Copyright 2018 - Custom text here


Prof. Ing. Roman Martoňák, DrSc.                              personal web page

room F2-240


PhD students

Mgr. Oto Kohulák

Mgr. Dominika Melicherová

Mgr. Ondrej Tóth


Master students

Bc. Marián Ryník

Bc. Matej Badin


What is Computational Materials Science and why we need it?

"The underlying physical laws necessary for the mathematical theory of a large part of physics and the whole of chemistry are thus completely known, and the difficulty is only that the exact application of these laws leads to equations much too complicated to be soluble. It therefore becomes desirable that approximate practical methods of applying quantum mechanics should be developed, which can lead to an explanation of the main features of complex atomic systems without too much computation."

P. A. M. Dirac, Quantum mechanics of many-electron systems, Proc. R. Soc. Lond. A 1929 123 714-733

As Dirac wrote in his famous statement nearly 90 years ago, even if we know the microscopic laws, we need a bridge to macroscopic world. The practical realization of this dream is Computational Materials Science, based on numerical approach to quantum mechanics and statistical physics. Employing clever algorithms and powerful hardware we can nowadays, starting from the most fundamental properties of the atoms, predict how they arrange in space and time at given pressure and temperature, eventually forming condensed matter systems, such as crystals and liquids. When we know the structure, we can calculate in principle all mechanical, thermal, electrical, magnetic and optical properties, allowing us to understand a lot of our world and develop practical applications.

Computational Materials Science is a very rapidly developing field of theoretical condensed matter physics. It started in the 50's and 60's by introduction of sampling techniques such as Monte Carlo and Molecular Dynamics schemes. Another milestone was the formulation of Density Functional Theory and its combination with finite-temperature statistical mechanics in the form of ab initio molecular dynamics. Due to enormous progress in algorithms as well as in computer hardware over the last decades it gained predictive power and gradually became an invaluable tool in condensed matter physics. It is able to complement the experiment and in some cases even represents the only way to extract information about the properties of the system (e.g. in case of extreme conditions).


Current research directions

  • study of structure and properties of condensed matter at high pressures
  • molecular dynamics and metadynamics-based simulations of structural phase transitions
  • structural prediction of crystalline and amorphous phases
  • development of new methods for computer simulations of condensed matter systems
  • study of quantum and thermal ripples in graphene


Former research directions

  • optimization by quantum annealing
  • polyamorphism of water


Current research grants

APVV-15-0496 Novel phases and phase transitions in condensed matter (July 2016 - December 2019)


Former research grants

VEGA 1/0904/15 Quantum modelling of structural and electronic properties of solids (January 2015 - December 2017)

APVV-0558-10 Structural and electronic phase transitions on condensed matter systems (May 2011 - August 2014)

APVV-0442-07 Application of dynamical methods in materials science (September 2008 - December 2010)


Media coverage

FMFI UK on our work on graphene english version slovak version

Pravda daily on our work on graphene

Denník N daily on our work on graphene

Interview on Rádio Regina: Hodina s vedou (14 May 2018)


Interesting forms of condensed matter

work in progress


Some animations from ab initio molecular dynamics

A video of the atomic motion during the simulated M1-to-R (Insulator-metal) transition in vanadium dioxide VO2



Structure and mechanical properties of solids

Computer simulations in physics

Quantum simulations in condensed matter physics


amorphous polymeric nitrogen from our recent study