Asymmetric 3D Elastic–Plastic Strain‐Modulated Electron Energy Structure in Monolayer Graphene by Laser Shocking

Graphene has a great potential to replace silicon in prospective semiconductor industries due to its outstanding electronic and transport properties; nonetheless, its lack of energy bandgap is a substantial limitation for practical applications. To date, straining graphene to break its lattice symme...

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Veröffentlicht in:Advanced materials (Weinheim) 2019-05, Vol.31 (19), p.e1900597-n/a
Hauptverfasser: Motlag, Maithilee, Kumar, Prashant, Hu, Kevin Y., Jin, Shengyu, Li, Ji, Shao, Jiayi, Yi, Xuan, Lin, Yen‐Hsiang, Walrath, Jenna C., Tong, Lei, Huang, Xinyu, Goldman, Rachel S., Ye, Lei, Cheng, Gary J.
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Sprache:eng
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Zusammenfassung:Graphene has a great potential to replace silicon in prospective semiconductor industries due to its outstanding electronic and transport properties; nonetheless, its lack of energy bandgap is a substantial limitation for practical applications. To date, straining graphene to break its lattice symmetry is perhaps the most efficient approach toward realizing bandgap tunability in graphene. However, due to the weak lattice deformation induced by uniaxial or in‐plane shear strain, most strained graphene studies have yielded bandgaps
ISSN:0935-9648
1521-4095
DOI:10.1002/adma.201900597