Wu, H. C., Chaika, A. N., Hsu, M. C., Huang, T. W., Abid, M., Abid, M., Aristov, V. Y., Molodtsova, O. V., Babenkov, S. V., Niu, Y., Murphy, B. E., Krasnikov, S. A., Lübben, O., Liu, H., Chun, B. S., Janabi, Y. T., Molotkov, S. N., Shvets, I. V., Lichtenstein, A. I., ... Chang, C. R. (2017). Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene. Nature Communications, 8, Article 14453. https://doi.org/10.1038/ncomms14453
Wu, Han Chun ; Chaika, Alexander N. ; Hsu, Ming Chien et al. / Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene. In: Nature Communications. 2017 ; Vol. 8.
@article{0bde75ec42fc4c3caf117f4e3841c604,
title = "Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene",
abstract = "Graphene supports long spin lifetimes and long diffusion lengths at room temperature, making it highly promising for spintronics. However, making graphene magnetic remains a principal challenge despite the many proposed solutions. Among these, graphene with zig-zag edges and ripples are the most promising candidates, as zig-zag edges are predicted to host spin-polarized electronic states, and spin-orbit coupling can be induced by ripples. Here we investigate the magnetoresistance of graphene grown on technologically relevant SiC/Si(001) wafers, where inherent nanodomain boundaries sandwich zig-zag structures between adjacent ripples of large curvature. Localized states at the nanodomain boundaries result in an unprecedented positive in-plane magnetoresistance with a strong temperature dependence. Our work may offer a tantalizing way to add the spin degree of freedom to graphene.",
author = "Wu, {Han Chun} and Chaika, {Alexander N.} and Hsu, {Ming Chien} and Huang, {Tsung Wei} and Mourad Abid and Mohamed Abid and Aristov, {Victor Yu} and Molodtsova, {Olga V.} and Babenkov, {Sergey V.} and Yuran Niu and Murphy, {Barry E.} and Krasnikov, {Sergey A.} and Olaf L{\"u}bben and Huajun Liu and Chun, {Byong Sun} and Janabi, {Yahya T.} and Molotkov, {Sergei N.} and Shvets, {Igor V.} and Lichtenstein, {Alexander I.} and Katsnelson, {Mikhail I.} and Chang, {Ching Ray}",
note = "Publisher Copyright: {\textcopyright} The Author(s) 2017.",
year = "2017",
month = feb,
day = "15",
doi = "10.1038/ncomms14453",
language = "English",
volume = "8",
journal = "Nature Communications",
issn = "2041-1723",
publisher = "Nature Publishing Group",
}
Wu, HC, Chaika, AN, Hsu, MC, Huang, TW, Abid, M, Abid, M, Aristov, VY, Molodtsova, OV, Babenkov, SV, Niu, Y, Murphy, BE, Krasnikov, SA, Lübben, O, Liu, H, Chun, BS, Janabi, YT, Molotkov, SN, Shvets, IV, Lichtenstein, AI, Katsnelson, MI & Chang, CR 2017, 'Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene', Nature Communications, vol. 8, 14453. https://doi.org/10.1038/ncomms14453
Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene. /
Wu, Han Chun; Chaika, Alexander N.; Hsu, Ming Chien et al.
In:
Nature Communications, Vol. 8, 14453, 15.02.2017.
Research output: Contribution to journal › Article › peer-review
TY - JOUR
T1 - Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene
AU - Wu, Han Chun
AU - Chaika, Alexander N.
AU - Hsu, Ming Chien
AU - Huang, Tsung Wei
AU - Abid, Mourad
AU - Abid, Mohamed
AU - Aristov, Victor Yu
AU - Molodtsova, Olga V.
AU - Babenkov, Sergey V.
AU - Niu, Yuran
AU - Murphy, Barry E.
AU - Krasnikov, Sergey A.
AU - Lübben, Olaf
AU - Liu, Huajun
AU - Chun, Byong Sun
AU - Janabi, Yahya T.
AU - Molotkov, Sergei N.
AU - Shvets, Igor V.
AU - Lichtenstein, Alexander I.
AU - Katsnelson, Mikhail I.
AU - Chang, Ching Ray
N1 - Publisher Copyright:
© The Author(s) 2017.
PY - 2017/2/15
Y1 - 2017/2/15
N2 - Graphene supports long spin lifetimes and long diffusion lengths at room temperature, making it highly promising for spintronics. However, making graphene magnetic remains a principal challenge despite the many proposed solutions. Among these, graphene with zig-zag edges and ripples are the most promising candidates, as zig-zag edges are predicted to host spin-polarized electronic states, and spin-orbit coupling can be induced by ripples. Here we investigate the magnetoresistance of graphene grown on technologically relevant SiC/Si(001) wafers, where inherent nanodomain boundaries sandwich zig-zag structures between adjacent ripples of large curvature. Localized states at the nanodomain boundaries result in an unprecedented positive in-plane magnetoresistance with a strong temperature dependence. Our work may offer a tantalizing way to add the spin degree of freedom to graphene.
AB - Graphene supports long spin lifetimes and long diffusion lengths at room temperature, making it highly promising for spintronics. However, making graphene magnetic remains a principal challenge despite the many proposed solutions. Among these, graphene with zig-zag edges and ripples are the most promising candidates, as zig-zag edges are predicted to host spin-polarized electronic states, and spin-orbit coupling can be induced by ripples. Here we investigate the magnetoresistance of graphene grown on technologically relevant SiC/Si(001) wafers, where inherent nanodomain boundaries sandwich zig-zag structures between adjacent ripples of large curvature. Localized states at the nanodomain boundaries result in an unprecedented positive in-plane magnetoresistance with a strong temperature dependence. Our work may offer a tantalizing way to add the spin degree of freedom to graphene.
UR - http://www.scopus.com/inward/record.url?scp=85012928733&partnerID=8YFLogxK
U2 - 10.1038/ncomms14453
DO - 10.1038/ncomms14453
M3 - Article
C2 - 28198379
AN - SCOPUS:85012928733
SN - 2041-1723
VL - 8
JO - Nature Communications
JF - Nature Communications
M1 - 14453
ER -
Wu HC, Chaika AN, Hsu MC, Huang TW, Abid M, Abid M et al. Large positive in-plane magnetoresistance induced by localized states at nanodomain boundaries in graphene. Nature Communications. 2017 Feb 15;8:14453. doi: 10.1038/ncomms14453
