CEET – Centre for Energy and Environmental Technologies

• TK Project – Programme for the Support of Applied Research, Experimental Development and Innovation THÉTA (2018–2025)
• Funding provider: Technology Agency of the Czech Republic
• Project duration: 2020–2024
• Principal Investigator: prof. Ing. Stanislav Mišák, Ph.D.
• The main objective of the project is to develop a modular, mobile, robust and scalable technological solution for the efficient conversion of alternative fuels, waste and by-products used as alternative feedstocks into valuable chemicals and useful forms of energy, including their storage and efficient utilisation. The solution incorporates state-of-the-art methods, BIM and digital twin technologies in line with the principles of the circular economy.

Cryogenic processes in the energy sector

• TS Project – THÉTA 2 Programme for the Support of Applied Research and Innovation (2024–2031)
• Funding provider: Technology Agency of the Czech Republic
• Project duration: 2024–2028
• Principal Investigator: Ing. Jaroslav Frantík, Ph.D.
• The objective of the project is to investigate multi-stage processes for hydrogen separation from waste gases or producer gases. The processes under investigation will include catalytic units for oxygen removal and multi-stage cryogenic purification using a gas condensation unit.

Development of a plasma torch for thermochemical conversion of input materials into a gas with a high hydrogen concentration

• TK Project – THÉTA Programme for the Support of Applied Research, Experimental Development and Innovation (2018–2025)
• Funding provider: Technology Agency of the Czech Republic
• Project duration: 2023–2025
• Principal Investigator: doc. Ing. Jan Najser, Ph.D.
• The objective of the project is to develop a plasma torch for converting a range of materials into a gas with a high H₂ content. Several units will be developed for this purpose, differing in power input (at least 50 kW and 100 kW), the quantity and chemical composition of the generated plasma, outlet temperature, carrier-gas mixtures and other operating parameters.

Research Excellence For REgion Sustainability and High-tech Industries (REFRESH)

• Project No. CZ.10.03.01/00/22_003/0000048
• Funding provider: Ministry of the Environment of the Czech Republic
• Project duration: 2022–2027
• Principal Investigator: prof. Ing. Igor Ivan, Ph.D.
• The project focuses on strengthening research excellence and building state-of-the-art infrastructure for the development of technologies in the fields of sustainable energy, advanced materials, digitalisation and environmental technologies, with the aim of supporting the transformation of the Moravian-Silesian Region.

The research group makes extensive use of advanced thermochemical conversion technologies, particularly pyrolysis reactors, combustion boilers and gasifiers. These systems allow us to precisely control process conditions such as pressure, heating rate, operating temperature, residence time and gas flow rates, ensuring that experimental results meet both project objectives and the specific requirements of industrial partners. By adjusting the parameters of thermochemical conversion processes, we can selectively influence the types and quantities of products generated, as well as their emission characteristics.

We use a range of analytical instruments to monitor and analyse processes, enabling both online and offline analysis of generated gases and products. Within VSB-TUO, we have access to comprehensive laboratory facilities for analysing both feedstocks and products of thermochemical conversion. Stable experimental conditions are essential for reliable process monitoring and are supported by extensive know-how gained through numerous experiments, measurements and research projects.

The data obtained from experiments are professionally evaluated and used for process optimisation. Optimisation is carried out not only by adjusting operating parameters or modifying feedstock properties, but also by improving the design of individual process units. Based on experimental findings, we are able to design customised components that enhance process efficiency and operational reliability.

The combination of in-depth theoretical expertise, experimental methods, cooperation with industrial partners and advanced analytical facilities ensures that the group’s research is both scientifically rigorous and directly applicable in practice.

The research group has a long-standing focus on applied research directly addressing the needs of industry. Our projects are therefore typically developed in cooperation with industrial partners and respond to current technological challenges faced by companies in practice. This approach enables us to transfer research results effectively into real-world applications and accelerate the implementation of innovations. A key contribution of our activities lies in the optimisation of technological processes, particularly in the field of thermochemical conversion. This helps reduce emissions, improve resource efficiency, and transform waste and alternative materials into usable energy products. In this way, we actively support the principles of the circular economy and contribute to sustainable development. Our solutions also improve the operational efficiency of industrial partners by helping to reduce costs, save time and material inputs, and enhance overall competitiveness. The resulting technological innovations are protected through outputs such as functional prototypes, utility models and patents. Alongside application-oriented outputs, we also place strong emphasis on knowledge sharing within the academic community. We regularly publish in respected international scientific journals, contributing to the advancement of the field and the dissemination of specialist know-how. By linking research, industry and education, we ensure that our work does not remain confined to the laboratory, but delivers solutions with tangible benefits for society.

• Malý trubkový výměník jako součást transformátoru(Užitný vzor, Honus Stanislav; Kadlec Zdeněk; Balco Mário; Pešek Martin; Svoboda Roman; Hejčík Jiří; Vávra Petr, 2025)
• Plazmový hořák pro vytvoření plazmového výronu s přívodem páry do plazmového výronu a řídicí systém pro řízení plazmového hořáku – alias – Technologie pro napájení, zásobovaní a řízení plazmového hořáku. (Užitný vzor, Němček Ondřej; Marek Martin; Frantík Jaroslav; Najser Jan, 2025)
• Zařízení dopravující POP do reaktoru (Funkční vzorek, Najser Jan; Frantík Jaroslav; Mikeska Marcel; Najser Tomáš, 2025)
• Přečerpávací elektrárna s horní a dolní nádrží v plovoucí nádrži (Patent, Černý Otakar; Honus Stanislav, 2024)
• Kontrolní, řídicí a měřicí program akumulační elektrárny (Software, Honus Stanislav; Balco Mário; Lukeš Roman; Gadula Jaromír; Pešek Martin, 2024)
• Prototyp trafostanice vn/nn s integrovanou nabíjecí stanicí pro elektromobily (Prototyp, Honus Stanislav; Balco Mário; Ficbauer Michal; Morávek David; Pešek Martin, 2024)
• Method of Enrichment of a Gas Produced by Torrefaction and Pyrolysis of Biomass with Methane and Apparatus for Implementing the Method. (Patent, Němček Ondřej; Mikeska Marcel; Kielar Jan; Najser Tomáš, 2024)
• Model přečerpávací elektrárny (Průmyslový vzor, Černý Otakar; Honus Stanislav; Balco Mário; Gadula Jaromír; Lukeš Roman; Křivý Vít; Mikolášek David, 2023)
• Ověřená technologie postupu výroby tuhého alternativního paliva.(Technologie, Najser Jan; Frantík Jaroslav; Filip Roman; Brokl Pavel, 2023)
• Poloprovozní modulová jednotka pro kultivaci řas pro bioplynovou stanici (Poloprovoz, Najser Jan; Jelínek Miloš; Jelínek Jiří; Novák Petr; Mikeska Marcel, 2022)
• Výparník pro ORC energetická zařízení (Užitný vzor, Peer Václav; Kielar Jan; Najser Jan; Frantík Jaroslav, 2022)