Graduated from Kharkov State University in 1971.
PhD Phys & Math, ILTPE, 1980.
DSc Phys & Math ILTPE,1994.
Started work at ILTPE in 1971. Research activities: theory of self-organization, nonequilibrium effects in point contacts, atomic dynamics of nanostructures. Is the author of about one hundred scientific publications including two books. Has been a Professor of Kharkov Technical University of Radioelectronics since 2000 and a visiting professor at the P.J. Safarik University (Kosice, Slovak Republic) since 1989. Member of the Ukrainian Physical Society (1993-) and of the International Thermoelectrical Society (1994-). Provides scientific researches within the framework of agreement on scientific collaboration between ILTPE and P.J. Safarik University, Kosice, Slovak Republic.
A general mathematical model of an evolution for discrete nonlinear self-organizing dynamic system under the condition of a long-period relaxation was developed. This activity was connected closely with the progress on the field of synthetic metastable systems (molecular engines, carbon nanotubes). Both the analytical treatment and numerical modeling for the characteristics of a self-organization process were given. It was shown that the effective self-organization with reduction of the model ensemble entropy is possible only under condition of a long-period integral memory.
The atomic frequency distribution functions of the nanocrystal placed between two solids were calculated. The heat flux was calculated with the quantum phonon transport in point contact and the impurity monolayer separated the crystals being taken into account. It is shown that the weak impurity-crystal interaction results in a resonance-type frequency dependence of the phonon energy transmission coefficient. The analog of Landauer formula for the phonon conductivity has been derived for the heat flux through the point contact. The research is carried out within the frames of agreement on scientific collaboration between ILTPE and the P.J. Safarik University (Kosice, Slovak Republic).
It is shown that for an arbitrary electron elastic scattering length the second derivative of the current with respect to voltage at the point contact is proportional to the electron-phonon transport function. The result signifies that the point-contact spectroscopy should be feasible in metals with arbitrarily small elastic scattering length. The effect of nonequilibrium of the phonon system on the spectroscopy of electron-phonon interaction was investigated in collaboration with Dprt.19 (ILTPE).
Path-integral method was adopted to calculate the cross-section of the light scattering by optically anisotropic polymer chains in solution. The excluded volume problem, with respect to the viscometric data, was investigated in collaboration with Dprt.18 (ILTPE).