MČ

Mirko Černák

Masaryk University

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Co-Authors

Dušan Kováčik

Masaryk University

106

PŠ

Pavel Šťahel

Masaryk University

Jakub Kelar

Masaryk University

Anna Zahoranová

Comenius University Bratislava

Miroslav Zemánek

Masaryk University

Zlata Kelar Tučeková

Masaryk University

Richard Krumpolec

Masaryk University

Jozef Ráheľ

Mendel University in Brno

Monika Stupavská

Masaryk University

Oleksandr Galmiz

Masaryk University

Cooperative Institutions

Interface (United Kingdom)

215

Masaryk University

108

Comenius University Bratislava

Slovak University of Technology in Bratislava

Czech Academy of Sciences, Institute of Physics

Brno University of Technology

Czech Technical University in Prague

Charles University

Czech Academy of Sciences

John Wiley & Sons (United States)

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The future for plasma science and technology

Plasma Processes and Polymers (2018)

Klaus‐Dieter Weltmann Juergen F. Kolb Marcin Hołub Dirk Uhrlandt Milan Šimek

The application of gas discharge plasmas has assumed an important place in many manufacturing processes. Plasma methods contribute significantly to the economic prosperity of industrialized societies. However, plasma is mainly an enabling method and therefore its role remains often hidden. Hence the success of plasma technologies is described for different examples and commercial areas. From these examples and emerging applications, the potential of plasma technologies is discussed. Economic trends are anticipated together with research needs. The community of plasma scientists strongly believes that more exciting advances will continue to foster innovations and discoveries in the first decades of the 21st century, if research and education will be properly funded and sustained by public bodies and industrial investors.

Prosperity

Emerging Technologies

10.1002/ppap.201800118

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Citations (246)

周囲空気プラズマを用いたインクジェット印刷メソポーラスTiO2光アノードの高速および低温(70°C)鉱物化

ACS Applied Materials & Interfaces (2016)

Homola Tomas Dzik Petr Vesely Michal Kelar Jakub Mirko Černák

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Atmospheric pressure plasma etching of silicon dioxide using diffuse coplanar surface barrier discharge generated in pure hydrogen

Surface and Coatings Technology (2016)

Richard Krumpolec Ján Čech Jana Jurmanová Pavol Ďurina Mirko Černák

Dry etching

Plasma Etching

Plasma cleaning

Silicon dioxide

10.1016/j.surfcoat.2016.11.036

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Citations (17)

Effect of plasma pre-treatment and post-treatment on the adhesive properties of silicone coated release liner paper

Dušan Kováčik Jakub Kelar Oleksandr Galmiz Zlata Kelar Tučeková Miroslav Zemánek

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Mass Spectrometry Study of the Coplanar Barrier Discharge Operating in Ambient Air at Atmospheric Pressure

Nina Radić Nevena Puаč Tomáš Hoder Saša Lazovič Jozef Ráheľ

Planar barrier discharges are very promising plasma sources for surface treatment.One of them is coplanar barrier discharge - DCSBD (diffuse coplanar surface barrier discharge).

Ambient pressure

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Atmospheric-pressure air plasma sources for cleaning and activation of float soda-lime glass: Effects and comparison

Surfaces and Interfaces (2023)

Slavomír Sihelník Richard Krumpolec Zlata Kelar Tučeková Jakub Kelar Monika Stupavská

Float glass

Plasma cleaning

Soda-lime glass

Surface Modification

Soda lime

Pellet

Plasma torch

10.1016/j.surfin.2023.103080

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Citations (7)

Plasma assisted preparation of metal oxide nanofibers

Veronika Medvecká Dušan Kováčik Anna Zahoranová Mirko Černák

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Zařízení pro povrchovou plazmovou úpravu materiálu ze skupiny fólie, papír, textilie, netkaná textilie

Jozef Ráheľ Mirko Černák Dušan Kováčik

Technicke řeseni se týka zařizeni pro ucinnou a efektivni plazmovou upravu polymernich folii, např. polygrafických, ale i papiru, textilii, netkaných textilii a jiných podobných tenkých materialů.

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THE SURFACE DIELECTRIC BARRIER DISCHARGE GENERATED BY THELIQUID ELECTRODES FOR MATERIAL TREATMENT

David Pavliňák Oleksandr Galmiz Miroslav Zemánek Mirko Černák

The water plasmas generated by atmospheric discharges have already demonstrated their potential also for surface modification of polymer materials and are emerging such a very flexible concept to generate selective functionalized polymer surfaces. We have developed a novel type of surface dielectric barrier discharge generating thin layers of visually diffuse plasmas along the treated polymer surfaces using water-solution electrodes. The technique has been designed particularly to achieve uniform treatment of outer or inner surfaces of polymeric tubes and other hollow bodies usable in medicine (for example polytetrafluoroethylene tubes, catheters, blood containers) that is a serious challenge for atmospheric pressure plasma processing.

Surface Modification

Polytetrafluoroethylene

Plasma cleaning

USable

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Influence on surface morphology by plasma-surface interactionbetween Al film and atmospheric pressure DCSBD plasma

Vadym Prysiazhnyi Petr Vašina Mirko Černák

The results gave us additional information about the influence to the aluminium surface driven by DCSBD plasma in air. The effect of plasma treatment on the aluminium surface crucially depends on the time and input plasma power. Generally, the features of the plasma-surface interaction could be presented as follows: i) at first time, DCSBD plasma cleans the aluminium surface from contamination and etchs the native oxide layer which can be clearly seen by decreasing if the size of aluminium grains on AFM images; ii) further increase of the treatment will lead to oxide layer deposition.

Aluminium oxides

Deposition

Surface layer

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