The growth and interface magnetic properties of epitaxial Fe films grown on InAs (100)-4 x 2 have been studied using low-energy electron diffraction, in situ magneto-optical Kerr effect, and X-ray magnetic circular dichronism. The magnetic properties at room temperature were found to proceed via three phases with thickness; a nonmagnetic phase, a superparamagnetic phase, and a ferromagnetic phase. The initial ferromagnetic phase might be stabilized by interparticle interactions. The films show bulk-like spin moments of 1.90+/-0.15 mu(B) with the thickness above about 20 ML and a large enhancement similar to 260% of the ratio of orbital versus spin moment in the ultrathin region
Magnetic properties of Fe3Si films with thickness from 2 to 210 monolayers (ML) epitaxially grown on...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
Interface reaction and magnetism of epitaxially-grown Fe on InAs(100) are studied by core-level pho...
The interface magnetic and electronic properties of two Fe/III-V semiconductor systems, namely Fe/Ga...
Thin Fe films have been grown on InAs(100) by molecular beam epitaxy, and studied using in situ magn...
The magnetic moments of ultrathin Fe films on three different III-V semiconductor substrates, namely...
An optimized heterostructure design and an optimized surface sputter-cleaning procedure allow thegro...
Recognising that the characterisation of actual interfaces in magnetic multilayer systems will provi...
The evolution of the uniaxial magnetic anisotropy of ultrathin epitaxial Fe films grown on InAs(100)...
We grew Fe films on GaAs(100) at similar to 80 K to suppress interface alloying and As outdiffusion,...
DoctorWe have investigated magnetic and electronic properties of various Fe-based magnetic thin film...
Epitaxial bcc Fe has been grown on GaAs(100)-(4×6) at room temperature and studied with in situ magn...
We report the experimental results of Fe and Fe3O4 nanostructures on GaAs(100) surfaces and hybrid F...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
Magnetic properties of Fe3Si films with thickness from 2 to 210 monolayers (ML) epitaxially grown on...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
Interface reaction and magnetism of epitaxially-grown Fe on InAs(100) are studied by core-level pho...
The interface magnetic and electronic properties of two Fe/III-V semiconductor systems, namely Fe/Ga...
Thin Fe films have been grown on InAs(100) by molecular beam epitaxy, and studied using in situ magn...
The magnetic moments of ultrathin Fe films on three different III-V semiconductor substrates, namely...
An optimized heterostructure design and an optimized surface sputter-cleaning procedure allow thegro...
Recognising that the characterisation of actual interfaces in magnetic multilayer systems will provi...
The evolution of the uniaxial magnetic anisotropy of ultrathin epitaxial Fe films grown on InAs(100)...
We grew Fe films on GaAs(100) at similar to 80 K to suppress interface alloying and As outdiffusion,...
DoctorWe have investigated magnetic and electronic properties of various Fe-based magnetic thin film...
Epitaxial bcc Fe has been grown on GaAs(100)-(4×6) at room temperature and studied with in situ magn...
We report the experimental results of Fe and Fe3O4 nanostructures on GaAs(100) surfaces and hybrid F...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
Magnetic properties of Fe3Si films with thickness from 2 to 210 monolayers (ML) epitaxially grown on...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...
The electronic, magnetic, and structural properties of Fe thin films epitaxially grown on ZnSe(001) ...