Research

Technology offer

In today’s competitive landscape, the development and application of advanced materials define the boundaries of innovation across industries. Thin films and coatings have become indispensable in delivering enhanced performance, durability, and functionality to products and systems. To address the growing complexities and demands of modern applications, a comprehensive suite of technologies and services tailored to the needs of industry partners is needed.

Masaryk University in Brno (MUNI), Comenius University in Bratislava (CU), and West Bohemian University in Plzeň (WBU) offer a range of advanced technologies and research capabilities in the field of materials science, specifically focusing on thin films, coatings, deposition technologies, analytical methods and first-principle modelling. Our institutions provide cutting-edge solutions in the six areas illustrated by relevant research publications below.

Thin Films and Coatings Processing Technologies
We offer a diverse set of deposition techniques, designed to provide precise and versatile solutions for various applications. These methods cater to specific material and surface requirements, enhancing the efficiency and effectiveness of thin films and coatings in industrial and research settings.
Diagnostics of Deposition Processes
Real-time monitoring technologies are available to ensure the consistent and reliable performance of deposition processes. These systems provide vital data that support process optimization, ensuring high-quality output and minimizing errors during production.
Morphological Analysis of Surfaces
We utilize advanced imaging and analysis techniques to offer detailed insights into the morphology of surfaces. This analysis helps to optimize material properties, leading to better functionality and enhanced performance of thin films and coatings in diverse applications.
Compositional and Structural Characterization
Through sophisticated techniques, we are enabled the in-depth characterization of material composition and structure. This service aids in supporting innovation and ensuring quality control, particularly in the development and production of high-performance coatings and films.
Analysis of Physical Properties
We evaluate a range of material properties, including mechanical, electrical, optical, and thermal characteristics, to ensure that materials meet the specific needs of their intended applications. This evaluation process is critical for ensuring the suitability of thin films and coatings in various industries, including electronics, energy, and aerospace.
First-principle Modelling of Materials
Utilizing advanced computational modelling techniques, we offer first-principles simulations to predict the behavior of materials. This modelling accelerates the development of new coatings and thin films by enabling researchers to simulate material properties before physical testing, reducing development time and costs.

Research activities

Prediction of heterostructural decomposition via density functional theory (DFT): when energetics drive structural transitions

Viskupová, Katarína et al. Heterostructural decomposition in V1-xWxB2-Δ films induced by B deficiency. Materialia (2025): 102351

Transition metal diborides show great potential for industrial applications. To tune their mechanical and electrical properties, we need detailed understanding of the structure. DFT calculations can help us with predictions, as well as explaining the observed structural phenomena. In this study on V1-ₓWₓB₂-Δ films, we used DFT to show that boron deficiency promotes a separation into hexagonal VB2 and orthorhombic WB regions observed by transmission electron microscopy. The DFT calculation further revealed that the decomposition is driven by different affinities of the binary V-B and W-B systems to boron vacancies.   

This approach — based on first-principles modelling of structural stability — is part of the expertise we offer to partners seeking advanced material insights, design guidance, or predictive evaluation.