Textile-derived microplastics in aquatic ecosystems: identification, characterizations, and effect assessment
| Registration Number / Code | LUAUS23054 |
| Provider | MŠMT |
| Implementation Period | 2023 - 2026 |
| Principal Investigator | A. Ševců (TUL) |
| FT Team |
J. Militký, J. Wiener, M. Tunák, D. Křemenáková, A. Ali, M. Venkataraman, J. Novotná |
Annotation: One of the most serious long-term environmental problems is the presence of microplastics (MP) in the air and in all types of water around the world. A significant proportion of microplastics (>30%) in surface waters is made up of fiber fragments released from textile products. These microplastics are often made of polymers with a higher density and are resistant to degradation. It is proven that more than a third of microplastics in rivers and oceans originates primarily from textile products. A large amount of these fibers enters the aquatic environment during textile production and the first three washing cycles. Given the chemical composition (dyes, finishes), more toxic decomposition products can be expected. Very little is known about the potential risks associated with the increased release of fibrous microplastics from recycled textiles. Fibrous microplastics can also be vectors for the transport of dangerous substances such as antibiotics or perfluoroalkyl chemical substances (PFAS).
Advanced structures for thermal insulation in extreme conditions
| Registration Number / Code | 21-32510M |
| Provider | GAČR, JUNIOR STAR |
| Implementation Period | 2021 - 2025 |
| Principal Investigator | M. Venkataraman (TUL) |
| FT Team |
D. Křemenáková, J. Novotná, S. Hu, A. Ali, M. Z. Khan, D. Wang, D. Coetzee |
Annotation: The core of the project is to study the thermal behavior of high-performance textiles, describe the mechanism of heat transfer in fibrous structures under extreme conditions and develop a general, scientifically supported, methodology of constructing thermal insulation layers. In cold conditions, convection and radiation have to be considered. The project includes the development of the measuring tunnel, which can be used to measure the total heat loss of textiles below freezing temperatures. The materials which reduce heat transport by radiation will also be observed. A prediction system for thermal insulation properties of the textile layers will be created.
Eco-clothing collection
| Registration Number / Code | TQ01000450 |
| Provider | TAČR |
| Implementation Period | 2023 2026 |
| Principal Investigator | J. Drašarová (TUL) |
| FT Team | J. Wiener |
Annotation: The project will implement a sustainable collection of clothing products. The clothes will connect psychological and aesthetic comfort with a minimal ecological footprint. The synthesis of the artistic and technological perspectives will result in a collection that will emphasize achieving the minimum impact of the product on the environment in terms of the entire life cycle. The outputs will be suitable for implementation both on an industrial scale and in start-up companies. Other impacts of the project will be educational activities among the professional and public.
Challenges for the 21st century
| Registration Number / Code | CZ.02.02.XX/00/23_022/0008721 |
| Provider | Operační program Jan Amos Komenský (OP JAK) |
| Implementation Period | 2024 - 2028 |
| Principal Investigator | Z. Plíva (TUL) |
| FT Team | J. Porkertová, J. Wiener, M. Kašparová, M. Vik |
Annotation: The project aims to enhance the quality and efficiency of university education systems and to reduce study failure rates at the Technical University of Liberec. Another key objective is to support the development of teaching by introducing topics relevant to the labor market, particularly in the field of technical sciences. An integral part of the project includes strengthening the competencies of TUL staff, supporting internationalization processes, and providing systematic support for students with special needs.
Addressing Skills Gaps in the European Textile, Clothing, Leather and Footwear Industries, Emphasizing Equality, Innovation, and Resilience
| Registration Number / Code | 101139988 |
| Provider | Projekty Erasmus+ |
| Implementation Period | 2024 - 2028 |
| Principal Investigator | EURATEX |
| FT Team | V. Tunáková, J. Drašarová, R. Bílková, A. Samková |
Annotation: The AEQUALIS4TCLF Blueprint project aims to address the skills gap in the Textile, Clothing, Leather, and Footwear (TCLF) sector in the European Union. The project involves relevant stakeholders such as industry representatives, employers’ associations, Higher Education (HE) and Vocational Education and Training (VET) providers from seven European countries: Czechia, Croatia, Lithuania, Finland, Netherlands, Slovenia, and Serbia.
Multifunctional textiles using the heat radiated from the human body
| Registration Number / Code | FW12010015 |
| Provider | TAČR, TREND |
| Implementation Period | 2025 - 2027 |
| Principal Investigator |
L. Vašková (SINTEX), L. Martinková (INOTEX), D. Křemenáková (TUL) |
| FT Team |
J. Militký, J. Wiener, M. Venkataraman, A. Ali, M. Z. Khan, M. Průšová |
Annotation: The aim of the project is the research of particle systems and the development of thin, light and vapor-permeable textiles ensuring maximum use of the thermal power of the human body through the back reflection of far infrared radiation (FIR). Targeted clothing will increase the temperature of the microclimate of the body by 2 - 4 °C and achieve optimal thermal comfort. They will be a more acceptable alternative to sandwich systems using a metal foil. Special final treatments containing formulations of particle systems mainly based on MgO and SiO2 nanoparticles will be implemented.
Textile Structures for High-Frequency Sound Absorption and Electromagnetic Shielding
| Registration Number / Code | CZ.01.01.01./24_046/0005322 |
| Provider | OP TAK |
| Implementation Period | 2025 - 2027 |
| Principal Investigator | L. Fouňová (CLUTEX) |
| FT Team |
D. Křemenáková, J. Militký, M. Venkataraman, V. Tunáková, B. Tomková, A. Ali, M. Z. Khan |
Annotation: The aim of the project is to develop a textile-based sandwich system consisting of a layer for absorbing high-frequency sound (10 kHz to 50 kHz) and a layer for electromagnetic shielding (150 MHz to 3.5 GHz). Theoretical and model foundations will be established. Simulation tools will be developed based on the Finite-Difference Time-Domain (FDTD) method, Finite Element Method (FEM) modeling. The layers will be based on woven, nonwoven, or spacer fabrics. The outer covering layers will be designed for specific functional properties, such as antistatic, stain-resistant, or hydrophobic behavior. The constructions will be combined into a multilayer, multifunctional shielding panel.
HempTuft - Sustainable, Recyclable Textile Floor Coverings Made from Natural Plant Fibres
| Registration Number / Code | CZ.01.01.01/07/24_046/0004668 |
| Provider | OP TAK |
| Implementation Period | 2025 - 2026 |
| Principal Investigator | L. Fouňová (CLUTEX) |
| FT Team | J. Wiener, J. Šašková, M. Průšová, M. Čimburová, M. Z. Khan |
Annotation: The overall innovation goal of the HempTuft project is to develop a tufted textile floor covering based on the principles of “Design for Recycling”. It will use bast fibres, natural, and biodegradable polymers. The product aims for a lower environmental impact and high-quality fibre recycling. Great attention will be given to the prevention of hazardous microplastics formation. The project utilizes regionally available materials and will be achieved through close collaboration with German partners, fully in line with the Cornet projects.
Electrospun nanocomposites with improved conductivity using expanded graphite
| Registration Number / Code | SGS-2025-6518 |
| Provider | MŠMT |
| Implementation Period | 2025 - 2026 |
| Principal Investigator | D. Coetzee |
| FT Team | J. Wiener, T. Thekiso, E. Tören, L. Walker |
Annotation: The goal of this project is to develop conductive nanofibrous nanocomposite systems using needleless electrospinning in an alternating electric field. Previous work using a single-needle process was limited by graphite sedimentation and high porosity. Both planar (layered) and longitudinal (yarn) materials will be created. Process parameters will be optimized for optimal conductivity. If the properties of the nanocomposites prove insufficient, the application of expanded graphite in a polymer coating will be tested.
Epoxy composites filled with mechanically decomposed waste textiles
| Registration Number / Code | SGS-2025-6544 |
| Provider | MŠMT |
| Implementation Period | 2025 - 2026 |
| Principal Investigator | W. Hou |
| FT Team | M. Tunák, V. Tunáková, J. Novotná |
Annotation: The aim is to utilize mechanically disintegrated particles of waste polyester as fillers into epoxy composites, thereby reusing waste polyester and realizing the concept of recycling. The main objectives include investigating the influence of the particle size/segments of polyester from waste textiles and the filler content on the composite properties. Output parameters include mechanical properties such as strength, elongation, and flexural stiffness. The study provides technical support for the development of new lightweight, low-cost, and environmentally friendly composite materials.
Model for Predicting Spectral Properties of Textiles
| Registration Number / Code | SGS-2025-6565 |
| Provider | MŠMT |
| Implementation Period | 2025 - 2026 |
| Principal Investigator | M. Pechová |
| FT Team | U. B. Solanki |
Annotation: The goal of the project is to create a model to predict the spectral properties of materials, which depend on material composition, fiber structure, and surface treatment. The model will predict spectral properties from image data captured by a camera using a controlled multispectral LED-based illumination. This approach is an alternative to expensive hyperspectral cameras. The model should predict the color appearance of materials depending on the spectral distribution of the illumination and the adaptation luminance (which affects how our eyes perceive colors). This would enable more accurate simulations in applications such as clothing design.
Optochemical sensor for monitoring persistent organic pollutant in the aquatic environment
| Registration Number / Code | SQ01020272 |
| Provider | TAČR |
| Implementation Period | 2025 - 2027 |
| Principal Investigator |
M. Fijalkowski (TUL), J. Buček (BD SENSORS s.r.o.), M. Váňa (VÚV TGM) |
| FT Team | M. Viková |
Annotation: The goal of the project is to develop and commercialize a sensor for rapid, sensitive, and low-cost detection of POPs (Persistent Organic Pollutants) in water. Sub-goals include developing a new generation of ultraporous sensor materials that will change their optoelectronic properties upon contact with the contaminant, and designing a sensor prototype for pilot verification.
Mastering Efficient Lighting In North Africa – MELINA
| Registration Number / Code | 101179276 |
| Provider | Erasmus+ |
| Implementation Period | 2025 - 2027 |
| Principal Investigator | University of Toulouse |
| FT Team | M. Vik, M. Viková, M. Pechová |
Annotation: The MELINA project focuses on developing new training programs in response to the growing lighting market due to new LED technologies. The training aims to introduce best practices, reduce energy consumption, and limit its environmental impact. The project aims to open doors to a previously "virgin" professional sector and support employment development.
Submitted Projects (01/2025 – 09/2025)
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