Natalya A. Zimbovskaya

Electron transport through a quantum dot in the Coulomb blockade regime : Nonequilibrium Green's function based model

We explore electron transport through a quantum dot coupled to the source and drain charge reservoirs. We trace the transition from the Coulomb blockade regime to Kondo regime in the electron transport through the dot occurring when we gradually strengthen the coupling of the dot to the charge reservoirs. The current-voltage

Seebeck effect in molecular junctions.

(Itext{ensuremath{-}}V)

The effect of dephasing on the thermoelectric efficiency of molecular junctions.

characteristics are calculated using the equations of motion approach within the nonequilibrium Greens function formalism beyond the Hartree-Fock approximation. We show that within the Coulomb blockade regime the

Negative differential resistance in molecular junctions: Effect of the electronic structure of the electrodes

Itext{ensuremath{-}}V

Nanoparticle networks as chemoselective sensing devices

characteristics for the quantum dot containing a single spin-degenerated level with the energy

Electronic transport mechanism in conducting polymer nanofibers

{E}_{0}

The effect of Coulomb interactions on nonlinear thermovoltage and thermocurrent in quantum dots

include two steps whose locations are determined by the values of

Inelastic electron transport in polymer nanofibers.

{E}_{0}

On the dissipative effects in the electron transport through conducting polymer nanofibers

and the energy of Coulomb interaction of electrons in the dot

Fermi-liquid theory of the surface impedance of a metal in a normal magnetic field

U