Journal of Applied Physics · 1997 · 35 citations · 37 references
EngineeringSilicon On InsulatorFluoride Buffer LayersSemiconductor NanostructuresMolecular Beam EpitaxyEpitaxial GrowthMaterials ScienceMaterials EngineeringCrystalline DefectsPhysicsSi SubstratesInsb/si StructuresSemiconductor MaterialSemiconductor Device FabricationElectronic MaterialsInsb LayersSurface ScienceApplied PhysicsInsb GrowthThin FilmsOptoelectronics
The molecular beam epitaxy of InSb/Si structures was accomplished using group IIa fluoride buffer layers. InSb growth was initiated by opening the In and Sb shutters simultaneously at substrate temperatures between 300 °C and 400 °C, producing In-terminated InSb(111)-A surfaces on CaF2/Si(111) substrates. Reflection high-energy electron diffraction, electron channeling, and high resolution x-ray diffraction measurements indicated that the InSb layers were of good crystalline quality. Electron mobilities at room temperature were as high as 65 000 cm2/V s for an 8-μm-thick InSb layer grown on CaF2/Si(111). On CaF2/Si(001) substrates, the InSb layers grew in the (111) orientation with two domains 90° apart. These InSb layers and ones grown on BaF2/CaF2/Si(111) substrates exhibited inferior electrical and structural properties compared to structures grown on CaF2/Si(111) substrates.
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Growth of InSb and InAs1−<i>x</i>Sb<i>x</i> on GaAs by molecular beam epitaxy
J.‐I. Chyi, Ş. Kalem, N. S. Kumar et al. · Applied Physics Letters · 1988 · 110 citations
Molecular beam epitaxial growth of CdTe and HgCdTe on Si (100)
R. Sporken, S. Sivananthan, K. K. Mahavadi et al. · Applied Physics Letters · 1989 · 107 citations
Materials Science, Semiconductors, Electrical Engineering +13