• Title of article

    Fabrication of well ordered Zn nanorod arrays by ion irradiation method at room temperature and effect on crystal orientations

  • Author/Authors

    Masaki Kutsuna، نويسنده , , Pradip Ghosh، نويسنده , , Masato Kudo، نويسنده , , Masaki Tanemura، نويسنده , , Yasuhiko Hayashi، نويسنده ,

  • Issue Information
    روزنامه با شماره پیاپی سال 2009
  • Pages
    5
  • From page
    1481
  • To page
    1485
  • Abstract
    Highly oriented and densely packed one-dimensional (1D) polycrystalline Zn nanorods were fabricated on zinc plate without any catalyst at room temperature by bombardment with obliquely incident Ar+ ion via ion irradiation method. The sputtered surfaces were fully covered with Zn nanostructures with diameter and the length around 60 nm and 1.3 μm, respectively, confirmed by scanning electron microscopy (SEM) and transmission electron microscopy (TEM). The crystal orientation of the Zn plate was investigated by electron back scattering pattern method (EBSP). The numerical density and morphology of Zn nanostructures (nanoneedle or nanorods) were found to be 2.1 × 106 to 9 × 106/mm2 depending upon the crystal orientation and the atomic density on different crystallographic faces. (image) faces of Zn polycrystal tended to form more dense nanostructures compared to (image) faces. This is because of lower atomic density on (image) faces in comparison with (image) faces. This indicates that lower atomic density on any crystallographic faces is favorable to form nanostructure of higher density. The outstanding feature of this growth technique is that it provides a new direction for the controllable growth of desired nanostructures of variable density at room temperature without any catalyst. These well-aligned arrays of Zn nanorods/nanoneedle might be a promising material for the future application in nanodevices.
  • Keywords
    Zn nanostructures , Ion beam sputtering , Electron back scattering pattern
  • Journal title
    Applied Surface Science
  • Serial Year
    2009
  • Journal title
    Applied Surface Science
  • Record number

    1011657