group:skills
Table of Contents
Dr. Dmitry Aksyonov (group leader)
- DFT, semiempirical, postHF, periodic and atomic basis set (VASP, Abinit, Gaussian, Mopac)
- Monte-Carlo and MD
- NEB, cluster expansion
- Surfaces, grain boundaries, point defects, segregation, intercalation potentials, migration barriers, ordering, electronic structure (DOS)
- Transition metal oxides, cathode materials, catalysts, metals and alloys
Dr. Anton Boev
- Scientific packages: VASP, ABINIT, LAMMPS, NWchem, MOPAC, OVITO, Jmol, Vesta, SIMAN
- Programming: Python, Fortran, Bash
- General: Linux OS, LATEX, Office package
- Computational materials science, High-throughput computations, Cathode materials for Li/Na-ion battery, Radiation-resistant alloys, metallic alloys
- Computational study of materials for energy storage
Dr. Andrey Geondzhian
- Green’s function techniques: GW, Cumulants, BSE, DMFT
- Other: DFT, DFPT, TD-DFT, Quantum Monte-Carlo
- Theoretical spectroscopy (from model and first-principle perspectives): XAS, XES, XCMD; NRIXS, RIXS, EELS; Optical Absorption; ARPES, XPS; HHG
- New computational methods development: Many-body contributions (phonons, plasmons) in x-ray spectroscopy
- Model development for quantum problems (electron-lattice interaction; topological semi-metals; light-matter interaction (weak and strong); electron-electron interaction; phonon-phonon interaction)
Arseniy Burov (PhD student)
- Python, C++, Bash, Fortran; VASP, LAMMPS, Quantum Espresso
- Solid-state electrolytes. Interfaces and charge transfer. Mechanical properties.
- High-pressure and high-temperature physics
Daniil Chernyshov (PhD student)
- Software packages: VASP, Siman, Abinit, Opium, Lammps
- Programming languages: Python (Pymatgen)
- Task mastery: Metropolis algorithm for Izing model, Hartree Fock for H2, quantum Monte-Carlo methods
- Solid state electrolytes for sodium solid state batteries, defects modeling
Nikita Davydov (MSc student)
- DFT (VASP), DFT+U, spin-polarised calculations, NEB, basics in Quantum Espresso and LAMMPS; python
- Impact of Grain Boundaries on Oxygen Loss in LiNiO2 Cathode Material
- Layered transition metals oxides, grain boundaries, point defects, magnetic materials (hexaferrites)
Maria Solovieva (MSc student)
- DFT (VASP; SIMAN scientific package), Python
- Anode materials for for Li/Na-ion batteries, hard carbon anode material; computational study of carbon materials' microstructure & electronic structure, intercalation mechanism
Tatiana Kobernik (MSc student)
- DFT (VASP, Quantum Espresso)
- Study of adsorption; construction of band structure, DOS; finding a highly symmetric k-path; calculation of effective masses
- Calculation of conductivity in solid electrolytes
group/skills.txt · Last modified: 2025/01/18 12:31 by m.solovieva