Comparison of Epitaxial Growth Techniques for III-V Layer Structures

Abstract

Epitaxial processes are essential for the growth of III/V alloy semiconductors for electronic and photonic devices. For the growth of elaborately structured materials such as heterojunctions, quantum wells, and superlattices for the fabrication of the most advanced electronic and photonic devices, in particular, vapor phase growth processes have become standard. This paper will deal specifically with the epitaxial (mainly vapor phase) growth of III/V semiconductor materials. The approach taken here is somewhat non-traditional due to the recent hybridization of both precursor molecules and growth techniques. The distinctions between the various growth techniques are traditionally based on the nature of the precursor molecules. Chloride VPE uses chloride group III and and group V molecules and hydride VPE uses hydride group V precursors, while organometallic vapor phase epitaxy uses organometallic group III precursors and either hydride or organometallic group V precursors. Recently, we have developed group III precursors with both organic and Cl radicals on the same molecule. Similarly, group V precursors containing both organic and H radicals have been developed. Thus, it is unclear whether the techniques using such molecules should be called organometallic, chloride, or hydride VPE.

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Document Details

Document Type
Technical Report
Publication Date
May 22, 1992
Accession Number
ADA251343

Entities

People

  • G. B. Stringfellow

Organizations

  • University of Utah

Tags

Communities of Interest

  • Advanced Electronics
  • C4I

DTIC Thesaurus Topics

  • Crystal Growth
  • Electron Gas
  • Electron Mobility
  • Electronics Laboratories
  • Electrons
  • Engineering
  • Epitaxial Growth
  • Liquid Phase Epitaxy
  • Materials
  • Materials Science
  • Military Research
  • Quantum Wells
  • Semiconductors
  • Solid State Physics
  • Two Dimensional
  • Vapor Phases
  • Vapor Pressure

Fields of Study

  • Materials science

Readers

  • Electrochemical Engineering/ Fuel Cell Technologies
  • Nanocomposite Materials Science
  • Semiconductor Device Technology

Technology Areas

  • Microelectronics
  • Microelectronics - Graphene
  • Quantum Computing