Crystals · 2018 · 101 citations · 43 references
EngineeringMaterials EngineeringMaterials ScienceElectronic MaterialsMicroelectronicsOptoelectronicsIii-v SemiconductorsPlasma Surface TreatmentSemiconductor InterfacesSemiconductor SurfacesSurface PassivationWide Band Gap SemiconductorsDevice IntegrationElectron MobilityFilm DepositionInterface StatesPassivationPassivation TechniquesSulfur PassivationSurface States
The III-V compound semiconductor, which has the advantage of wide bandgap and high electron mobility, has attracted increasing interest in the optoelectronics and microelectronics field. The poor electronic properties of III-V semiconductor surfaces resulting from a high density of surface/interface states limit III-V device technology development. Various techniques have been applied to improve the surface and interface quality, which cover sulfur-passivation, plasmas-passivation, ultrathin film deposition, and so on. In this paper, recent research of the surface passivation on III-V semiconductors was reviewed and compared. It was shown that several passivation methods can lead to a perfectly clean surface, but only a few methods can be considered for actual device integration due to their effectiveness and simplicity.
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Gang He, Juan Gao, Hanshuang Chen et al. · ACS Applied Materials & Interfaces · 2014 · 202 citations
Christine L. McGuiness, Andrey Shaporenko, Carole K. Mars et al. · Journal of the American Chemical Society · 2006 · 133 citations