopper/brass blocklayer thicknessEngineering (General). Civil engineering (General)TA1-2040ENCoatings, Vol 11, Iss 1416, p 1416 (2021)
institution DOAJ
collection DOAJ
language EN
topic diffusion welding
forging
rolling
copper/brass block
layer thickness
Engineering (General). Civil engineering (General)
TA1-2040
spellingShingle diffusion welding
forging
rolling
copper/brass block
layer thickness
Engineering (General). Civil engineering (General)
TA1-2040
Jiansheng Li
Zhongchen Zhou
Tong Liu
Yu Zhao
Yan Lu
Ming Chen
Xiaozhen Wang
Gang Wang
Qingzhong Mao
A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block
description Fabricating a dissimilar-metal block with micro/nano-multilayered structures is usually used by engineers and scientists because of their excellent mechanical properties. In the current work, multilayered copper/brass blocks were effectively fabricated by a synthetical DWFR technique, which includes the processes of diffusion welding, forging and rolling. Diffusion welding was used as the first operation to metallurgically bond the copper and brass sheets, with a Zn diffusion transition layer (thickness of ~100 μm), which can guarantee the bonding strength of copper/brass interfaces during the subsequent forging and rolling processes. After diffusion welding, the original copper/brass blocks were required to be forged, with its total thickness reduced to ~10 mm. This can further restrain the delamination of copper and brass layers during the final rolling process. Rolling was utilized as the ideal operation that can precisely tune the thickness of copper/brass laminate. This novel DWFR technique can easily tune the multilayered copper/brass blocks with controllable layer thickness (from ~250 to ~800 nm). The copper/brass interfaces were well-bonded, and the utilization efficiency of raw materials was very high (>95%).
format article
author Jiansheng Li
Zhongchen Zhou
Tong Liu
Yu Zhao
Yan Lu
Ming Chen
Xiaozhen Wang
Gang Wang
Qingzhong Mao
author_facet Jiansheng Li
Zhongchen Zhou
Tong Liu
Yu Zhao
Yan Lu
Ming Chen
Xiaozhen Wang
Gang Wang
Qingzhong Mao
author_sort Jiansheng Li
title A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block
title_short A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block
title_full A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block
title_fullStr A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block
title_full_unstemmed A Novel Technique for Controllable Fabrication of Multilayer Copper/Brass Block
title_sort novel technique for controllable fabrication of multilayer copper/brass block
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/58fe56860912454181d3e40555bead95
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