• DocumentCode
    2941356
  • Title

    Quantum wires and quantum dots grown on nonplanar substrates

  • Author

    Kapon, Eli

  • Author_Institution
    Dept. of Phys., Swiss Fed. Inst. of Technol., Lausanne, Switzerland
  • fYear
    2000
  • fDate
    10-15 Sept. 2000
  • Abstract
    Summary form only given. Epitaxial growth on nonplanar substrates provides a powerful approach for producing high quality laterally-confined semiconductor nanostructures. In this technique, nonplanar surface features prepared using lithography serve as seeds for the formation of self-limiting nonplanar profiles, whose details depend only on the growth parameters. Lower bandgap layers deposited on these nonplanar, self-limiting surfaces can then yield a variety of laterally-confined structures such as quantum wires, quantum dots, vertical quantum wells and vertical quantum wires. This talk reviews recent progress achieved with such nanostructures grown by organometallic chemical vapor deposition, including the understanding of the self-ordering process involved, their electronic and optical properties, and their applications in optoelectronic devices.
  • Keywords
    MOCVD; excitons; light emitting diodes; quantum confined Stark effect; quantum well devices; quantum well lasers; semiconductor epitaxial layers; semiconductor growth; semiconductor quantum dots; semiconductor quantum wells; semiconductor quantum wires; two-dimensional electron gas; vapour phase epitaxial growth; 2DEG; V-groove wires; electronic properties; epitaxial growth; exciton localization; growth parameters; laterally-confined semiconductor nanostructures; lower bandgap layers; nonplanar substrates; optical properties; optoelectronic device applications; organometallic chemical vapor deposition; quantum confined Stark effect; quantum contact resistance; quantum dots; quantum wires; self-limiting nonplanar profiles; self-ordering process; vertical quantum wells; vertical quantum wires; Chemical vapor deposition; Epitaxial growth; Lithography; Optical devices; Optoelectronic devices; Photonic band gap; Quantum dots; Semiconductor nanostructures; Substrates; Wires;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Quantum Electronics Conference, 2000. Conference Digest. 2000 International
  • Conference_Location
    Nice, France
  • Print_ISBN
    0-7803-6318-3
  • Type

    conf

  • DOI
    10.1109/IQEC.2000.908122
  • Filename
    908122