Research Groups

Department of Quantum Chemistry

Quantum chemistry of the nanostructures: electron, vibrational and thermodynamic properties of the nanolayers, nanotubes, nanowires and nanoribbons

{tab Members of the Group}

Head of the group — Evarestov Robert Alexandrovich, Doctor of Physics and Mathematics, Professor, head of Quantum Chemistry Department. Lab. 1153

Members

  • Bandura Andrei Vilovich, PhD, associate professor, room 1156
  • Porsev Vitaliy Veniaminovich, PhD, associate professor, room 1151
  • Kuruch Dmitry Dmitryevich, associate professor, room 1154
  • Lukyanov Sergey Ivanovich, PhD, research engineer, room 1156
  • Domnin Anton Vladimirovich, assistant professor, room, 1160

Students and PhD students

  • Novikov Sylvester Sergeyevich, 4-year undergraduate student
  • Yan Weihang, 4-year undergraduate student
  • Cherezova Polina Yuryevna, 4-year undergraduate student

Collaboration with Russian and International groups

  • Max Planck Institut für Festkörperforschung,  Stuttgart, Germany. Prof. Joahim Maier, Head of Chemistry Department;
  • Institute of Solid State physics, University of Latvia, Riga. Prof. Eugene Kotomin, Head of Theoretical Department, Prof. Yourii Zhukovskis and Sergei Piskunov, Theoretical Department

{tab Fields of Research}

  • Symmetry analysis and non-empirical calculations of electronic structure and phonon spectra of crystals and nanostructures.
  • Non-empirical quant-chemical calculations of stability, mechanical and thermodynamic properties, atomic and electronic structure of crystals, surfaces and nanolayers based on simple and complex metal oxides and chalcogenides.
  • Development of force fields for modeling multi-walled nanotubes based on transition metal chalcogenides using machine learning elements.
  • Development of algorithms for quantum chemical calculation of structural, energetic and electronic properties of nanoobjects with helical symmetry.
  • Non-empirical and molecular mechanical calculations of the structure, stability, phonon and elastic properties of large diameter chiral and achiral nanotubes based on transition metal chalcogenides.

In recent years, new quantum-chemical and molecular-mechanical results have been obtained on the above-mentioned properties of carbon nanotubes and nanohelicenes, S, Te and CoO nanorods, as well as nanotubes based on CoO, GaS, GaSe, GaTe, Ga2STe, InS, InSe, InTe, MoS2, WS2, WSe2, HfS2, HfSe2. The structural, electronic and phonon properties of K(Rb)NbO3 perovskites  and layered perovskite like crystals are studied  using the hybrid density functional method.