Selective-area catalyst-free MBE growth of GaN nanowires using a patterned oxide layer

被引:85
|
作者
Schumann, T. [1 ,2 ,3 ]
Gotschke, T. [1 ,2 ,3 ]
Limbach, F. [1 ,2 ,3 ]
Stoica, T. [1 ]
Calarco, R. [1 ,2 ,3 ]
机构
[1] Res Ctr Julich GmbH, Inst Bio & Nanosyst IBN 1, D-52425 Julich, Germany
[2] Res Ctr Julich GmbH, JARA Fundamentals Future Informat Technol, D-52425 Julich, Germany
[3] Paul Drude Inst Festkorperelekt, D-10117 Berlin, Germany
关键词
MOLECULAR-BEAM EPITAXY; INN NANOWIRES; OPTICAL-PROPERTIES; NANOCOLUMNS; SUBSTRATE; PHOTOLUMINESCENCE; TEMPERATURE; NUCLEATION; DEPENDENCE; MORPHOLOGY;
D O I
10.1088/0957-4484/22/9/095603
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
GaN nanowires (NWs) were grown selectively in holes of a patterned silicon oxide mask, by rf-plasma-assisted molecular beam epitaxy (PAMBE), without any metal catalyst. The oxide was deposited on a thin AlN buffer layer previously grown on a Si(111) substrate. Regular arrays of holes in the oxide layer were obtained using standard e-beam lithography. The selectivity of growth has been studied varying the substrate temperature, gallium beam equivalent pressure and patterning layout. Adjusting the growth parameters, GaN NWs can be selectively grown in the holes of the patterned oxide with complete suppression of the parasitic growth in between the holes. The occupation probability of a hole with a single or multiple NWs depends strongly on its diameter. The selectively grown GaN NWs have one common crystallographic orientation with respect to the Si(111) substrate via the AlN buffer layer, as proven by x-ray diffraction (XRD) measurements. Based on the experimental data, we present a schematic model of the GaN NW formation in which a GaN pedestal is initially grown in the hole.
引用
收藏
页数:6
相关论文
共 50 条
  • [1] Catalyst-free selective-area growth of vertically aligned zinc oxide nanowires
    Ho, Shu-Te
    Wang, Chiu-Yen
    Liu, Hsiang-Lin
    Lin, Heh-Nan
    CHEMICAL PHYSICS LETTERS, 2008, 463 (1-3) : 141 - 144
  • [2] Catalyst-free selective-area MOVPE of semiconductor nanowires
    Motohisa, Junichi
    Fukui, Takashi
    NANOMATERIAL SYNTHESIS AND INTEGRATION FOR SENSORS, ELECTRONICS, PHOTONICS, AND ELECTRO-OPTICS, 2006, 6370
  • [3] Catalyst-free growth of GaAs nanowires by selective-area metalorganic vapor-phase epitaxy
    Noborisaka, J
    Motohisa, J
    Fukui, T
    APPLIED PHYSICS LETTERS, 2005, 86 (21) : 1 - 3
  • [4] Catalyst-free growth of GaN nanowires
    K. A. Bertness
    N. A. Sanford
    J. M. Barker
    J. B. Schlager
    A. Roshko
    A. V. Davydov
    I. Levin
    Journal of Electronic Materials, 2006, 35 : 576 - 580
  • [5] Catalyst-free growth of GaN nanowires
    Bertness, KA
    Sanford, NA
    Barker, JM
    Schlager, JB
    Roshko, A
    Davydov, AV
    Levin, I
    JOURNAL OF ELECTRONIC MATERIALS, 2006, 35 (04) : 576 - 580
  • [6] Influences of Mask Materials in Selective-Area RF-MBE Growth for GaN Nanowires
    Tamaki, Naoto
    Sonoda, Akihito
    Onodera, Aya
    Motohisa, Junichi
    2016 COMPOUND SEMICONDUCTOR WEEK (CSW) INCLUDES 28TH INTERNATIONAL CONFERENCE ON INDIUM PHOSPHIDE & RELATED MATERIALS (IPRM) & 43RD INTERNATIONAL SYMPOSIUM ON COMPOUND SEMICONDUCTORS (ISCS), 2016,
  • [7] Metalorganic chemical vapor deposition of GaN nanowires: From catalyst-assisted to catalyst-free growth, and from self-assembled to selective-area growth
    Alloing, Blandine
    Zuniga-Perez, Jesus
    MATERIALS SCIENCE IN SEMICONDUCTOR PROCESSING, 2016, 55 : 51 - 58
  • [8] Catalyst-free growth of semiconductor nanowires by selective area MOVPE
    Motohisa, J
    Noborisaka, F
    Hara, S
    Inari, M
    Fukui, T
    PHYSICS OF SEMICONDUCTORS, PTS A AND B, 2005, 772 : 877 - 878
  • [9] Catalyst-free selective-area MOVPE of semiconductor nanowires on (111)B oriented substrates
    Motohisa, J
    Noborisaka, J
    Takeda, J
    Inari, M
    Fukui, T
    JOURNAL OF CRYSTAL GROWTH, 2004, 272 (1-4) : 180 - 185
  • [10] Catalyst-Free GaN Nanorods Synthesized by Selective Area Growth
    Lin, Yen-Ting
    Yeh, Ting-Wei
    Nakajima, Yoshitake
    Dapkus, P. Daniel
    ADVANCED FUNCTIONAL MATERIALS, 2014, 24 (21) : 3162 - 3171