Spectral reflectance of GaAs from infrared (IR) to ultra-violet (UV) bands is predicted using ab initio calculations. We first predict the spectral dielectric function. Two major mechanisms exist for different photon wavelength, namely, photon-electron coupling in the UV to near-IR region and photon-phonon coupling in the far-IR region. For the near-IR to UV band, the electronic band structure of GaAs is calculated, and the imaginary part of the dielectric function is determined from the band structure using the Fermi\u27s golden rule. The real part of spectral dielectric function is then derived from Kramer-Kronig transformation. For the far-IR region, ab initio calculations are used to determine the phonon modes. and the dielectric functi...
The equations of motion necessary for the computation of luminescence spectra in realistic semicondu...
The infrared reflectance spectra of GaAs/Ga₁₋xAlAs multilayer structures at normal incidence from t...
Optical dielectric function model of Ozaki and Adachi [J. Appl. Phys. 78, 3380 (1995)] is augmented ...
Spectral reflectance of GaAs from infrared (IR) to ultra-violet (UV) bands is predicted using ab ini...
Recently, Zacharias et al. developed an ab initio theory of temperaturedependent optical absorption ...
Recently, Zacharias et al. developed an ab initio theory of temperaturedependent optical absorption ...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
novel, efficient method for calculating the temperature dependencies of the linear dielectric functi...
novel, efficient method for calculating the temperature dependencies of the linear dielectric functi...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
The theoretical and numerical approaches are discussed for ab initio calculations of optical propert...
The equations of motion necessary for the computation of luminescence spectra in realistic semicondu...
The equations of motion necessary for the computation of luminescence spectra in realistic semicondu...
The infrared reflectance spectra of GaAs/Ga₁₋xAlAs multilayer structures at normal incidence from t...
Optical dielectric function model of Ozaki and Adachi [J. Appl. Phys. 78, 3380 (1995)] is augmented ...
Spectral reflectance of GaAs from infrared (IR) to ultra-violet (UV) bands is predicted using ab ini...
Recently, Zacharias et al. developed an ab initio theory of temperaturedependent optical absorption ...
Recently, Zacharias et al. developed an ab initio theory of temperaturedependent optical absorption ...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
novel, efficient method for calculating the temperature dependencies of the linear dielectric functi...
novel, efficient method for calculating the temperature dependencies of the linear dielectric functi...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
We compute the optical properties of the (110) surface of gallium arsenide within the first-principl...
The theoretical and numerical approaches are discussed for ab initio calculations of optical propert...
The equations of motion necessary for the computation of luminescence spectra in realistic semicondu...
The equations of motion necessary for the computation of luminescence spectra in realistic semicondu...
The infrared reflectance spectra of GaAs/Ga₁₋xAlAs multilayer structures at normal incidence from t...
Optical dielectric function model of Ozaki and Adachi [J. Appl. Phys. 78, 3380 (1995)] is augmented ...