Ki Ha Hong

Summary

Affiliation: Sungkyunkwan University School of Medicine
Country: Korea

Publications

  1. doi Strain-driven electronic band structure modulation of si nanowires
    Ki Ha Hong
    Samsung Advanced Institute of Technology, Mt 14 1, Nongseo Dong, Giheung gu, Yongin si, Gyeonggi Do, 446 712, Korea
    Nano Lett 8:1335-40. 2008
  2. doi Asymmetric doping in silicon nanostructures: the impact of surface dangling bonds
    Ki Ha Hong
    Samsung Advanced Institute of Technology, Mt 14, Gyeonggi Do, Korea
    Nano Lett 10:1671-6. 2010
  3. ncbi Surface Ferromagnetic p-Type ZnO Nanowires through Charge Transfer Doping
    Sung Hoon Lee
    Samsung Advanced Institute of Technology, Yongin 446 712, Korea
    ACS Appl Mater Interfaces 4:1365-70. 2012

Collaborators

  • Sung Hoon Lee
  • KiNam Kim
  • Jaikwang Shin
  • Sungjin Kim
  • Jongseob Kim

Detail Information

Publications3

  1. doi Strain-driven electronic band structure modulation of si nanowires
    Ki Ha Hong
    Samsung Advanced Institute of Technology, Mt 14 1, Nongseo Dong, Giheung gu, Yongin si, Gyeonggi Do, 446 712, Korea
    Nano Lett 8:1335-40. 2008
    ..We discuss the origin of this strain dependence based on the band features of bulk silicon and the wave functions of SiNWs. These results could be helpful for band structure engineering and analysis of SiNWs in nanoscale devices...
  2. doi Asymmetric doping in silicon nanostructures: the impact of surface dangling bonds
    Ki Ha Hong
    Samsung Advanced Institute of Technology, Mt 14, Gyeonggi Do, Korea
    Nano Lett 10:1671-6. 2010
    ..On the basis of our results, we show that the control of the growth direction of silicon nanowire as well as surface passivation is very important in preventing dopant deactivation...
  3. ncbi Surface Ferromagnetic p-Type ZnO Nanowires through Charge Transfer Doping
    Sung Hoon Lee
    Samsung Advanced Institute of Technology, Yongin 446 712, Korea
    ACS Appl Mater Interfaces 4:1365-70. 2012
    ..The present results suggest that postgrowth engineering of surface states has high potential in manipulating ZnO nanostructures useful for both electronics and spintronics...