Moving Beyond Scotch Tape: Scalable Transfer of Research-Grade CVD Graphene

While scalable graphene synthesis by chemical vapor deposition (CVD) has been in widespread use since 2008, fundamental research requiring consistently high quality continues to rely upon exfoliated graphene. Here we use evaporated Ni to transfer ultrahigh-quality CVD graphene from Cu(111) as continuous films or arrays of predefined shapes. By careful control over the evaporation conditions, we avoid damage to the graphene, preserving intrinsic quality. The dry transfer process minimizes strain and doping. After hBN encapsulation, the CVD-grown graphene shows low-temperature magnetotransport behavior on par with the best exfoliated graphene devices. The CVD-grown graphene can be stacked to create magic-angle twisted bilayer graphene with low twist disorder. These results demonstrate that CVD-grown graphene can replace exfoliated flakes for even the most demanding applications.

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Publication Details

Journal
Nano Letters
Published
2025-10-20
DOI
https://doi.org/10.1021/acs.nanolett.5c03305
Citations
3
Primary Topic
Graphene research and applications
Type
article
Field-Weighted Citation Impact
1.55
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article

Moving Beyond Scotch Tape: Scalable Transfer of Research-Grade CVD Graphene

James Hone, Ariane Marchese, Jacob Amontree, Takashi Taniguchi et al.
3 citations
Nano Letters
Graphene research and applications
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article

Moving Beyond Scotch Tape: Scalable Transfer of Research-Grade CVD Graphene

James Hone, Ariane Marchese, Jacob Amontree, Takashi Taniguchi, Kristopher O. Davis, Kenji Watanabe, Cory R. Dean, Xingzhou Yan, Birui Yang, Jordan Pack, Theodore Chung, Youry Borisenkov
article en
3 citations

Abstract

While scalable graphene synthesis by chemical vapor deposition (CVD) has been in widespread use since 2008, fundamental research requiring consistently high quality continues to rely upon exfoliated graphene. Here we use evaporated Ni to transfer ultrahigh-quality CVD graphene from Cu(111) as continuous films or arrays of predefined shapes. By careful control over the evaporation conditions, we avoid damage to the graphene, preserving intrinsic quality. The dry transfer process minimizes strain and doping. After hBN encapsulation, the CVD-grown graphene shows low-temperature magnetotransport behavior on par with the best exfoliated graphene devices. The CVD-grown graphene can be stacked to create magic-angle twisted bilayer graphene with low twist disorder. These results demonstrate that CVD-grown graphene can replace exfoliated flakes for even the most demanding applications.

Nano LettersVol. 25(43)
Howard University (US), National Institute for Materials Science (JP), Optica (US), Columbia University (US)
Openalex Percentile: Top 16%
Graphene research and applications
1.55
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