We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a complete microscopic treatment of both surface and bulk, which is feasible in the discrete cellular method. This method is an extension of standard discrete dipole calculations and accounts for non-locality in the electro-dynamical and quantum-mechanical interactions through the use of both real space local fields and ab-initio nonlocal polarizabilities. The results of our calculations are in excellent agreement with experiment and we show that the anisotropy is surface induced
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...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a co...
We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a co...
We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a co...
We have calculated the reflectance anisotropy for the GaAs (110) surface using the discrete cellular...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
A method for the calculation of the surface local-field effect on reflectance has been developed. It...
We have calculated the reflectance anisotropy for the GaAs (110) surface using the discrete cellular...
The optical properties of the GaAs(110) surface are studied by means of self-consistent local-densit...
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...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...
We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a co...
We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a co...
We demonstrate that the description of the optical reflectance anisotropy of GaAs(110) requires a co...
We have calculated the reflectance anisotropy for the GaAs (110) surface using the discrete cellular...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
A method for the calculation of the surface local-field effect on reflectance has been developed. It...
We have calculated the reflectance anisotropy for the GaAs (110) surface using the discrete cellular...
The optical properties of the GaAs(110) surface are studied by means of self-consistent local-densit...
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...
The optical properties of GaAs(110) and GaP(110) surfaces are studied by means of self-consistent lo...