The problem of preparing high-mobility thin InSb films is revisited for magnetoresistive and spintronic sensor applications. We introduce a growth process that significantly improves the electrical properties of thin unintentionally doped InSb layers (60-300 nm) epitaxially grown on GaAs(100) substrates by reducing the density of dislocations within the interfacial layer. The epilayer properties are well described by a differential two-layer model. This model confirms that the contribution of the interface can only be donor-like. Moreover, the electrical properties of the InSb layers change continuously away from the interface up to sample thickness of the order of 1 mum.</p
The electron effective mass is smaller in InSb than in any other III-V semiconductor. Since the elec...
Molecular beam epitaxy growth for InSb1-xBix thin films on (100) GaAs substrates is reported. Succes...
Indium antimonide (InSb) is a competitive semiconductor for the applications in high electron mobil...
Epitaxial layers of InSb have been grown in InP and GaAs substrates by molecular‐beam epitaxy. The d...
The growth of epitaxial InSb layers on highly lattice-mismatched semi-insulating GaAs substrates has...
The spin relaxation in undoped InSb films grown on GaAs has been investigated in the temperature ran...
The spin relaxation in undoped InSb films grown on GaAs has been investigated in the temperature ran...
Described in this thesis are the molecular beam epitaxial growth and characterization of InSb on GaA...
We report a fully relaxed low threading dislocation density InSb layer grown on a GaAs substrate usi...
The growth of epitaxial InSb layers on highly lattice mismatched GaAs substrates has been successful...
Spectroscopic ellipsometry was used to investigate the optical properties of an InSb film grown on a...
We have investigated the evolution of structural and electronic properties of highly mismatched InSb...
We report the growth of InSb on GaAs using InAlSb buffers of high interest for magnetic field sensor...
This paper reports a surface and interface study of indium antimonide epitaxially grown on gallium a...
We report the growth of InSb on GaAs using InAlSb buffers of high interest for magnetic field sensor...
The electron effective mass is smaller in InSb than in any other III-V semiconductor. Since the elec...
Molecular beam epitaxy growth for InSb1-xBix thin films on (100) GaAs substrates is reported. Succes...
Indium antimonide (InSb) is a competitive semiconductor for the applications in high electron mobil...
Epitaxial layers of InSb have been grown in InP and GaAs substrates by molecular‐beam epitaxy. The d...
The growth of epitaxial InSb layers on highly lattice-mismatched semi-insulating GaAs substrates has...
The spin relaxation in undoped InSb films grown on GaAs has been investigated in the temperature ran...
The spin relaxation in undoped InSb films grown on GaAs has been investigated in the temperature ran...
Described in this thesis are the molecular beam epitaxial growth and characterization of InSb on GaA...
We report a fully relaxed low threading dislocation density InSb layer grown on a GaAs substrate usi...
The growth of epitaxial InSb layers on highly lattice mismatched GaAs substrates has been successful...
Spectroscopic ellipsometry was used to investigate the optical properties of an InSb film grown on a...
We have investigated the evolution of structural and electronic properties of highly mismatched InSb...
We report the growth of InSb on GaAs using InAlSb buffers of high interest for magnetic field sensor...
This paper reports a surface and interface study of indium antimonide epitaxially grown on gallium a...
We report the growth of InSb on GaAs using InAlSb buffers of high interest for magnetic field sensor...
The electron effective mass is smaller in InSb than in any other III-V semiconductor. Since the elec...
Molecular beam epitaxy growth for InSb1-xBix thin films on (100) GaAs substrates is reported. Succes...
Indium antimonide (InSb) is a competitive semiconductor for the applications in high electron mobil...