E. E. Krasovskii

Unoccupied band structure ofNbSe2by very low-energy electron diffraction: Experiment and theory

A combined experimental and theoretical study of very low-energy electron diffraction at the (0001) surface of

Electronic and optical properties of cetineites nanoporous semiconductors with zeolite-like channel structure

{2mathrm{H}ensuremath{-}mathrm{N}mathrm{b}mathrm{S}mathrm{e}}_{2}

Direct resolution of unoccupied states in solids via two-photon photoemission

is presented. Electron transmission spectra have been measured for energies up to 50 eV above the Fermi level with

Band mapping in the one-step photoemission theory : Multi-Bloch-wave structure of final states and interference effects

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Calculation of VLEED spectra with the extended linear augmented plane wave kp method

varying along the

Augmented Fourier components method for constructing the crystal potential in self-consistent band-structure calculations

ensuremath{Gamma}K

Surface electronic structure with the linear methods of band theory

line of the Brillouin zone. Ab initio calculations of the spectra have been performed with the extended linear augmented plane-wave

ELECTRONIC STRUCTURE OF A NOVEL CLASS OF NANOPOROUS MATERIALS

mathbf{k}ensuremath{cdot}mathbf{p}

Elastic scattering effects in the electron mean free path in a graphite overlayer studied by photoelectron spectroscopy and LEED

method. The experimental spectra are interpreted in terms of three-dimensional (3D)

Valence and conduction band states ofHfS2:From bulk to a single layer

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