Author
Listed:
- Muhong Wu
(Peking University
Peking University
Chinese Academy of Sciences)
- Zhibin Zhang
(Peking University)
- Xiaozhi Xu
(South China Normal University)
- Zhihong Zhang
(Peking University)
- Yunrui Duan
(Institute for Basic Science
Shandong University)
- Jichen Dong
(Institute for Basic Science)
- Ruixi Qiao
(Peking University)
- Sifan You
(Peking University)
- Li Wang
(Peking University
Chinese Academy of Sciences)
- Jiajie Qi
(Peking University)
- Dingxin Zou
(Southern University of Science and Technology)
- Nianze Shang
(Peking University)
- Yubo Yang
(Beijing University of Technology)
- Hui Li
(Shandong University)
- Lan Zhu
(Peking Union Medical College Hospital)
- Junliang Sun
(Peking University)
- Haijun Yu
(Beijing University of Technology)
- Peng Gao
(Peking University)
- Xuedong Bai
(Chinese Academy of Sciences)
- Ying Jiang
(Peking University
Huairou National Comprehensive Science Centre)
- Zhu-Jun Wang
(Eidgenössische Technische Hochschule Zürich)
- Feng Ding
(Institute for Basic Science
Ulsan National Institute of Science and Technology)
- Dapeng Yu
(Southern University of Science and Technology)
- Enge Wang
(Peking University
Chinese Academy of Sciences
Liaoning University)
- Kaihui Liu
(Peking University
Peking University)
Abstract
The production of large single-crystal metal foils with various facet indices has long been a pursuit in materials science owing to their potential applications in crystal epitaxy, catalysis, electronics and thermal engineering1–5. For a given metal, there are only three sets of low-index facets ({100}, {110} and {111}). In comparison, high-index facets are in principle infinite and could afford richer surface structures and properties. However, the controlled preparation of single-crystal foils with high-index facets is challenging, because they are neither thermodynamically6,7 nor kinetically3 favourable compared to low-index facets6–18. Here we report a seeded growth technique for building a library of single-crystal copper foils with sizes of about 30 × 20 square centimetres and more than 30 kinds of facet. A mild pre-oxidation of polycrystalline copper foils, followed by annealing in a reducing atmosphere, leads to the growth of high-index copper facets that cover almost the entire foil and have the potential of growing to lengths of several metres. The creation of oxide surface layers on our foils means that surface energy minimization is not a key determinant of facet selection for growth, as is usually the case. Instead, facet selection is dictated randomly by the facet of the largest grain (irrespective of its surface energy), which consumes smaller grains and eliminates grain boundaries. Our high-index foils can be used as seeds for the growth of other Cu foils along either the in-plane or the out-of-plane direction. We show that this technique is also applicable to the growth of high-index single-crystal nickel foils, and we explore the possibility of using our high-index copper foils as substrates for the epitaxial growth of two-dimensional materials. Other applications are expected in selective catalysis, low-impedance electrical conduction and heat dissipation.
Suggested Citation
Muhong Wu & Zhibin Zhang & Xiaozhi Xu & Zhihong Zhang & Yunrui Duan & Jichen Dong & Ruixi Qiao & Sifan You & Li Wang & Jiajie Qi & Dingxin Zou & Nianze Shang & Yubo Yang & Hui Li & Lan Zhu & Junliang , 2020.
"Seeded growth of large single-crystal copper foils with high-index facets,"
Nature, Nature, vol. 581(7809), pages 406-410, May.
Handle:
RePEc:nat:nature:v:581:y:2020:i:7809:d:10.1038_s41586-020-2298-5
DOI: 10.1038/s41586-020-2298-5
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Cited by:
- Taewoo Ha & Yu-Seong Seo & Teun-Teun Kim & Bipin Lamichhane & Young-Hoon Kim & Su Jae Kim & Yousil Lee & Jong Chan Kim & Sang Eon Park & Kyung Ik Sim & Jae Hoon Kim & Yong In Kim & Seon Je Kim & Hu Yo, 2023.
"Coherent consolidation of trillions of nucleations for mono-atom step-level flat surfaces,"
Nature Communications, Nature, vol. 14(1), pages 1-9, December.
- Di Zhang & Peiyun Yi & Xinmin Lai & Linfa Peng & Hao Li, 2024.
"Active machine learning model for the dynamic simulation and growth mechanisms of carbon on metal surface,"
Nature Communications, Nature, vol. 15(1), pages 1-10, December.
- Xin Li & Guilin Wu & Leining Zhang & Deping Huang & Yunqing Li & Ruiqi Zhang & Meng Li & Lin Zhu & Jing Guo & Tianlin Huang & Jun Shen & Xingzhan Wei & Ka Man Yu & Jichen Dong & Michael S. Altman & Ro, 2022.
"Single-crystal two-dimensional material epitaxy on tailored non-single-crystal substrates,"
Nature Communications, Nature, vol. 13(1), pages 1-8, December.
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