Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropyspectrum for a particular model of the GaAs(001) c(4×4) reconstructedsurface. Excellent agreement with experiment was obtained, supporting the chosen model. The reflectance anisotropy was found to originate from optical transitions between bulk like valence band states and surface states in the conduction band. The nature and distribution of the electronic states involved is discusse
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropysp...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropysp...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropysp...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
The optical properties of the GaAs(110) surface are studied by means of self-consistent local-densit...
By a combination of theoretical calculations and experiments, we have investigated the GaAs(001) sur...
We have performed ab initio pseudopotential calculations of three alternative structures of the GaAs...
We have performed ab initio pseudopotential calculations of three alternative structures of the GaAs...
We have performed ab initio pseudopotential calculations of three alternative structures of the GaAs...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropysp...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropysp...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropysp...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
Using an ab initio, nonlocal pseudopotential method, we have calculated the reflectance anisotropy o...
The optical properties of the GaAs(110) surface are studied by means of self-consistent local-densit...
By a combination of theoretical calculations and experiments, we have investigated the GaAs(001) sur...
We have performed ab initio pseudopotential calculations of three alternative structures of the GaAs...
We have performed ab initio pseudopotential calculations of three alternative structures of the GaAs...
We have performed ab initio pseudopotential calculations of three alternative structures of the GaAs...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...