期刊文献+

Manipulation of Crawling Growth for the Formation of Sub-millimeter Long ZnO Nanowalls

Manipulation of Crawling Growth for the Formation of Sub-millimeter Long ZnO Nanowalls
下载PDF
导出
摘要 Vapor-phase growth of ZnO nanowires based on gold catalyst is usually accompanied with lateral crawling growth on the substrate surface. We present results from our systematic experiments where the growth temperature and catalyst size are controlled. The data corroborate that it is possible to obtain clean vertical nanowire arrays while avoiding the crawling growth. 0% the other hand, crawling growth can be manipulated to obtain root-interconnected nanowire arrays, which could be useful for certain applications. Our results also imply that the previously suggested growth mechanism for the wire-on-wall hybridstructure might be incorrect. Finally, we show the formation of sub-millimeter long, straight ZnO nanowalls by combining a gold-catalyzed epitaxial growth of vertical nanowires and their mergence due to a confined crawling growth. These unconventional nanostructures might have unique electric or optical transport properties. Vapor-phase growth of ZnO nanowires based on gold catalyst is usually accompanied with lateral crawling growth on the substrate surface. We present results from our systematic experiments where the growth temperature and catalyst size are controlled. The data corroborate that it is possible to obtain clean vertical nanowire arrays while avoiding the crawling growth. 0% the other hand, crawling growth can be manipulated to obtain root-interconnected nanowire arrays, which could be useful for certain applications. Our results also imply that the previously suggested growth mechanism for the wire-on-wall hybridstructure might be incorrect. Finally, we show the formation of sub-millimeter long, straight ZnO nanowalls by combining a gold-catalyzed epitaxial growth of vertical nanowires and their mergence due to a confined crawling growth. These unconventional nanostructures might have unique electric or optical transport properties.
出处 《Journal of Materials Science & Technology》 SCIE EI CAS CSCD 2008年第4期589-593,共5页 材料科学技术(英文版)
关键词 NANOWIRE Nanowall ZNO Crawling growth Nanowire Nanowall ZnO Crawling growth
  • 相关文献

参考文献19

  • 1[1]H.J.Fan,P.Werner and M.Zacharias:Small,2006,2,700.
  • 2[2]S.M.Yang,S.G.Jang,D.G.Choi,S.Kim and H.K.Yu:Small,2006,2,458.
  • 3[3]H.J.Fan,B.Fuhrmann,R.Scholz,F.Syrowatka,A.Dadgar,A.Krost and M.Zacharias:J.Cryst.Growth,2006,287,34.
  • 4[4]H.J.Fan,B.Fuhrmann,R.Scholz,C.Himcinschi,A.Berger,H.Leipner,A.Dadgar,A.Krost,S.Christiansen,U.Gosele and M.Zacharias:Nanotechnology,2006,17,S231.
  • 5[5]X.Wang,C.J.Summers and Z.L.Wang:Nano Lett.,2004,4,423.
  • 6[6]D.Banerjee,J.Rybczynski,J.Y.Huang,D.Z.Wang,D.Dempa and Z.F.Ren:Appl.Phys.A,2005,80,749.
  • 7[7]H.J.Fan,R.Seholz,M.Zacharias,U.Gosele,F.Bertram,D.Forster and J.Christen:Appl.Phys.Lett.,2005,86,023113.
  • 8[8]I.Levin,A.Davydov,B.Nikoobakht,N.Sanford and P.Mogilevsky:Appl.Phys.Lett.,2005,87,103110.
  • 9[9]H.J.Fan,R.Scholz,F.M.Kolb,M.Zacharias,U.Gosele,F.Heyroth,C.Eisenschmidt,T.Hempel and J.Christen:Appl.Phys.A,2004,79,1895.
  • 10[10]Z.Tang,Z.Zhang,Y.Wang,S.C.Glotzer and N.A.Kotov:Science,2006,314,274.

相关作者

内容加载中请稍等...

相关机构

内容加载中请稍等...

相关主题

内容加载中请稍等...

浏览历史

内容加载中请稍等...
;
使用帮助 返回顶部