Towards Graphene Nanoribbon-based Electronics

A. Bostwick; A. Cresti; A. Dato; A. H. Castro Neto; A. J. M. Giesbers; A. Javey; A. K. Geim; A. Reina; A. Rycerz; B. Huang; Bing Huang; C. Berger; C. H. Park; C. L. Kane; C. W. J. Beenakker; D. A. Abanin; D. A. Areshkin; D. A. Areshkin; E. J. Kan; E. Rudberg; F. Schedin; G. Li; G. Liang; H. Duan; I. Meric; J. R. Williams; J. T. Robinson; K. S. Kim; K. S. Novoselov; K. S. Novoselov; K. S. Novoselov; K. S. Novoselov; K. Todd; K. Wakabayashi; L. Tapasztó; M. I. Katsnelson; M. I. Katsnelson; O. Hod; P. Avouris; P. W. Sutter; Q. Yan; Qi-min Yan; R. V. Gorbachev; S. Dutta; S. S. Datta; S. Y. Zhou; T. O. Wehling; T. Ohta; V. Barone; V. C. Tung; W. Y. Kim; Wen-hui Duan; X. Fan; X. Li; X. Liang; Y. Hernandez; Y. Miyamoto; Y. W. Son; Y. Zhang; Z. Chen; Z. Q. Li; Zuan-yi Li

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Towards Graphene Nanoribbon-based Electronics

Abstract

The successful fabrication of single layer graphene has greatly stimulated the progress of the research on graphene. In this article, focusing on the basic electronic and transport properties of graphene nanoribbons (GNRs), we review the recent progress of experimental fabrication of GNRs, and the theoretical and experimental investigations of physical properties and device applications of GNRs. We also briefly discuss the research efforts on the spin polarization of GNRs in relation to the edge states.Comment: 9pages,10figure

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Last time updated on 11/12/2019