Projects

One of the most important goals is to keep and increase the gap in the technical and economic level of textile machines manufactured by Rieter compared to competitor’s machines, especially in the field of automation of textile yarn quality control in the spinning mill. The concrete goal of the project is to develop own set of intelligent devices that will be fully integrated into Rieter lines, and with their help automate and optimize state-of-the-art technologies of yarn production and thereby achieve a significant increase in productivity, quality and economy in textile yarn production. The results of the project will use the latest technologies and principles, modern mathematical-analytical methods in the field of advanced digital analysis of image data and numerical simulations.

Period

01. 04. 2021 – 30. 11. 2024

Zdroj

TAČR

Code

FW03010640

Leader

Ing. Martin Rozkovec, Ph.D.

One of the most important goals is to keep and increase the gap in the technical and economic level of textile machines manufactured by Rieter compared to competitor’s machines, especially in the field of automation of textile yarn quality control in the spinning mill. The concrete goal of the project is to develop own set of intelligent devices that will be fully integrated into Rieter lines, and with their help automate and optimize state-of-the-art technologies of yarn production and thereby achieve a significant increase in productivity, quality and economy in textile yarn production. The results of the project will use the latest technologies and principles, modern mathematical-analytical methods in the field of advanced digital analysis of image data and numerical simulations.

Period

01. 04. 2021 – 30. 11. 2024

Zdroj

TAČR

Code

FW03010640

Leader

Ing. Martin Rozkovec, Ph.D.

One of the most important goals is to keep and increase the gap in the technical and economic level of textile machines manufactured by Rieter compared to competitor’s machines, especially in the field of automation of textile yarn quality control in the spinning mill. The concrete goal of the project is to develop own set of intelligent devices that will be fully integrated into Rieter lines, and with their help automate and optimize state-of-the-art technologies of yarn production and thereby achieve a significant increase in productivity, quality and economy in textile yarn production. The results of the project will use the latest technologies and principles, modern mathematical-analytical methods in the field of advanced digital analysis of image data and numerical simulations.

Period

01. 04. 2021 – 30. 11. 2024

Zdroj

TAČR

Code

FW03010640

Leader

Ing. Martin Rozkovec, Ph.D.

One of the most important goals is to keep and increase the gap in the technical and economic level of textile machines manufactured by Rieter compared to competitor’s machines, especially in the field of automation of textile yarn quality control in the spinning mill. The concrete goal of the project is to develop own set of intelligent devices that will be fully integrated into Rieter lines, and with their help automate and optimize state-of-the-art technologies of yarn production and thereby achieve a significant increase in productivity, quality and economy in textile yarn production. The results of the project will use the latest technologies and principles, modern mathematical-analytical methods in the field of advanced digital analysis of image data and numerical simulations.

Period

01. 04. 2021 – 30. 11. 2024

Zdroj

TAČR

Code

FW03010640

Leader

Ing. Martin Rozkovec, Ph.D.

The core of the project is to is to study the thermal behavior of high-performance textiles, describe the mechanism of heat transfer in fibrous structures under extreme conditions and developing a general, scientifically supported, methodology of constructing thermal insulation layers. To determine the heat resistance of the fabric in cold conditions in accordance with standards, the losses of heat conduction are negligible and convection and radiation have to be considered. Conventional devices for evaluation of thermal resistance of clothing are based on the measurement of thermal conductivity under standard climatic conditions, which is not useful for extreme conditions. For these reasons, the project also includes the development of the measuring tunnel, which can be used to measure the total heat loss of textiles below freezing temperatures. In construction of the new heat insulating layers, 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.

Period

01. 01. 2021 – 31. 12. 2025

Zdroj

GAČR

Code

GM21-32510M

Leader

Mohanapriya Venkataraman, Ph.D.

We shall study and develop aggregations of two or more research methodologies, optimal with respect to the observed data, in order to reach the most accurate conclusion. The task is also to aggregate adequately several available datasets. We shall follow mainly applications in economics, business and insurance. Although these problems have been followed by the scientific society for a long time, the current situation brings new demands on the fast, flexible and accurate conclusions, based on innovating ideas. This will be guaranteed also by our new original methods based on profound mathematical results. The optimality criteria depending on the situation will use the expected utility, risk and entropy. We shall utilize the score functions and density quantile transformations, which enable us to get rid of dependence on location and scale and to concentrate on the shape. In decision making we shall use the Choquet capacities dominating the groups of possible conclusions and decisions.

Period

01. 01. 2022 – 31. 12. 2025

Zdroj

GAČR

Code

22-03636S

Leader

prof. RNDr. Jan Picek, CSc.

The purpose of the work is an innovative solution in the application of glazes and the coloring of glass pearls, which can significantly improve the company’s position in a competitive domestic and foreign environment.

Period

01. 01. 2023 – 31. 07. 2023

Zdroj

KÚLK

Code

Programu Libereckého kraje č. 2.2 – Regionální inovační program, dotační titul 3 – Technologické vouchery

Leader

doc. Dr. Ing. Ivan Mašín

The aim of the project is to develop an integrated smart orthosis solution with a multi-sensor system for motion data collection, which will be used both by doctors for evaluation of the rehabilitation process and by patients for feedback and motivation through serious games. The intended use is in long-term home rehabilitation, particularly for the aging population diagnosed with sarcopenia and possibly dementia. The software will enable quantitative evaluation of the rehabilitation process in the long term. The aim is to develop the system in a Czech-Taiwanese cooperation and thus open up the possibility of accessing larger foreign markets. This new technology is conceived as a global business project, with at least English, Chinese and Czech language versions envisaged.

Period

01. 02. 2022 – 31. 01. 2025

Zdroj

TAČR

Code

TM03000048

Leader

doc. Ing. Josef Černohorský, Ph.D.

The aim of the project is to develop an integrated smart orthosis solution with a multi-sensor system for motion data collection, which will be used both by doctors for evaluation of the rehabilitation process and by patients for feedback and motivation through serious games. The intended use is in long-term home rehabilitation, particularly for the aging population diagnosed with sarcopenia and possibly dementia. The software will enable quantitative evaluation of the rehabilitation process in the long term. The aim is to develop the system in a Czech-Taiwanese cooperation and thus open up the possibility of accessing larger foreign markets. This new technology is conceived as a global business project, with at least English, Chinese and Czech language versions envisaged.

Period

01. 02. 2022 – 31. 01. 2025

Zdroj

TAČR

Code

TM03000048

Leader

doc. Ing. Josef Černohorský, Ph.D.

The commercial potential of nanofibrous materials produced by the electrospinning method has been steadily increasing in recent years, and its further growth can be assumed. However, the low productivity of existing production processes and equipment remains the main limiting element for the broader development of this material sector. A more profound knowledge of the essence of the spinning process conditions the increase in production speeds. Therefore, research into its fundamental principles is still relevant. Electrospinning of polymer solutions, however, represents a complicated electro-hydrodynamic event that is influenced by a large number of internal and external parameters. Still, the separation of individual parameters is often tricky, as it is limited by the presence of a strong electromagnetic field and the interconnectedness of individual variables, e.g. electric field intensity – the geometry of the spinning device, polymer – solvent or polymer concentration – average molecular weight of the polymer – viscosity of the solution. It is, therefore, advisable to simplify the test system as much as possible for studies of the behaviour of polymer solutions during spinning. One convenient simplification may be using chemically related polymers whose structure changes in a defined and gradual manner while being soluble and electrospinnable from a single solvent system. In the previous work of the project proponent and the team of authors, it was demonstrated that such a system is represented by aliphatic polyamides (PA) dissolved in a mixture of formic acid and dichloromethane. Aliphatic polyamides form an extended group of synthetic thermoplastic, usually semi-crystalline polymers, used in many branches of industry. Their advantages include good mechanical properties, chemical and thermal stability, abrasion resistance and workability. The most common representatives of typical electrospun polyamides are PA 6 and PA 66. However, the amount of aliphatic polyamides is broader, which, in connection with the project’s focus, allows chemically related polymers to be electrospun while leaving most other material and technological conditions unchanged. It enables the acquisition of valuable, more general data on the dependence between the structure of the polymer and the manifestation of its electrospinning. This project aims to investigate the properties of suitable polyamide solutions from the point of view of electrospinning as well as their physicochemical properties and especially the mentioned dependence between the chemical structure of the used polyamide and the properties of the resulting fiber structures.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6338

Leader

doc. Ing. Jiří Chvojka, Ph.D.

The main goal is the development of materials based on nanofiber carriers with the content of active substances, which will be used for the treatment of infectious skin diseases (herpes) and for treatment of wounds after removal of tick and puncture of stinging insects.

Period

01. 04. 2020 – 31. 12. 2024

Zdroj

TAČR

Code

FW01010214

Leader

Ing. Miroslava Rysová, Ph.D.

Many vascular surgery procedures such as the palliative treatment of congenital heart diseases, the wrapping of aneurysms and arterialized vein grafts or endoleak prevention are based on the mechanical interaction of the arterial wall and an externalreinforcement. This project concerns the development of a composite consisting of a copolymer of poly(Llactide)(PLA)/polycaprolactone(PCL) nanofibers combined with a collagen matrix for use in resorbable arterial bands which will enable a reduction in arterial blood flow and arterial wall protection against pathological changes and rupture. The structural, degradation and mechanical characteristics of the PCL/PLA/collagen composite will be determined in a simulated body environment and after sterilization. The biocompatibility will be verified on cell cultures and in rat peritoneum. Biomechanical and degradation properties and material-artery biological interactions will be analyzed in rabbit model. Proof of the arterial bands function will be provided via pulmonary artery and abdominal aorta banding using a piglet model.

Period

01. 05. 2020 – 31. 12. 2023

Zdroj

MZ

Code

NU20-02-00368

Leader

doc. Ing. Eva Kuželová Košťáková, Ph.D.

B-SHAPES seeks to identify, understand and re-envision the key role of borders as a central factor in forming and changing people’s perceptions of European societies and politics in the 21st century.

Period

01. 04. 2023 – 31. 03. 2026

Zdroj

EUK

Code

101095186

Leader

doc. Mgr. Hynek Böhm, Ph.D.

The main objective of the PROJECT is research and development of future means of sustainable mobility by road and rail vehicles and their integration into transport systems with regard to the strategic development of the technical level of fields important for the economy of the Czech Republic, as well as short-term immediately realizable goals in industry. The means to achieve this goal is the establishment of a group of CONTRACTING PARTIES for long-term cooperation, which will take advantage of both synergies between related disciplines with similar fundamental development problems and synergies from cooperation between academic, research and industrial institutions, allowing to focus activities on critical problems applicable to the market of future transport vehicles.

Period

01. 01. 2023 – 30. 06. 2026

Zdroj

TAČR

Code

TN02000054

Leader

Ing. Robert Voženílek, Ph.D.

The main objective of the PROJECT is research and development of future means of sustainable mobility by road and rail vehicles and their integration into transport systems with regard to the strategic development of the technical level of fields important for the economy of the Czech Republic, as well as short-term immediately realizable goals in industry. The means to achieve this goal is the establishment of a group of CONTRACTING PARTIES for long-term cooperation, which will take advantage of both synergies between related disciplines with similar fundamental development problems and synergies from cooperation between academic, research and industrial institutions, allowing to focus activities on critical problems applicable to the market of future transport vehicles.

Period

01. 04. 2023 – 31. 12. 2028

Zdroj

TAČR

Code

TN02000054/003

Leader

Ing. Robert Voženílek, Ph.D.

The “BUSkit” system will be a modular system to support testing of on-board systems, the main purpose of which will be analysis, collection, filtering, simulation, emulation and injection of data on on-board buses (CAN bus, LIN, FlexRay, CarEthernet).

Period

01. 01. 2021 – 30. 06. 2023

Zdroj

TAČR

Code

CK02000158

Leader

Ing. Josef Novák, Ph.D.

The “BUSkit” system will be a modular system to support testing of on-board systems, the main purpose of which will be analysis, collection, filtering, simulation, emulation and injection of data on on-board buses (CAN bus, LIN, FlexRay, CarEthernet).

Period

01. 01. 2021 – 30. 06. 2023

Zdroj

TAČR

Code

CK02000158

Leader

Ing. Josef Novák, Ph.D.

The main goal of CENTAUR is to develop a new family of functional materials based on oxide ceramic matrix composites (CMCs) for parts and components in high temperature applications.

Period

01. 05. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

TH71020002

Leader

Ing. Mateusz Fijalkowski, Ph.D.

Produce a podcast special with nationwide reach about the implementation of Strategy 2030+ in innovative schools with which the faculty collaborates on their development. Enable the emergence of instructional methodologies for the introduction of innovations through model components of the school educational program (integrated subject, derived subject, school game, project). The methodology and podcast series will enable the dissemination of Strategy 2030+ to regional education.

Period

01. 01. 2023 – 31. 12. 2023

Zdroj

MŠMT

Code

MSMT-3399/2023-4

Leader

Mgr. Miroslav Slowik, Ph.D.

Fiber materials are currently a very effective tool in tissue engineering that uses them to create tissue scaffolds. Therefore, one of the challenges today is to modify the fibers with bioactive molecules to make them more effective in this area. However, in order to functionize fibers from conventionally spun polymers, it is usually necessary to optimize this step for each bioactive substance separately. Cyclodextrins are already commonly used as carriers of bioactive substances and can fulfill this function even if they are part of the fibrous material. The possibility of cyclodextrins to be modified by many different bioactive compounds is not only easy but also fast. Therefore, the preparation of cyclodextrin fibers represents a way to prepare a fully functional and at the same time universal material usable for the scaffolds. Although such materials are already being prepared, toxic substances (e.g. epichlorohydrin) are used for their synthesis. This project is focused on the preparation of fibers composed of cyclodextrins crosslinked with citric acid, i.e. substances of natural origin.

Period

01. 02. 2022 – 31. 12. 2024

Zdroj

Code

SGS-2022-3051

Leader

Ing. Petra Karmazínová

To enhance the capacity of Higher Education Institutes (HEIs) in fostering institutional engagement and change, strengthening partnerships, contributing to developing innovations and businesses, enhancing the quality of innovation and entrepreneurial education, and supporting knowledge sharing, with a focus on the deep tech talent initiative and specifically on the implementation and integration of 5G technology.

Period

01. 05. 2023 – 31. 08. 2024

Zdroj

EUK

Code

23609

Leader

doc. Ing. Aleš Kocourek, Ph.D.

Optical thin films and their deposition are still a very discussed topic. Even though deposition methods are already very advanced and it is possible to estimate the properties of a given layer to a large extent in advance, the deposition process itself often produces defects in the layers that are very difficult to detect and their effect may only become apparent after a certain period of time. This is particularly the case for defects at the layer interfaces. These defects can affect both the optical and mechanical properties of thin films. A vast number of methods have been developed for thin film characterization (and defect detection), of which optical methods are an important part. The aim of this work is to use an optical nonlinear phenomenon, the so-called second harmonic generation, to detect defects in selected samples. Initially, this method will be used primarily for samples with thin films of TiO2, SiO2, and others where delamination of the layers or degradation due to laser radiation may occur. Detection of second harmonic on such samples will allow effective recognition of these imperfections long before they become apparent.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-3334

Leader

Ing. Jakub Lukeš

Poly- and perfluoroalkylated compounds (PFAS) are a group of anthropogenic substances with extreme chemical and thermal stability, and unique hydrophobic and lipophobic properties. PFAS have been shown to be very dangerous for the environment due to their large industrial use combined with the aforementioned stability. The Stockholm Convention on Persistent Organic Pollutants (POPs) restricted their use and thus gave rise to their new alternatives with etheric oxygen or chlorine atoms. These new alternative compounds have not yet been fully investigated toxicologically, but studies to date indicate that they may also have serious effects on fauna and flora. Hence, there is a need to develop systems for removing these pollutants from contaminated water areas. Conventional wastewater treatment technologies have obvious shortcomings, and among their alternatives, nanotechnology is seen as one of the best and most promising technologies with magnetic nanoparticles appearing to be the most effective. These are further functionalized on their surface for the purpose of higher absorption capacity and better stability of nanoparticles in various environments. This project aims to design a magnetic nanoparticle system to maximize the ability to bind PFAS and subsequently remove them from contaminated waters.

Period

01. 03. 2023 – 31. 12. 2026

Zdroj

MŠMT

Code

LUAUS23155

Leader

doc. RNDr. Michal Řezanka, Ph.D.

The environmentally friendly, multifunctional conductive particles-based polymers is an ideal candidate for future new electronic components, especially sensors, supercapacitors, wearable electronics and monitor fields. In this study, conductive particles-based polymer films or composites deposited by chemical modification and novel surface coating techniques such as thiol click chemistry and inkjet printing will be comprehensively investigated. Cellulose, PVA and PVDF will be incorporated into the substrate. The multifunctional conductive particles- from copper ions, graphite, graphene and its derivatives will be compared. The proposed project will be therefore focused on investigation and evaluation of the differences in chemical composition, surface structure, and electrical properties of conductive materials prepared by different methods. The optimal selection of conductive particles for ensuring the required material properties will be realized.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6374

Leader

Ing. Blanka Tomková, Ph.D.

The aim of the project is to develop and innovative product – a lighter energy and environmentally friendly plastic blister suitable for robotic/automated packaging and handling and filling needs (iSMART). The project is designed to develop packaging material as well as a relevant forming machine with lower energy consumption. The development will focus on the final shape and design of blisters (product lines), as well as on the preparation and heating of the input semi-finished product and on the control of the technological process parameters. iSMART packaging will be equipped with technology that can detect or provide information about the packaged product or the packaging process itself. The project will use methods of advanced modeling of related physical and technological processes.

Period

01. 01. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

FW06010642

Leader

doc. Ing. Michal Petrů, Ph.D.

The aim of the project is to develop and innovative product – a lighter energy and environmentally friendly plastic blister suitable for robotic/automated packaging and handling and filling needs (iSMART). The project is designed to develop packaging material as well as a relevant forming machine with lower energy consumption. The development will focus on the final shape and design of blisters (product lines), as well as on the preparation and heating of the input semi-finished product and on the control of the technological process parameters. iSMART packaging will be equipped with technology that can detect or provide information about the packaged product or the packaging process itself. The project will use methods of advanced modeling of related physical and technological processes.

Period

01. 01. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

FW06010642

Leader

doc. Ing. Michal Petrů, Ph.D.

The aim of the project is to develop and innovative product – a lighter energy and environmentally friendly plastic blister suitable for robotic/automated packaging and handling and filling needs (iSMART). The project is designed to develop packaging material as well as a relevant forming machine with lower energy consumption. The development will focus on the final shape and design of blisters (product lines), as well as on the preparation and heating of the input semi-finished product and on the control of the technological process parameters. iSMART packaging will be equipped with technology that can detect or provide information about the packaged product or the packaging process itself. The project will use methods of advanced modeling of related physical and technological processes.

Period

01. 01. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

FW06010642

Leader

doc. Ing. Michal Petrů, Ph.D.

The aim is to develop high performance composites with functional properties for the engineering, construction and marine industries. The material is composed of a geopolymer matrix reinforced with fibres and fillers of natural or synthetic origin. The result will be an environmentally friendly composite suitable for underwater applications, providing more durable materials for corrosion protection of hazardous wrecks and critical underwater infrastructure, for construction purposes in turbulent and highly polluted environments, including protection from hazardous materials in wrecks. The specific part will be created in the form of prefabricated or 3D printed elements with the ability to be installed underwater. Desired properties: high compressive strength, low deformability, high resistance to water, chemicals including salts and chlorine, bioerosion, hazardous waste, oils and abrasion, long life, eco-friendliness, cost-effectiveness and low toxicity.

Period

01. 06. 2022 – 31. 05. 2025

Zdroj

TAČR

Code

TH80020007

Leader

doc. Ing. Adam Hotař, Ph.D.

The aim of the project is R&D of glass beads that will be in line with circular economy and ICT. R&D will be focused on the production of glass beads, which will contain in addition to traditional soda-potassium glass also ingredients obtained by recycling waste from various types of glass (flat, laboratory or decorative) or materials that have not been systematically recycled, such as fibers from composite materials. R&D will focus on the preparation of recycled materials (dust, shards, fibers), as well as on the composition of the resulting glass and the resulting visual effect. The 2nd project goal is the development of a glass bead that will allow jewelery to perform functions such as NFC or IoT. The methods of CAE, Rapid Tooling and 3D printing will be used for innovated glass beads.

Period

01. 11. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW02020240

Leader

doc. Dr. Ing. Ivan Mašín

The main aim of the project is the development leading to the production of heat exchangers with moisture recovery. The project is focused on the development of enthalpy materials for exchangers, which are able to transfer the moisture and heat between the crossing airflows. The main goals of the project are in particular:-optimisation and preparation of enthalpy membrane with desired properties,-optimisation of the laminated scheet construction/optimisation of the supportin material, -preparation the prototype of exchanger and verification of its properties.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010583

Leader

Ing. Mateusz Fijalkowski, Ph.D.

Aim is to develop hybrid technology enabling treatment and subsequent reuse of WW originating from pickling processes of steel and other metals, which are characterized by high concentrations of nitrogen, fluorides and metal ions making them difficult to treat by conventional methods. Technology will be based on combination of precipitation methods and denitrification bioreactor supported by biomass carriers (nitrate reduction). Adapted denitrification consortia will be isolated and lyophilized, allowing their subsequent use in other systems. Technology will be placed in transport container and will be equipped with advanced control system, including online access. Since main recipient supplies pickling technologies all over the world, technology will be applied mainly in foreign markets.

Period

01. 01. 2023 – 31. 12. 2026

Zdroj

TAČR

Code

FW06010536

Leader

Ing. Mgr. Lukáš Dvořák, Ph.D.

The aim of the project is to develop completely new solitary acoustic elements for the solution of spatial acoustics, it is a complex design and optimization of parameters of five types. The uniqueness of the technical solution, as well as the design, is related to the use of innovative technology of nanofibers prepared by three different technologies, whose unique connection enables nanofibers to be deposited on the surface and also into the space of designed 3D constructions, in order to prepare sound-absorbing systems based on synergy of membrane resonator (thin layer), a cavity resonator (the principle of Helmholtz resonator) and a filler with a huge specific surface (volume nanofibrous structure), which allows variable acoustics of the solved space to achieve the acoustic need.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010088

Leader

doc. Ing. Klára Kalinová, Ph.D.

The aim of the project is to develop completely new solitary acoustic elements for the solution of spatial acoustics, it is a complex design and optimization of parameters of five types. The uniqueness of the technical solution, as well as the design, is related to the use of innovative technology of nanofibers prepared by three different technologies, whose unique connection enables nanofibers to be deposited on the surface and also into the space of designed 3D constructions, in order to prepare sound-absorbing systems based on synergy of membrane resonator (thin layer), a cavity resonator (the principle of Helmholtz resonator) and a filler with a huge specific surface (volume nanofibrous structure), which allows variable acoustics of the solved space to achieve the acoustic need.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010088

Leader

doc. Ing. Klára Kalinová, Ph.D.

The project focuses on the development and testing of new coatings primarily used to protect building materials such as concrete, brick, roofing, facades, glass, or natural stone from the growth of undesirable microorganisms (bacteria, algae, mould). The inhibitory function of these coatings is based on a photocatalytic phenomenon that uses solar energy to initiate redox reactions. The sequence of redox reactions causes the decomposition of organic pollutants, and thus of unicellular organisms. The individual layers are developed with respect to the specific requirements of each material and specific application sites. For example, they take into account the increased need for abrasion resistance and hydrophobicity for roofing materials or transparency for bricks.

Period

01. 02. 2022 – 31. 12. 2023

Zdroj

MŠMT

Code

SGS-2022-3024

Leader

Ing. Michaela Petržílková

The proposed project extends results of previous R&D activities of the project applicant. The aim is to apply the acquired R&D experince and knowledge for development of new generation of novel technology of Spray Nebulization Drying. The new generation of the technology will eliminate disadvantages and problems of the previous technological solutions, determined during drying, micronization / nanonization, or encapsulation of different kinds of materials with the output in the form of fine powders with predominantly submicron size of the particles. The particular aim is to finalize a technical solution of separation of the powdered products from drying air flow leaving a drying chamber of the Spray Nebulization Dryer with the sufficient efficiency for intended industrial applications.

Period

01. 01. 2023 – 30. 06. 2024

Zdroj

TAČR

Code

FW06010377

Leader

Ing. Jakub Hrůza, Ph.D.

The proposed project extends results of previous R&D activities of the project applicant. The aim is to apply the acquired R&D experince and knowledge for development of new generation of novel technology of Spray Nebulization Drying. The new generation of the technology will eliminate disadvantages and problems of the previous technological solutions, determined during drying, micronization / nanonization, or encapsulation of different kinds of materials with the output in the form of fine powders with predominantly submicron size of the particles. The particular aim is to finalize a technical solution of separation of the powdered products from drying air flow leaving a drying chamber of the Spray Nebulization Dryer with the sufficient efficiency for intended industrial applications.

Period

01. 01. 2023 – 30. 06. 2024

Zdroj

TAČR

Code

FW06010377

Leader

Ing. Jakub Hrůza, Ph.D.

The aim of this project is to create a diagnostic tool for assessment of motor competence level in children aged 6 to 9 years. It will be aimed at primary school teachers who do not have a non-clinical tool for the motor competence screening. It will be feasible in routine teaching in the school environment to identify children with motor difficulties who may, in a difficult form, indicate dyspraxia classified as a specific learning disorder. Evaluation of the motor competence will be facilitated by the creation of a simple online program (available on the workplace website. After the evaluation of possible weaknesses, it is possible to follow with methodological sheets – specific focus on the weakened area. PID: TL03000221 FX

Period

01. 06. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

TL03000221

Leader

PhDr. Iva Šeflová, Ph.D.

The aim of this project is to create a diagnostic tool for assessment of motor competence level in children aged 6 to 9 years. It will be aimed at primary school teachers who do not have a non-clinical tool for the motor competence screening. It will be feasible in routine teaching in the school environment to identify children with motor difficulties who may, in a difficult form, indicate dyspraxia classified as a specific learning disorder. Evaluation of the motor competence will be facilitated by the creation of a simple online program (available on the workplace website. After the evaluation of possible weaknesses, it is possible to follow with methodological sheets – specific focus on the weakened area. PID: TL03000221 FX

Period

01. 06. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

TL03000221

Leader

PhDr. Iva Šeflová, Ph.D.

Additive manufacturing or 3D printing enables the realization of customized designs; 3d glass printing is a promising technique to realize customized glass structures and designs that can operate as optical sensors. Directed energy deposition (DED) is a promising printing technology that could be used to print glass objects. This project aims to realize 3D glass printing using DED technology and reach optimized printing conditions that would assure the quality and homogeneity of the printed structure.

Period

01. 03. 2023 – 30. 11. 2025

Zdroj

MŠMT

Code

SGS-2023-5321

Leader

doc. Ing. Vlastimil Hotař, Ph.D.

The ascent of artificial intelligence in edge computing and the accompanying ascent of cloud storage and computing has swept over Europe without any local winners and, at times, in clear conflict with the European way of life. The cloud paradigm is based on technologies that are dominated by American and Chinese companies. The commercial approach towards privacy of the American companies and the governmental interference of the Chinese companies makes Europe’s dependence these technologies undesirable. At the same time the demand for artificial intelligence is pulled from the current devices that roughly equal the capacity of a laptop towards devices that have a significantly smaller footprint but a much higher prevalence. The highest benefit of using these smaller devices is found when used very close to where reality is sensed or influenced. This calls for small, low cost, distributed devices. These types of devices makes using centralized architectures, such as cloud solutions, less logical and opens the door for a paradigm switch towards distributed thinking (for example peer-to-peer, mesh). This switch also provides Europe with an opportunity to catch up and provide solutions that show European values such as energy efficiency, self organisation and privacy by design. This project builds a consortium that delivers a solution in each of the key application areas of which all smart, AI enabled, components are delivered by European members of the consortium based on the key European values named above.

Period

01. 05. 2021 – 30. 04. 2024

Zdroj

EUK

Code

101007273-1

Leader

doc. Ing. Michal Petrů, Ph.D.

The ascent of artificial intelligence in edge computing and the accompanying ascent of cloud storage and computing has swept over Europe without any local winners and, at times, in clear conflict with the European way of life. The cloud paradigm is based on technologies that are dominated by American and Chinese companies. The commercial approach towards privacy of the American companies and the governmental interference of the Chinese companies makes Europe’s dependence these technologies undesirable. At the same time the demand for artificial intelligence is pulled from the current devices that roughly equal the capacity of a laptop towards devices that have a significantly smaller footprint but a much higher prevalence. The highest benefit of using these smaller devices is found when used very close to where reality is sensed or influenced. This calls for small, low cost, distributed devices. These types of devices makes using centralized architectures, such as cloud solutions, less logical and opens the door for a paradigm switch towards distributed thinking (for example peer-to-peer, mesh). This switch also provides Europe with an opportunity to catch up and provide solutions that show European values such as energy efficiency, self organisation and privacy by design. This project builds a consortium that delivers a solution in each of the key application areas of which all smart, AI enabled, components are delivered by European members of the consortium based on the key European values named above.

Period

01. 05. 2021 – 30. 04. 2024

Zdroj

MŠMT

Code

101007273-1

Leader

doc. Ing. Michal Petrů, Ph.D.

European Digital Innovation Hub – Northern and Eastern Bohemia, builds on the existing connection between expert and technological know-how of progressive digitization activities of its partners providing long-term services in the field of digital transformation of SMEs and public institutions, innovation, technical education and basic and applied research – all linked to artificial intelligence and cybersecurity.

Period

01. 05. 2023 – 30. 04. 2026

Zdroj

EUK

Code

101120003

Leader

Ing. Jan Kočí

he project focuses on the creation of advanced multilayer filter material with antibacterial effect, specialised mainly on highly resistant pathogenic microorganisms. The antibacterial layer is based on nanofiber carriers with encapsulated bacteriophages. Bacteriophages are viruses that specifically attack and kill bacteria and are a safe alternative to antibiotics and antiseptics. The filter material will consist of layered prefilters, a nanofiber carrier of bacteriophages and nanofiber layers for the capture of nanoparticles and viruses. The aim of the project is to create new filter material for the active elimination of biological contaminants in air conditioning applications (eg hospitals, offices) leading to increased environmental safety and prevention of the spread of pathogens.

Period

01. 01. 2022 – 31. 12. 2023

Zdroj

MV

Code

VB01000025

Leader

Ing. Jakub Hrůza, Ph.D.

The result will be a functional sample of a device for spinning polymer solutions by the effect of an alternating electric field (AC electrospinning) including an energy-saving system for driving wire electrodes. The benefit will be a significant saving of electricity, a reduction in the number of drives and an increase in the uniformity of the produced nanofibrous layer.

Period

01. 04. 2023 – 30. 06. 2026

Zdroj

TAČR

Code

TN02000018

Leader

prof. Ing. Jaroslav Beran, CSc.

The Enhanced Innovative In Situ Biotechnologies for Contaminated Land Remediation (EiCLaR)” project integrates biological and non-biological processes to extend the sustainability and cost effectiveness benefits of in situ bioremediation (ISBR) to a far wider range of land contamination problems. Bioremediation of contaminated sites has grown exponentially since the early 1990’s, but the applications of different biotechnologies have levelled off in part because of their inability to deal with complex environments in a rapid and competitive manner. Our objective is to lift biotechnologies to new performance levels through the fusion of these approaches with non-biological processes. Targeting difficult and/or complex contaminant mixtures and sites, we will develop and market innovative biotechnologies for contaminant destruction. We will produce cutting-edge, effective, and sustainable remediation alternatives, capable of practical and commercial deployment within three years after EiCLaR is completed.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

EUK

Code

SEP-210657807

Leader

Ing. Jaroslav Nosek, Ph.D.

As a vital part of smart textiles, luminous textiles are gaining attention for their innovation, wearability, and feasibility. Different techniques can be used to incorporate luminescence into textiles: including employing the luminous fiber fabricating the planar luminous fabrics or combining polymer optical fibers (POFs) with exterior light-emitting elements (e.g. LEDs) and so on. In particular, POFs have promising applications in textile integration, such as fashion design, safety fabrics, medical phototherapy, and wearable sensors, as they have yarn-like characteristics and can be processed into fabric weaves. Many efforts are being made to enhance the side emitting of POF-incorporated fabrics. The chemical method using various solutions such as hydrofluoric acid (HF) for GOF and organic solvents for POF was employed by different researchers for removing the POF cladding. However, it is reported that it is hard to control the etching degree for POF-incorporated fabrics by applying the organic solvent, and correspondingly it is difficult to control final side illumination. It has been observed that control of the organic solvent components could deaccelerate the etching rate and may support better control of the etching degree. In this work, different acetone/methanol mixtures are prepared, and ratios of acetone to methanol range from 0 to 100%. The acetone/methanol mixture is applied to treat POF-incorporated fabrics. The morphology, side illumination behavior, breathability, and thermal comfort of all the samples are investigated. As a result, the optimal acetone/methanol mixture to enhance the side illumination of POF-incorporated fabrics will be obtained.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6353

Leader

Ing. Blanka Tomková, Ph.D.

Currently, the high visibility garments in particular are tested under idealised conditions, where it is a priori assumed that fluorescent fabrics, which are usually yellow, orange or red, will be effective during daylight hours, and retroreflective tapes during nighttime hours. Testing is usually done against a dark background. There is a high contrast between the illuminated pedestrian and the relevant background, which makes it easier to distinguish between people. However, in real-life situations, typically in urban conurbations, the situation is considerably more complicated and drivers are affected by a variety of distracting light sources. The resulting contrast, which is dominated by luminance contrast, is significantly less and in many cases below the threshold of discriminability. In this project, therefore, a questionnaire survey of drivers and traffic experts will first be carried out using the design thinking method, focusing on critical traffic sections. Subsequently, simplified simulations of relevant traffic situations will be designed to extend the existing laboratory platform for visibility research to the LCAM KMI. Based on visual tests with a group of probands, a set of garment designs with contrast performance will be selected, based on which functional samples will be prepared. In the subsequent phase of the project, field tests will be carried out at selected locations in cooperation with the Police of the Czech Republic and the test polygon of VSB – Technical University of Ostrava.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6385

Leader

Ing. Blanka Tomková, Ph.D.

The E-DRESS project aims to improve the digital readiness of teaching, technical staff, and create course content according to the new challenges of online/blended learning for clothing studies.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

EUK

Code

2021-1-DE01-KA220-HED-000023124

Leader

Ing. Adnan Ahmed Mazari, Ph.D.

The main aim is to look into the influence of irradiation on the compacted Ca-Mg bentonite – carbon steel system under anaerobic conditions, thermally affected up to 150°C and a focus on accelerated corrosion rates in comparison with non-irradiated system under anaerobic conditions in anaerobic box. Complementary system heated up to 90 °C will also be available. Moreover, the proposed experimental programme will enable us to study survivability of microorganisms in extreme transient conditions. The second goal is therefore to prove the assumption of limited microbially induced corrosion (MIC) under the high stress load and to assess the survivability of bacteria (regenerated from spores) that can be involved in MIC after transients are over. We propose a hypothesis that heat and radiation will have a more deleterious effect on survivability in water saturated (and dispersed) samples than in desiccated ones.

Period

01. 06. 2021 – 31. 05. 2024

Zdroj

EUK

Code

847593

Leader

Mgr. Kateřina Černá, Ph.D.

The MAGIC WP will assess the impact of several simultaneous chemical processes (hydrolysis, multi-ionic attack (i.e. sulfate and magnesium), carbonation) on the mechanical properties of cementitious materials and their evolution. The WP proposes different processes to assess the long-term performance of cement based materials, including a hydraulic transient (re-saturation period with waters from different geological media). It will leverage and build on the advances on past and current European projects (mainly CEBAMA, PREDIS, ACED, DONUT WPs) and explicitly exclude the repetition of activities conducted in these previous or ongoing projects. The final goal is to obtain an improved understanding of chemo-mechanical ageing of cementitious materials exposed to various representative chemical disturbances coming from the disposal environment.

Period

01. 06. 2021 – 31. 05. 2024

Zdroj

EUK

Code

847593

Leader

Mgr. Veronika Hlaváčková, Ph.D.

The idea of the project DigiMat has arisen from the observed inconsistency between the digitalized world of the present times and the educational system that to high extend do not come up with the contemporary expectations. In fact, the critical time of pandemic situation of COVID-19 revealed the problems of transformation of traditional forms of teaching and learning to digital way that arose in the form of global educational crisis. Although the ICT technologies are already present in modern, innovative education, still the research, experimental and technology-oriented subjects (such as materials science and engineering) may greatly benefit from support for teachers that wants to conduct them in an on-line form and satisfy high students involvement, motivation and creativity. The proposed project aims at increasing the teachers capability to conduct technology-oriented subjects/projects digitally in student-oriented manner. The devotion of teachers in the transformation of their classes for the purpose of distant-learning requires basing on good practices of international consortium. Additionally, the approach towards new forms of education should cover the understanding of the needs and motivators of students that can be consciously used to stimulate the learning process. It also seems significant to constantly modify the taught content at the level of higher education, to integrate it firmly with the environment of scientific research.

Period

01. 01. 2022 – 01. 07. 2024

Zdroj

EUK

Code

KA220-HED-44AF55F1

Leader

doc. Ing. Adam Hotař, Ph.D.

Aim of this project is to improve understanding of blade flutter in turbomachines. Based on experience of the project applicant at NASA GRC, a new quasi-stationary method is proposed, relying on the assumption that the dynamically induced pressure bursts due to blade oscillations are noticeably weaker than the blade load variations due to changes of the blade incidence angle. The range of Strouhal numbers, where this assumption is valid, will be verified by correlating a series of stationary measurements and CFD simulations at gradually increasing blade pitching angle with dynamic data obtained on an oscillating blade. Current modular test section will be adapted in order to allow using driving mechanism for forced oscillations of an instrumented blade cascade. This will make possible to measure unsteady pressure load on the blade surface and flow velocity in the wake. The new method will allow to simply estimate unsteady aerodynamic load on blades in turbomachines that leads to blade aeroelastic instability (flutter), which causes blade failures and severe damage in turbomachinery.

Period

01. 01. 2020 – 30. 06. 2023

Zdroj

GAČR

Code

20-11537S

Website

www.gacr.cz

Leader

doc. Ing. Petr Šidlof, Ph.D.

Failure prediction of parts made of fiber composite materials is complicated due to their ortotropy. Many failure criteria are used for failure prediction, but their reliability is lower than in case of isotropic material. It is not always possible to perform structural experimental validation of the simulation model. Therefore, material multiaxial tests are used to calibrate the failure criteria. The goal of the project is to improve failure prediction of fiber composites. Biaxial mechanical tests with strain measurements by digital image correlation method will be performed. Simultaneously, in addition to the experimental model, a computational model based on finite element method will be developed. This model will be calibrated with experimental data obtained from mechanical tests. Gained knowledge will be used for the design and failure prediction of: 1) composite blade for dynamic tests in transonic wind tunnel and 2) heated composite battery box.

Period

01. 02. 2023 – 31. 12. 2024

Zdroj

MŠMT

Code

SGS-2023-3378

Leader

Ing. Václav Vomáčko

The proposed project aims on the contingent claim framework in connection with novel numerical tools of real options valuation to measure the embedded flexibility of various investment opportunities and to significantly improve the decision-making process. Within the project, firstly relevant real options valuation problems will be formulated by systems of governing equations or inequalities. Secondly, particular numerical tools based on discontinuous Galerkin method and wavelet methods will be analyzed, ranging from individual one-factor models to advanced multiple factor ones, including stochastic model parameters or other random variables, all with respect to various categories of real options. Simultaneously with the valuation procedure, the attention will be paid to linking properties of developed numerical schemes to the entire decision-making process from the practical and theoretical point of view. As a result, this implementation procedure will lead to proper and factual interpretation of investment, especially with respect to case studies of practical significance.

Period

01. 01. 2022 – 31. 12. 2025

Zdroj

GAČR

Code

22-17028S

Leader

RNDr. Mgr. Jiří Hozman, Ph.D.

Flow control is rapidly developing as a key technological area relevant to several important engineering sectors (among others production of nanofibres). The main objective of the proposed project is to improve the knowledge on generation of various types of flows using: Corona Discharge (CD), Dielectric Barrier Discharge (DBD) and Electrohydrodynamics (EHD). These mechanisms have several major advantages over commonly used methods – mainly no moving parts, reliability and high energy efficiency. Only basic scientific description of aforementioned mechanisms interacting with surrounding matter is currently available. It is thus the authors purpose to describe the phenomena in great detail and verify these theoretical descriptions via numerical simulations and practical experiments.

Period

01. 05. 2020 – 31. 12. 2023

Zdroj

TUL

Code

PURE-2020-6009

Leader

Ing. Jiří Primas, Ph.D.

The project responds to the following needs and goals of organizations: (1) The need to modernize educational curricula of the sciences according to current challenges and trends and to make educational programmes more attractive for students (teachers to be) and teachers who are interested in further education of pedagogical staff programmes. (2) The need to develop international cooperation which brings space for valuable exchange of experience, approaches, know-how and good practice, as well as a potential for further cooperation on joint projects (e.g. within ERASMUS+ programme).

Period

01. 08. 2021 – 31. 07. 2023

Zdroj

DZS

Code

EHP-CZ-ICP-3-017

Website

https://kge.fp.tul.cz/veda-a-vyzkum?view=article&id=118&catid=19

Leader

doc. Dr. RNDr. Kamil Zágoršek

Expanding the application of the machine for the production of medical functionalized covers with a nanofiber component for the treatment of local violations of the integrity of the human body.

Period

01. 12. 2022 – 30. 06. 2023

Zdroj

MPO

Code

CZ.01.1.02/0.0/0.0/20_358/0028029

Leader

prof. Ing. Ladislav Ševčík, CSc.

The aim is to develop a new composite material intended primarily as a construction material for the creation of a lightweight multifunctional box for electric batteries for vehicles with electric drive. The composite material will provide: low weight, high specific mechanical properties including impact toughness and vibration resistance, effective control of thermal conditions in the box, longer life, fire safety, static charge limitation, corrosion resistance, electromagnetic compatibility and high resistance to water and water vapor penetration. The composite material will consist of an epoxy matrix reinforced with carbon multifilaments with a suitably activated surface filled with conductive carbon particles based on graphene and expanded graphite of optimized size and concentration.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

TM03000010

Leader

doc. Ing. Michal Petrů, Ph.D.

Carbon fiber reinforced composites have superior mechanical properties. They also have many unique properties, such as high specific strength, specific stiffness, fatigue resistance, and corrosion resistance. Their remarkable light weight and excellent performance make them the material of choice for aerospace, automotive, public infrastructure, industrial equipment, medical devices, and so on. However, carbon fiber reinforced composite products necessitate highly technological inputs and operations. If the production is not done precisely, a number of issues such as pores, cracks, disordered fiber layers, and interface cracking are likely. It will have a significant impact on the product’s mechanical performance. Furthermore, due to the short curing time of the matrix system, it is extremely difficult to incorporate filler particles into the matrix system. The most common epoxy resin has a high viscosity, leading to the filler particles’ dispersion after mixing with the curing agent is also affected. An important way to improve this problem is to use a water dispersed epoxy resin matrix. This kind of matrix has a very positive effect on the infiltration of carbon fibers. Under the action of a special catalysts, the water dispersed epoxy resin matrix does not need a curing agent, and cross-linking can occur at a certain temperature. After the water evaporates, the matrix can be evenly distributed in the reinforced material structure. Thereby reducing bubbles, cracks, and other defects that affect the mechanical properties of the composite material due to uneven distribution of the matrix. On the other hand, the viscosity of the water dispersed epoxy resin matrix is lower, which is more suitable for the distribution of doping particles. In this project, the target is to optimize the selected properties of the carbon filaments reinforced composites with a water dispersed epoxy resin matrix by changing the ratio of resin to catalyst, the curing temperature, and the doping particles. The introducing of the doping particles, such as expanded graphite, graphite, and graphene will be optimized for enhancing electrical properties. The influence of ratio of resin to catalyst and curing temperature on the mechanical and thermal properties will be investigated and compared with predicted values. The developed carbon filaments reinforced composites will exhibit superior mechanical, thermal and electrical properties that fulfill higher application requirements in the automobile manufacturing and aerospace industries as potential composite materials.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6375

Leader

Ing. Blanka Tomková, Ph.D.

The aim of the project is to increase the safety of motorcyclists, specifically by decreasing the accident rate by means of a sophisticated software application using comparation and riding telemetry (inclination, overload and the motorcyclist’s behaviour) which will be used by driving instructors and motorcycle training instructors. The project outcomes include training of motorcyclists and instructors based on feedback on the data measured and on any measures taken to ensure safe motorcycle riding. The project goal is to increase the safety of motorcyclists in two ways: 1. Enhancing the quality of training in driving schools thanks to the new application aimed at monitoring the improvement of driving skills of the students during the course 2. Enhancing the quality courses.

Period

01. 02. 2022 – 28. 02. 2025

Zdroj

TAČR

Code

CK03000186

Leader

Ing. Bc. Marián Lamr, Ph.D.

The aim of the project is to increase the safety of motorcyclists, specifically by decreasing the accident rate by means of a sophisticated software application using comparation and riding telemetry (inclination, overload and the motorcyclist’s behaviour) which will be used by driving instructors and motorcycle training instructors. The project outcomes include training of motorcyclists and instructors based on feedback on the data measured and on any measures taken to ensure safe motorcycle riding. The project goal is to increase the safety of motorcyclists in two ways: 1. Enhancing the quality of training in driving schools thanks to the new application aimed at monitoring the improvement of driving skills of the students during the course 2. Enhancing the quality courses.

Period

01. 02. 2022 – 28. 02. 2025

Zdroj

TAČR

Code

CK03000186

Leader

Ing. Bc. Marián Lamr, Ph.D.

Creation the special multilayers with specific properties on the austenitic steels. Optimalization under the laboratory conditions (high-temp. fatigue tests, erosion and cavitation wear), application as turbine components. 2. Creation a turbine blade prototype with increased entering edge resistance and its testing in a real environment. 3. Creation the special multilayers with specific properties on martensitic steels. Optimalization under the laboratory cond. (high temp. tribology and low-cycle fatigue tests), with subsequent application as overspeed devices and control elements. 4. Creation the special multilayers with specific properties on carbon steels. Optimalization under the laboratory conditions (tribology, fatigue, etc.), followed by the application as gears in compressors

Period

01. 01. 2022 – 31. 12. 2025

Zdroj

TAČR

Code

TK04020148

Leader

doc. Ing. Jaromír Moravec, Ph.D.

1. The estimation of the influence of radiolysis on oxidation-reduction properties of bentonite pore solution and stability and semiconductive properties of passive layer od stainless steel 316L. 2. The estimation of the influence of radiolysis on uniform corrosion rate and susceptibility to localised forms of corrosion of stainless steel. 3. The estimation of the influence of bentonite pore solution composition changes by sulphate-reducing bacteria and the susceptibility of stainless steel to pitting corrosion. 4. The estimation of the influence of extreme bentonite pore solution composition changes under the biofilm of sulphate-reducing bacteria and the effect on stress corrosion cracking of carbon and stainless steel.

Period

01. 09. 2020 – 31. 08. 2023

Zdroj

TAČR

Code

TK03010067

Leader

RNDr. Alena Ševců, Ph.D.

Aerogels have ultra-high nano-porous structures, which enabled them to be optimal candidates for thermal protecting materials. However, most aerogels are mechanically brittle and are not suitable for thermal insulation of structures with complex geometries where material’s flexibility is required. Rather than “inducing” the flexibility in the structure, i-FACES will produce single component “inherently flexible aerogels” based on classes of polyolefins and polyvinyls with inherent mechanical flexibility at the ambient thermal conditions. Also, advanced composites of the developed aerogels with smart functionalities based on thermochromic materials will be developed. Furthermore, recycled materials will be utilized in this research for the creation of aerogels with more ecological impact.

Period

01. 12. 2020 – 30. 04. 2024

Zdroj

TAČR

Code

TO01000311

Leader

doc. Ing. Stanislav Petrík, CSc.

The aim of the project is to develop innovative remediation technology for sites with an inorganic type of groundwater pollution. The basic idea is to connect the detailed study of vertical stratification of contaminant in avod (Functional sample of equipment for measuring vertical stratification of inorganic contamination allowing localization of phase interface) followed by a professional study of the natural vertical stratification of inorganic contamination in avod. At the same time, a device for innovative in situ direct-push injection technology will be built to apply a remediation mixture developed on the basis of results. All developed technologies will be applied and verified directly on the site. The results of the project will significantly increase competitiveness.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010511

Leader

Ing. Jaroslav Nosek, Ph.D.

This project will provide a means of mitigating risks to water from HCH megasites using Wetland+ and the means by which this can be replicated across the EU and globally. We will benchmark its performance, ease of deployment and sustainability against conventional approaches. While we target megasites because of their importance the approach is also down-scalable for smaller problem sites. Specific objectives are: 1) A large scale pilot Wetland+ prototype will be established at Hajek (CZ), “P1” based on already completed R&D and scale up to large pilot. P1 will exhibit system performance at a commercially relevant scale and provide an exemplar to support replication. Key performance attributes, cost drivers and wider sustainability outcomes will be monitored. Process refinement to support scale up will be developed. 2) A field pilot deployment prototype will be carried out at Jaworzno (PL), “P2”. P2 will exhibit the site specific replication pathway for this technology to other sites, taking into account site differences such as contamination context, hydrogeological conditions, microbial communities, and local resources such as sorbent materials, across the different stages of Wetland+ (abiotic redox, sorbent systems, biodegradation and wetland). 3) A specific project replication process will be established and a progression of candidate sites will be actively canvassed, with the intention of taking several through to feasibility study stage. This will be supported by targeted outreach and communication to extend the audience and potential for replication; and also a business model to service replication needs. 4) Innovations in performance monitoring to improve replication and reduce management costs will be investigated. Several routes to green monitoring and analysis will be explored, e.g. via HCH monitoring in tree biomass. 5) We will take advantage of the P1 and P2 deployments to further optimise the Wetland+ process, by developing enhanced understanding of key process stages, investigating the use of renewable energy and resources in deployments, developing process control strategies for remote locations and optimisations for downsizing and potentially extending the range of treatable contaminants. 6) Targeted communication and dissemination will ensure that the outcomes of this project are channelled to different audiences and interest groups on a global basis, but particularly within Europe.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

EUK

Code

LIFE18 ENV/CZ/000374

Leader

prof. Dr. Ing. Miroslav Černík, CSc.

TUL own co-financing for LIFEPOPWAT project.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

Code

LIFE18 ENV/CZ/000374

Leader

prof. Dr. Ing. Miroslav Černík, CSc.

As part of the applicant’s previous research and development, a 3D nanofibrous biomass carrier was developed, which is based on the know-how of the applicant and its partners. Both the product itself (biomass carrier), the method of its production and the own production equipment were developed. For the necessary completion of the product to the commercialization phase, its independent verification, especially the verification of its functional properties and effectiveness, by an independent professional institution is absolutely necessary.

Period

01. 04. 2023 – 30. 06. 2023

Zdroj

MPO

Code

CZ.01.1.02/0.0/0.0/20_358/0028236

Leader

Ing. Mgr. Lukáš Dvořák, Ph.D.

The goal of the project is primarily the development of the surface treatment, but also the design and testing of a suitable combination of materials used with the aim of increasing the fire resistance of the propulsion battery cases used in our particular case in light aircraft, with the main consideration being the requirement of the required minimum weight.

Period

01. 04. 2023 – 31. 07. 2023

Zdroj

MPO

Code

CZ.01.1.02/0.0/0.0/20 358/0028223

Leader

Ing. Karolína Voleská, Ph.D.

The aim of the first project stage is the research and development of two new high tech textiles (sandwich and carpet type) designed for “coarse” filtration of particles bigger than 5 μm while machieving of flow 2,5 l/s*m2 at pressure drop 1,5-3 kPa which will be applicable for filtration devices based on disc or drum configuration currently produced by IN- EKO. The goal of second mperiod is the research and development of the micro-filtration membrane with nanofiber layer for mfiltration of particles bigger than 300 nm with the mean flow 0,1 l/s*m2 at pressure drop 10 – 30 kPa.Further research will be aimed on the development of filtration device utilizing the micro – filtration membrane, which will operate at throughput reaching as far as 5 m3/h of recycled waters for other technical usage.

Period

01. 01. 2020 – 31. 10. 2023

Zdroj

TAČR

Code

FW01010306

Leader

prof. Dr. Ing. Jiří Maryška, CSc.

The aim of the first project stage is the research and development of two new high tech textiles (sandwich and carpet type) designed for “coarse” filtration of particles bigger than 5 μm while machieving of flow 2,5 l/s*m2 at pressure drop 1,5-3 kPa which will be applicable for filtration devices based on disc or drum configuration currently produced by IN- EKO. The goal of second mperiod is the research and development of the micro-filtration membrane with nanofiber layer for mfiltration of particles bigger than 300 nm with the mean flow 0,1 l/s*m2 at pressure drop 10 – 30 kPa.Further research will be aimed on the development of filtration device utilizing the micro – filtration membrane, which will operate at throughput reaching as far as 5 m3/h of recycled waters for other technical usage.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010306

Leader

prof. Dr. Ing. Jiří Maryška, CSc.

The submitted project adds one new strategic goal to the existing Strategic Plan CxI: establishing of the research institutes joint with a foreign partner. During the implementation of the project, the manuals will be prepared on the topics: How to select a suitable partner for a joint research institute, How to proceed in creating joint research institutes and How to operate and manage a joint research institute. These guidance documents will be created in cooperation with existing partners and also with new partners, especially from the EU. In the next phase of the project implementation, the accuracy and functionality of these documents will be verified by a pilot establishment of two joint research laboratories. As part of the project objectives, a number of training events will take place for existing and new researchers, managers and administrators. All planned educational events are focused on the development of skills and competencies needed to acquire foreign partners, to maintain and develop the intensity of international relations in science and research with focus on the establishment and sustainable operation of joint international workplaces.

Period

01. 03. 2020 – 30. 06. 2023

Zdroj

MŠMT

Code

CZ.02.2.69/0.0/0.0/18_054/0014685

Leader

Mgr. Adam Blažek, MBA

Microbial infections challenge successful treatment of many injuries. New technologies accelerating healing, reducing microbial risks, and not increasing a chance of antimicrobial resistance are intensively sought. The project aims to develop electrospun nanofibrous materials with shish-kebab structure (NFSK) mimicking bactericidal structures occurring on insect´s wings. The possibility of targeted influencing of prokaryotic and eukaryotic cells interactions with the NFSKs via morphology and structure modifications will be investigated. The ideal NFSK should inhibit growth of undesirable microorganisms without the need of functionalization, and be biocompatible. Microbial interactions with the NFSKs in forms of single fibers and layers, specifically adhesion, biofilm formation, oxidative stress response, and degradation will be analyzed. Further, biocompatibility of the NFSKs will be verified. Proposed set of objectives has not been reported in literature so far, thus the project deliverables can significantly facilitate the development of a new generation of biomaterials.

Period

01. 01. 2023 – 31. 12. 2025

Zdroj

GAČR

Code

23-05154S

Leader

prof. RNDr. David Lukáš, CSc.

One of the partial aims of the project iTEM – Improve Teacher Education in Mathematics is to develop and make more intensive the fruitful cooperation between the employees of the Department of Mathematics and Didactics of Mathematics of the Faculty of Science, Humanities and Education of the Technical University of Liberec and the colleagues of the Faculty of Education and Arts of the NORD University in Bodo in the area of improving teacher education in Mathematics in both the partner universities. The project has two objectives in unity. The first goal of the project is to prepare teacher students to master the challenges of the increasing diversity (including Roma inclusion) of students in a class. The second goal is to prepare teacher students to meet the challenges of using digital tools both as a subject and as a tool for teaching.

Period

01. 08. 2020 – 31. 07. 2023

Zdroj

DZS

Code

EHP-CZ-ICP-2-018

Website

https://kmd.fp.tul.cz/cs/activities/item

Leader

Mgr. Daniela Bímová, Ph.D.

Organochlorines (OCs), such as chlorinated ethenes and polychlorinated biphenyls, still constitute an important environmental problem due to actual and/or potential contamination of soils or drinking water sources. Although microbial degradation of OCs has been extensively studied, there is paucity of knowledge about the distribution of OC degradation genes at contaminated sites and their link to phylogenetic information in individual taxa. In this project, we aim to understand patterns in the distribution of vital biodegradative functions and the phylogenetic origin of bacteria that perform these functions. Specifically, our main objectives are to: reveal patterns in the distribution of selected OC degradation (bphA and rdhA) genes in indigenous communities at contaminated sites and their link to phylogeny; investigate the contribution of extrachromosomal DNA to the distribution of OC degradation genes in the environment; elucidate the capability of bacterial consortia to adapt to elevated concentrations of OCs by up-regulation and dissemination of particular rdhA genes.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

GAČR

Code

22-00150S

Leader

RNDr. Alena Ševců, Ph.D.

The aim of the project is to contribute to the general increase of competitiveness of participating parties. There should be developed new methodologies for using of virtual numerical simulation of manufacturing processes as assembly process. Implementation of validated methodologies of numerical simulation of assembly process including processes as riveting, adhesive bonding and heat curing enable optimisation of real manufacturing and reduction of production costs and thus contribute to general increase of competitiveness of industrial companies. The main features of the presented project is creation of numerical model as the virtual twin for the solution of the production process of selfsupporting body in white assemblies, cabs, also chassis and their main subassemblies.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010197

Leader

doc. Ing. Pavel Solfronk, Ph.D.

The current project aims to generate magnetic photocatalysts to degrade antibiotics found in water bodies, such as sulfamethoxazole (SMX). This will be done by synthesizing Bi-based magnetic nanoalloys through Reactive Laser Ablation in Liquids (RLAL); a recently explored synthesis approach that promises to fine-tune the physicochemical properties of nanoalloys. Furthermore, since the catalytic behavior of these nanoalloys will be powered by visible light, their employment as magnetically-recyclable degradation agents will offer a sustainable solution towards removing antibiotics from water. The removal of these polluting agents will help combat the empowerment of antibiotic-resistant bacteria by limiting their prolonged exposure to antibiotics; thus, their strategies to evolve into superbugs – one of the incoming biggest threats for humankind.

Period

01. 02. 2022 – 31. 12. 2023

Zdroj

MŠMT

Code

SGS-2022-3008

Leader

Ondřej Havelka

Climate changes (CC) pose a risk to water resources availability in many CE countries. The regions need to increase resilience to extreme weather events as urban droughts and floods as well as depletion of urban groundwater (GW) resources. Both falling groundwater levels in long term and the excessive amounts of water in short period become urgent risks to be tackled by adequate water management practises. The project aims to enhance the capacity of regions in CE for climate change resilience in the aspect of urban water resources management by joint development of climate-adaptation solutions. The project solutions to be adopted by public administrations and water management bodies will result in a behavioural change in water management and spatial planning practices to increase the resilience to climate change in regions. Key innovation is provided through the integral consideration of water management issues being part of regional and city related wider climate change adaptation concepts and the comprehensive water management approach. The cooperation network of 11 organisations will jointly develop and implement 6 pilot actions, 8 solutions, 6 action plans and a managament strategy to the benefit of cities, regions and related water management and water supply organisations. All solutions will have innovative character and have not been used so far in the involved regions. The transnational cooperation of the partners from various regions is needed to gather exemplification of key aspects to be tackled and related regional expertise. Working at transnational level will increase the capacity and enhance the knowledge transfer to reduce barriers to effective climate change adaptation of regions. We expect that the network and best practise demonstrated will increase awareness of local and regional policy makers encouraging further implementation of jointly developed strategy, action plans and solutions to climate change adaptation in the context of urban water management.

Period

01. 04. 2023 – 31. 03. 2026

Zdroj

EUK

Code

CE0100184

Leader

Ing. Tomáš Lederer, Ph.D.

The project focuses on membrane vapour permeable non-porous systems for textile applications. The aim is to prepare and test thin membranes made of composite materials that meet the durability, environmental and performance requirements of textiles. The project is based on a special technology for the preparation of very thin membranes containing nanofibers with potentially interesting utility properties. This technology, newly developed at TUL, will be used for the application of various polymer matrices on mainly polyamide nanofibers. Polymers with potentially interesting transport and separation properties such as polyvinyl alcohol, polyurethane, geopolymer or nanocellulose will be used as polymer matrices. These polymer matrix materials will be combined and chemically modified based on selected applications and partial experimental results. It is also planned to increase the utility value of the prepared layers for clothing membranes, for example by antibacterial treatment and encapsulation of active ingredients. At the same time, a methodology for laminating the prepared membrane to the surface of a conventional fabric will be developed.

Period

01. 02. 2022 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2022-6069

Leader

Ing. Blanka Tomková, Ph.D.

Rising international appeals for the progression of environmental engineering techniques in wastewater management to manage water supplies increase the necessity for scientific investigations to promote more efficient and economically reasonable approaches. Ultrafiltration and exploiting membranes with specific pore sizes have been widely used as a selective separation technique to produce high-quality recycled water, especially for areas struggling with a lack of ample resources. Besides, taking advantage of membranes in a bioreactor system (MBR) as a substitute for conventional secondary clarifiers (SC) can help the progression of future advanced wastewater treatment plants. Although hollow fiber membranes used for ultrafiltration are experiencing significant industrial developments, there is still a need for further modifications to interfere with the drawbacks which can hinder their widespread application. Growing foulants and adhesion of organic pollutants on the skin layer of hollow fiber membrane in the bioreactor, which leads to the blockage and lowering of the flux and functional life, can significantly threaten the progression of membranes. It is supposed that the development of the skin layer with adjusted surface energy and roughness in a nanometric scale contributes to the reduction of absorbed pollutants on the membrane surface in a similar approach that we witness in the lotus leaves. The skin-layer modified membrane will enhance antifouling properties by prohibiting the attachment of organic particles and suspended solids (SS) as well as lowering the sorption of microorganisms on the membrane surface. Accordingly, in this project, we use fluoropolymer-based and other low surface energy polymers as hollow fiber membranes. Silane-based matrix will be exploited along with selected nanoparticles on the skin layer to comparatively evaluate surface morphology and tendency to adsorb foulants. Hollow fiber membranes will be chosen among PTFE, PES, PVDF based on the characteristics like porosity, pore size, flux, and outer diameter (OD) to meet the requirement of municipal ultrafiltration. The modified layer should be well formulated to simultaneously maintain permeability and antifouling properties. Surface morphology, elemental distribution on the surface, and surface roughness of the skin-layer modified membranes will be assessed by SEM images and EDX and atomic force microscopy (AFM) device, respectively. The hydrophobicity/hydrophilicity of the surface will be analyzed by the water contact angle. Hollow fiber modules and a laboratory-scale MBR will be prepared to measure flux, permeability, TMP, and critical TMP measurements. The performance of the membrane in the process will be analyzed by COD and TP assessments on sewage water influent and permeate as well. Petri dish agar plate test will be used to evaluate the growth of bacteria on the membrane surface. Finally, quantitative evaluation of the modified membrane will be analyzed by measuring reversible fouling, Rr, irreversible fouling, Rir, total fouling, Rt and flux recovery ratio, FRR. Gaining advantages of this surface-modified hollow membrane capable us to increase the hydraulic retention time (HRT), sludge retention time (SRT), and mixed liquor suspended solids (MLSS) in order to intensify the biotreatment efficiency irrespective of concerning about increasing fouling ratio during MBR operation.

Period

01. 02. 2022 – 31. 12. 2023

Zdroj

MŠMT

Code

SGS-2022-3037

Leader

Hadi Taghavian

The aim of the project is to design a multisensor monitoring system based on artificial intelligence designed to reduce the health risk and improve safety of IRS members in real time. The Smart Professional Clothing System will also enable remote tracking of wearers at the commander’s station during routine and CBRN incidents in complicated terrain to improve commander’s decision-making. The system will consist of professional clothing for IRS members, which will ensure optimal thermophysiological, sensory and ergonomic comfort of the user and will be equipped with a modular telemetry multisensor system that allows real-time monitoring and intelligent adaptive evaluation of health and environmental stress of the wearer based on his personal profile created using artificial intelligence.

Period

01. 01. 2022 – 31. 12. 2025

Zdroj

MV

Code

VJ02010031

Website

https://www.isvavai.cz/cep?s=jednoduche-vyhledavani&ss=detail&n=0&h=VJ02010031

Leader

doc. Ing. Antonín Havelka, CSc.

The project focuses on research and development of a system for domestic wastewater treatment plants. The system will be consist of a wastewater treatment plant, a sieve filtration and a control system designed to make the treatment process without accessories, it met the class of PZV NV No. 57/2016 Coll. and allowed for possible secondary use. To be determined for WWTPs with an output of 0.25 – 6 m3/day usable where it is not possible to connect waste water to the sewerage, or where the treated waste water must be accumulated for secondary use.

Period

01. 07. 2021 – 31. 07. 2023

Zdroj

MPO

Code

CZ.01.1.02/0.0/0.0/21_374/0026360

Leader

prof. Dr. Ing. Jiří Maryška, CSc.

The project focuses on the development of hardware and firmware for a modular electronic battery management system with high functional safety, primarily for use in electric vehicles. The project research activities will focus on the design and validation of advanced algorithms for precise detection of the state of charge and algorithms for predicting the condition of the state of health of battery storage. The modularity of the device must allow deployment in applications targeting both high energy or power density while reflecting the functional safety requirements of modern battery systems. The output of the project will be a prototype modular electronic battery management system and a functional sample of a lithium battery storage system for traction applications.

Period

01. 01. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

FW06010575

Leader

Ing. Pavel Jandura, Ph.D.

The EU-funded MEDIPOL project is an integrated 4-year programme of knowledge transfer and networking, between six partners with complementary expertise, to design and develop new polymer-based materials for advanced biomedical applications, targeting soft tissues, especially the eye and dermal wounds. There are clear similarities between ocular and dermal sites; understanding these analogies facilitates the design of, for example, corneal bandages, ophthalmic dry eye therapies and effective burn and wound dressings with increased effectiveness. MEDIPOL’s knowledge transfer programme will train 49 professionals as future leaders in academia and industry. The specific major problems being targeted relate to vision and mobility, increasingly critical issues worldwide in healthcare systems that have the task of managing the socio-economic aspects of ageing populations.

Period

01. 01. 2020 – 31. 12. 2024

Zdroj

EUK

Code

871650

Leader

doc. Ing. Petr Mikeš, Ph.D.

Motorickou kompetencí rozumíme rozvoj základních pohybových dovedností odpovídající ontogenetickému vývoji. Odborné studie ukázaly na sekulární pokles jejich úrovně doprovázený poklesem zdravotně orientované zdatnosti. Neúspěšné děti nejsou ochotné vytrvat s učením složitějších motorických úkolů a vyhýbají se činnostem, které je vystavují velké pravděpodobnosti selhání. V rámci životního stylu odmítají účast na pohybových aktivitách jak v dětství, tak později v dospělosti se všemi důsledky sedavého způsobu života. Cílem studie je analýza diagnostických prostředků pro stanovení úrovně motorické kompetence ve školním věku, který je z hlediska monitorování motorické kompetence zásadní pro včasnou detekci odchylek a případnou intervenci. Příspěvek porovnává a hodnotí možnosti užití vybraných testových baterií v českém prostředí z hlediska jejich validity, reliability a objektivity, věkového rozpětí, existence normativních kritérií a nutnosti specifických kompetencí examinátora. Klíčová slova: motorická kompetence, diagnostika, psychomotorický vývoj

Period

01. 02. 2022 – 31. 12. 2023

Zdroj

Code

SGS-2022-4020

Leader

PhDr. Iva Šeflová, Ph.D.

The project goal is to find out what are the opportunities and limits of environmentally and socially sustainable participatory housing in the Czech Republic. We aim to: 1) Conceptualize participatory housing : Identify main forms and propose systemic solutions for the support of the social innovation in various contexts; 2) Find out how the needs and interests of actors of the housing sector influence the environmental, social and economic goals of participatory housing and propose methodological procedures of effective regulation for municipalities; 3) Design and test principles and tools of governance in model types of participatory housing; 4) Apply project outcomes in six participating cities: e.g. to tender documentations for specific localities or to development programmes.

Period

01. 02. 2021 – 31. 12. 2023

Zdroj

TAČR

Code

SS03010221

Website

ul.cz/univerzita/fua/veda-a-vyzkum/tacr-2/

Leader

Ing. arch. Radek Suchánek, Ph.D.

The project goal is to find out what are the opportunities and limits of environmentally and socially sustainable participatory housing in the Czech Republic. We aim to: 1) Conceptualize participatory housing : Identify main forms and propose systemic solutions for the support of the social innovation in various contexts; 2) Find out how the needs and interests of actors of the housing sector influence the environmental, social and economic goals of participatory housing and propose methodological procedures of effective regulation for municipalities; 3) Design and test principles and tools of governance in model types of participatory housing; 4) Apply project outcomes in six participating cities: e.g. to tender documentations for specific localities or to development programmes.

Period

01. 02. 2021 – 31. 12. 2023

Zdroj

TAČR

Code

SS03010221

Website

https://www.tul.cz/univerzita/fua/veda-a-vyzkum/tacr-2/

Leader

Ing. arch. Radek Suchánek, Ph.D.

The project will realize advanced smart textiles with multifunctional effects, which can improve functional and professional clothing. Workers of light and heavy industries, forestry, engineering and healthcare are exposed to risk factors such as high temperature, vibration, noise. The project addresses the permanent integration of specific electronic components like temperature, vibration and noise sensors into 1st layer of functional wear to early indicate specific values being exceeded to prevent health damages. The systems will enable evaluation and warning when the limits are exceeded by integrated status LEDs. Functional clothing with integrated electronic subsystem will be designed and implemented to meet the requirements of wearing comfort and resistance to maintenance stress.

Period

01. 04. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010095

Leader

doc. Ing. Antonín Havelka, CSc.

Co-financing from the Ministry of the Environment of the Czech Republic for LIFEPOPWAT project.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

MŽP

Code

MZP/2019/320/1471

Website

https://cxi.tul.cz/lifepopwat

Leader

prof. Dr. Ing. Miroslav Černík, CSc.

The project aims at increasing competitiveness of the academic spin-off company LAM-X by ensuring development of an inovative material platform in cooperation with the Faculty of Science of the Charles University and the Technical university in Liberec. The innovative polymer nanofiber materials with antimicrobial activity controlled by visible light combine the advantages of nanofiber materials as a passive barrier for viruses and bacteria with their active elimination in the proximity of the material surface. This opens up wide application possibilities in the field of treatment of chronic and poorly healing wounds, development of respirators against COVID-19 or other infections, air filtration (automotive), water filtration and in the food packaging.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

FW04020054

Leader

doc. Ing. Petr Mikeš, Ph.D.

The project aims at increasing competitiveness of the academic spin-off company LAM-X by ensuring development of an inovative material platform in cooperation with the Faculty of Science of the Charles University and the Technical university in Liberec. The innovative polymer nanofiber materials with antimicrobial activity controlled by visible light combine the advantages of nanofiber materials as a passive barrier for viruses and bacteria with their active elimination in the proximity of the material surface. This opens up wide application possibilities in the field of treatment of chronic and poorly healing wounds, development of respirators against COVID-19 or other infections, air filtration (automotive), water filtration and in the food packaging.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

FW04020054

Leader

doc. Ing. Petr Mikeš, Ph.D.

The aim of the project is to establish the foundations of a National Centre of Competence for Industrial 3D Printing of Polymeric Materials with an emphasis on promoting environmentally and energy efficient production, a cradle-to-cradle approach, efficient use of raw materials and their recycling, the use of waste natural and synthetic materials – all in line with the goals of the Green Deal and the circular economy. This centre would be established in Liberec and builds on the combined strengths of the coordinator, leading research organisations and industrial partners to create a strong research agenda for the efficient green use of raw materials and energy, increasing the contribution of additive technologies to industry and making it a robust source of projects for the proposed centre.

Period

01. 01. 2023 – 31. 12. 2028

Zdroj

TAČR

Code

TN02000033

Leader

Ing. Jiří Šafka, Ph.D.

The strategic objective of the project is to step up the development of the excellent research in the field of interactive, sensible autonomous robotic systems based on Additive manufacturing and using smart materials based on nanopolymers at the TECHNICKA UNIVERZITA V LIBERCI, Czech Republic (hereinafter referred to as TUL) by creating partnerships with four leading foreign research institutions from France (INSTITUT NATIONAL POLYTECHNIQUE DE TOULOUSE and UNIVERSITE PAUL SABATIER TOULOUSE III), Spain (MONDRAGON GOI ESKOLA POLITEKNIKOA JOSE MARIA ARIZMENDIARRIETA S COOP) and Denmark (AALBORG UNIVERSITET). TUL will significantly enhance the quality and competitiveness of research in this area through staff and student exchanges, expert visits and participation at conferences. The purpose of the mobility of scientists and administrative support staff will be to acquire new knowledge and experience in the given field of research, and also to prepare and implement international scientific projects or contacts at the level of the planned research collaboration with leading research organizations. Business trips will lead to the creation of new project ideas, with the most promising being submitted to international calls. The project will also include the organization of expert seminars, workshops, PhD forums and international conferences. The main focus of these activities will be the intensive transfer of knowledge from leading research centres to the specialist workplaces at TUL.The main benefit of the project will be to bring the quality of research at TUL significantly closer to that of internationally recognized counterparts from the EU, whereby facilitating TUL’s access to funding from European Commission. In terms of personnel capacities, the project will increase the scientific and technical capacities in the institutions involved and will support the professional growth of the staff involved in the project.

Period

01. 01. 2020 – 30. 06. 2023

Zdroj

EUK

Code

857061

Website

http://r2p2.eu/

Leader

prof. Ing. Aleš Richter, CSc.

The project is focused on the development of new algorithm to quantify the flicker severity from voltage measurements in electricity distribution grids. The present flicker severity metric was developed decades ago. It estimates the irritation of human observer by the light flicker of a reference incandescent lamp. The algorithm was optimized to disturbances generated by arc furnaces and adapted to the limited computational capabilities in the past. Recent fundamental changes in terms of lamp types (e.g. light emitting diode based lamps), common disturbance sources (e.g. photovoltaic installations) and instrumentation capabilities raise concerns about the suitability of the present algorithm. This project identifies the most common disturbance patterns in present electricity grids caused by modern power electronic equipment, how human observers are irritated by them considering modern illumination systems and develop new lamp and observation-irritation models. Based on such holistic analysis, a novel algorithm to evaluate flicker disturbances in modern electricity grids is developed.

Period

01. 07. 2022 – 30. 06. 2025

Zdroj

GAČR

Code

22-10074K

Leader

Ing. Leoš Oldřich Kukačka, Ph.D.

Numerical homogenization is a method used to represent a heterogeneous medium by a homogeneous medium with determined equivalent properties. When homogenizations are performed for models on very small scales or numerical homogenization needs to be repeated, the computational demands of this method are limiting. For this reason, we will approximate the numerical homogenization with a fast meta-model based on deep machine-learning techniques. The medium to which we want to apply numerical homogenization can be represented with all available properties, including spatial dependencies, or we can try to describe it appropriately with as few parameters as possible. Depending on which of these approaches we apply, meta-models of numerical homogenization based on feedforward neural networks, convolutional neural networks, and graph convolutional neural networks will be developed. Numerical homogenization and its meta-models will be employed for two specific applications. Simulation of stochastic groundwater processes described by DFM models. These models capture both the rock matrix (continuum) and fractures in the rock that represent heterogeneities that need to be homogenized. The objective, in this case, will be to find the equivalent hydraulic permeability tensor of the DFM models by homogenization. Another area of investigation will be metamaterials, which currently represent one of the key directions in the development of programmable materials and structures that have engineered properties. Thermoelastic properties of the metamaterial will be calculated using homogenization (effective thermoelastic property constants) and transfer properties using modal analysis and dispersion curves. The relationships between these parameters and the metamaterial geometry will be analyzed by machine learning algorithms. The relationships found will be used to find the optimal design of the metamaterial geometry for the desired mechanical parameters.

Period

01. 02. 2023 – 31. 12. 2024

Zdroj

MŠMT

Code

SGS-2023-3379

Leader

Ing. Martin Špetlík

The “BUSkit” system will be a modular system to support testing of on-board systems, the main purpose of which will be analysis, collection, filtering, simulation, emulation and injection of data on on-board buses (CAN bus, LIN, FlexRay, CarEthernet).

Period

01. 01. 2021 – 30. 06. 2023

Zdroj

TAČR

Code

CK02000158

Leader

Ing. Josef Novák, Ph.D.

The aim of the project is R&D of glass beads that will be in line with circular economy and ICT. R&D will be focused on the production of glass beads, which will contain in addition to traditional soda-potassium glass also ingredients obtained by recycling waste from various types of glass (flat, laboratory or decorative) or materials that have not been systematically recycled, such as fibers from composite materials. R&D will focus on the preparation of recycled materials (dust, shards, fibers), as well as on the composition of the resulting glass and the resulting visual effect. The 2nd project goal is the development of a glass bead that will allow jewelery to perform functions such as NFC or IoT. The methods of CAE, Rapid Tooling and 3D printing will be used for innovated glass beads.

Period

01. 11. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW02020240

Leader

doc. Dr. Ing. Ivan Mašín

The project aims to research and develop an electricity metering system for energy networks with many feeders/outlets. It is a power analyzer with multiple current inputs. The target application is digitizing distribution substations, monitoring smart grids, intelligent buildings, and SmartCities. The aim is to reduce the complexity of the cabling to speed up installation and eliminate wiring errors. The project’s second goal is to fundamentally expand software modules for meter configuration, improve automatic data collection, improve multi-feeder analysis and create related automated reports, and use cloud services to store more extensive archives from large-scale monitored systems.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

TK04020053

Leader

Ing. Miroslav Novák, Ph.D.

The project aims to research and develop an electricity metering system for energy networks with many feeders/outlets. It is a power analyzer with multiple current inputs. The target application is digitizing distribution substations, monitoring smart grids, intelligent buildings, and SmartCities. The aim is to reduce the complexity of the cabling to speed up installation and eliminate wiring errors. The project’s second goal is to fundamentally expand software modules for meter configuration, improve automatic data collection, improve multi-feeder analysis and create related automated reports, and use cloud services to store more extensive archives from large-scale monitored systems.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

TK04020053

Leader

Ing. Miroslav Novák, Ph.D.

Robots supplied by the company “machine building” are very often used for MIG/MAG welding technologies. Programming a robot for the welding process is quite time-consuming and therefore economically demanding. In order to simplify the whole process, a system for optical tracking of tool movement during manual welding will be designed. The recorded trajectory is then transferred to the robot program. The whole programming process will be significantly shortened (in the order of tens of hours). The direct consequence is significant cost savings and the availability of robotic welding technology also for small production.

Period

01. 04. 2023 – 30. 06. 2026

Zdroj

TAČR

Code

TN02000018

Leader

doc. Ing. Iva Petríková, Ph.D.

Recent researchers have rekindled the field of computational fluid dynamics to unleash this powerful tool to predict flow analysis and exploit different techniques to enhance any system component’s performance. In this research, computational Fluid Dynamics simulation will be conducted to model heat transfer behavior for some components, such as the plate heat exchanger, food tray energy storage, and electric boat propellers. The results will aim to provide a well-founded framework for applying CFD with detailed procedures in the analysis to address and predict the impact of the examined component characteristics and map its performance. Moreover, this technique will be used to study the operational characteristics such as the system COP, the exergy efficiency, the reduced power consumption, and the exergy destruction to optimize the overall performance and improve the efficiency. In addition, machine learning and multiobjective optimization approaches will be applied to optimize different CFD simulation parameters.

Period

01. 02. 2023 – 31. 12. 2025

Zdroj

Code

SGS-2023-5323

Leader

Anas F A Elbarghthi, Ph.D.

The project aims at elaboration of methodologic procedures of designing a complex of biotechnology supplements for main and secondary drainage equipment. Mostly, agricultural soils that are threatened by erosion will be targeted to enhance water retention, accumulation, and quality in the catchment areas of interest. Field-scale installations of variable measures will be performed within the project. Procedural and administrative options of landscaping will be evaluated for current and expected hydrologic situations at representative pilot sites.

Period

01. 01. 2021 – 31. 12. 2025

Zdroj

MZe

Code

QK21010341

Leader

RNDr. Stanislava Vrchovecká

Tendons as a part of connective tissues connect muscles to bones. Following a tendon injury, a tendon rupture may occur. A ruptured tendon does not regenerate when simply immobilized. To treat the ruptured tendons, a suture material is needed to create a tendon suture. The tendon consists of collagen fibers with a hierarchical structure, which allows its flexibility. Tendon elasticity during regeneration should be supported by early rehabilitation, which contributes to tendon extension and prevents gap formation. However, adequate tendon suture mechanics is important to facilitate early rehabilitation. Normally, suture materials are formed at high temperatures by the meltspinning method. These materials meet the basic requirements, such as biocompatibility, sterilibility and mechanical properties, but the high temperature used during the meltspinning prevents the possibility to modify the suture material by bioactive compounds. The aim behind the suture material modification is to help the surrounding cells to repopulate the tendon suture, as the injured part of the tendon is basically cell-free. Electrospinning allows the formation of nanofibrous yarns modified with bioactive compounds; however, the mechanical properties are insufficient, and the production rate is low. Therefore, in this project, we will focus on the unique production of composite nanofibrous yarns, which consist of a core material that is wrapped by a nanofibrous envelope, formed in the process of alternating current electrospinning. The composite nanofibrous yarns will be braided by a standard textile technique into a suture material containing nanofibers. The final suture material will be biodegradable, thus preventing undesirable secondary irritation of the tendon suture. The nanofibrous envelope will be modified by bioactive compounds in the process of alternating current electrospinning in order to improve the adhesion of the cells in the cell-free zone of the ruptured tendon. Thanks to the core material, the composite character of the nanofibrous yarn will provide sufficient mechanical strength of the suture material. The composite nanofibrous yarns and final suture material containing nanofibers will be subjected to physicochemical testing, release analyzes, and degradation and biodegradation testing. Furthermore, in vitro testing will be performed within the project. The suture material containing nanofibers will be seeded by fibroblasts and the biocompatibility and adhesion of the cultured cells will be monitored. The aim of these tests is to identify suitable candidates for suture material, that would combine nanofibres and bioactive compounds. As a result, the healing process would be sped up, helping the early phase of rehabilitation, which is crucial for regeneration of ruptured tendons.

Period

01. 02. 2021 – 31. 12. 2023

Zdroj

Code

SGS-2021-4007

Leader

Mgr. Kateřina Strnadová, Ph.D.

The aim is to develop high performance composites with functional properties for the engineering, construction and marine industries. The material is composed of a geopolymer matrix reinforced with fibres and fillers of natural or synthetic origin. The result will be an environmentally friendly composite suitable for underwater applications, providing more durable materials for corrosion protection of hazardous wrecks and critical underwater infrastructure, for construction purposes in turbulent and highly polluted environments, including protection from hazardous materials in wrecks. The specific part will be created in the form of prefabricated or 3D printed elements with the ability to be installed underwater. Desired properties: high compressive strength, low deformability, high resistance to water, chemicals including salts and chlorine, bioerosion, hazardous waste, oils and abrasion, long life, eco-friendliness, cost-effectiveness and low toxicity.

Period

01. 06. 2022 – 31. 05. 2025

Zdroj

TAČR

Code

TH80020007

Leader

doc. Ing. Adam Hotař, Ph.D.

The subject of the project is the elimination of pharmaceutical substances that are not removed by existing wastewater treatment plants. However, a large part of these substances is adsorbed and accumulated in biological sludge. The majority of hospitals are drained to the relevant municipal wastewater treatment plants, so the project focuses on eliminating pharmaceutical substances from biologically treated wastewater. Treated wastewater always contains residual pollution by organic substances, usually at the level of min. 5%, i.e. in concentrations of tens of mg / l (determined as COD). On the other hand, pharmaceutical substances occur in concentrations of units, up to tens of micrograms per litre. Any technology that removes these micropollutants then requires a substantial reduction in the overall “background” of organic pollution, which otherwise increases energy consumption, chemicals or excipients, including adsorbents. The necessary pre-treatment is the elimination of total residual organic pollution from biologically treated wastewater, which consists mainly of products of microorganisms, non-degradable substances, metabolites that are not removed with sufficient efficiency by bioaccumulation. The aim of the project is to pilot test the technologies verified by both partners for the removal of residual organic pollution.

Period

01. 05. 2022 – 30. 04. 2024

Zdroj

SFŽP

Code

3213200013

Leader

Ing. Tomáš Lederer, Ph.D.

The project aim is to develop a smart polyvinylidene fluoride (PVDF)-based nanofibers adsorbent systems for wastewater treatment applications. PVDF distinctive characteristics such as chemical resistance, thermal stability, and mechanical strength are highly desirable in the membrane industry. However, the intrinsic hydrophobicity of PVDF is behind two major problems which are the membrane fouling and the low water flux. The surface functionalization is a key approach for adjusting PVDF wetting properties where by both problems are tackled. Unlike to physical modification, the chemical approach grants better stability for the modifiers. Furthermore, covalent functionalization also allows enhancing selectivity towards specific effluents under which the development of advance filtration solutions is possible. Thus, the proposed methodology will be an activation of PVDF surface chains with OH functional groups as a first step, followed in the second step by the grafting of selected group of modifiers, e.g. cyclodextrins. The main method of activation will be performed through PVDF dehydrofluorination reaction with a focus on the study of the reaction mechanism in order to better understand the surface hydroxylation and thus control the whole functionalization process.

Period

01. 02. 2021 – 31. 12. 2023

Zdroj

MŠMT

Code

SGS-2021-4026

Leader

Mohamed Magdi Mohamed Ahmed

Hybrid organic-inorganic nanomaterials based on organosilanes show huge potential in the field of modern materials science. These hybrid nanomaterials effectively use strong covalent bonds between carbon and silicon and their properties can achieve the required qualities in many industrial areas, such as optoelectronics, sensors, energetics, construction, textile industry, but also in everyday life, especially in the field of tissue engineering. The aim of the project is, based on the development of a unique, currently patented technology, to prepare other purely hybrid organosilane nanofibers using the acid-catalysed sol-gel method. The choice of suitable precursors will be subjected to their specific properties for given tissue engineering applications. The aim of this project is to prepare conductive nanofiber scaffolds designed for the field of neuroregenerative medicine.

Period

01. 02. 2022 – 31. 12. 2024

Zdroj

Code

SGS-2022-4059

Leader

Ing. Johana Kulhánková

The aim of the project is to develop a unique double-layered nanofibrous material to cover the intestinal anastomoses.

Period

01. 05. 2020 – 31. 12. 2023

Zdroj

MZ

Code

NU20J-08-00009

Leader

doc. RNDr. Jana Horáková, Ph.D.

The main objective of the project is to develop a strategy to mitigate the negative effects of overtourism in affected areas without the need to introduce regulations and restrictions. A partial objective of the project is to develop a strategy to motivate tourists not only to visit the most famous and popular tourist destinations, but to get to know the region more and visit more localities. Another partial objective of the project is to develop guidance material for local actors in tourism, especially for municipalities, destination management, regional authorities and other associations, in which it will be illustrated on examples how to apply the above mentioned strategies. Overall, the project should contribute to the sustainability of tourism in regions and regional development.

Period

01. 04. 2020 – 30. 06. 2023

Zdroj

TAČR

Code

TL03000020

Leader

Mgr. Emil Drápela, Ph.D.

The goal of the project is to develop conceptual framework, methodologies and technical means for realization of Level-3 PSA for operated, as well as planned-to-be-constructed NPPs in the Czech Republic, which will address the needs of application garant, Czech Regulatory Body (SUJB). The most important points within this goal are: 1) to analyze and verify current computational codes available for PSA-3 and to select the one fitting the best to the needs of PSA-3 development in the Czech Republic; 2) to elaborate a pilot PSA-3 study for a set of selected scenarios leading to release of radionuclides into environment; 3) to address the ideas, comments and suggestions of the application garant regarding project results and the wasy, they will be used in the most effective ways in future.

Period

01. 01. 2022 – 30. 06. 2024

Zdroj

TAČR

Code

TK04010132

Leader

Ing. Jan Kamenický, Ph.D.

The aim of the project is to create a model of diagnostics and interventions of relationships within the teaching staffs and leadership quality in the Czech basic and secondary schools in Liberec County. The purpose is to give support and help to the schools and their employees. Sub-aims are: 1. To use outputs from the basic research GA ČR 16-10057S „Stability and Changes of the Teaching Staffs of Basic Schools“ to create methodology of diagnostics of the social climate of the teaching staffs. 2. To create a methodology of general and specific interventions to support development of schools in the field of relationships and school leadership. 3. To diagnose teaching staff climate in Liberec and Liberec County. 4. To verify the effectiveness of the interventions by an experiment.

Period

01. 05. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

TL03000035

Leader

Mgr. Andrea Rozkovcová, Ph.D.

The aim of the project is to create a model of diagnostics and interventions of relationships within the teaching staffs and leadership quality in the Czech basic and secondary schools in Liberec County. The purpose is to give support and help to the schools and their employees. Sub-aims are: 1. To use outputs from the basic research GA ČR 16-10057S „Stability and Changes of the Teaching Staffs of Basic Schools“ to create methodology of diagnostics of the social climate of the teaching staffs. 2. To create a methodology of general and specific interventions to support development of schools in the field of relationships and school leadership. 3. To diagnose teaching staff climate in Liberec and Liberec County. 4. To verify the effectiveness of the interventions by an experiment.

Period

01. 05. 2020 – 31. 10. 2023

Zdroj

TAČR

Code

TL03000035

Leader

Mgr. Andrea Rozkovcová, Ph.D.

The aim of the project is to investigate the influence of fault zones in the environment of the geological barrier of the deep repository and their hydraulic properties on the transport of nuclides from DGR in the context of their various geometric and mathematical-physical definitions in a hydrogeological mathematical model. An integral part of the project will be the development of the module for Flow123d software, which will provide a suitable implementation of the flow and transport model in the geological barrier of the DGR site, including fault zones and other zones of inhomogeneity defined by the structural-geological model and preliminary HDR project. The calculations will be performed by two softwares, the results will be compared with each other in order to validate them.

Period

01. 01. 2022 – 30. 11. 2024

Zdroj

TAČR

Code

TK04010207

Leader

doc. Ing. Jiřina Královcová, Ph.D.

The department’s project focuses on the issue of machining composite materials based on epoxy resin and metallic materials. The project will emphasize the determination of optimal cutting conditions, the selection of a suitable tool (tool material, cutting edge geometry, etc.), the characteristics of tool cutting wear, chip formation and the environmental impact of machining these materials. The research will also deal with the suitability of the use of cutting fluids in the machining of these materials, their impact on tool life, dimensional accuracy of the workpiece, etc.

Period

01. 02. 2022 – 31. 12. 2023

Zdroj

MŠMT

Code

SGS-2022-5043

Leader

doc. Ing. Štěpánka Dvořáčková, Ph.D.

The project aims to research and develop an electricity metering system for energy networks with many feeders/outlets. It is a power analyzer with multiple current inputs. The target application is digitizing distribution substations, monitoring smart grids, intelligent buildings, and SmartCities. The aim is to reduce the complexity of the cabling to speed up installation and eliminate wiring errors. The project’s second goal is to fundamentally expand software modules for meter configuration, improve automatic data collection, improve multi-feeder analysis and create related automated reports, and use cloud services to store more extensive archives from large-scale monitored systems.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

TK04020053

Leader

Ing. Miroslav Novák, Ph.D.

The purpose of the project is to broaden the utility of material composite nanotechnologies in biotechnology applications, specifically in viticulture, through technic solutions allowing more eficient, easier, and reliable manipulation of wine-making yeast-biomass providing stress free and highly efficient wine production. The objectiveof the project is to develop technic solutions for modern wine-making approaches and by designing advanced biomass carriers, based on a nanotechnology material platform, which will: • allow for otimal wine-yeast collection thanks to the high material affinity, • allow for gentle and long-term conservation of production yeast-strains, and • simplify technological applications of the said carrier for the reviving of such conserved biomass.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010590

Leader

Ing. Mgr. Lukáš Dvořák, Ph.D.

The project’s primary goal is to research and develop fibrous materials with functional properties produced by the magnetron deposition of antimicrobial coatings on fibrous materials. The primary purpose of R&D activities will be to design and implement technical means – technology for the deposition of metals on fibrous materials. Functional models of deposition systems will be created, which will enable semi-operational production (Low Volume Deposition System) and, subsequently also industrial production (Large Volume Deposition System). Furthermore, the R&D of new progressive fibrous materials improved with the functional coatings (antimicrobial or with other functional properties) will be carried out in a vacuum deposition system by the means of magnetron sputtering in the inert gas.

Period

01. 01. 2023 – 31. 12. 2026

Zdroj

TAČR

Code

FW06010192

Leader

doc. Mgr. Irena Šlamborová, Ph.D.

The project’s primary goal is to research and develop fibrous materials with functional properties produced by the magnetron deposition of antimicrobial coatings on fibrous materials. The primary purpose of R&D activities will be to design and implement technical means – technology for the deposition of metals on fibrous materials. Functional models of deposition systems will be created, which will enable semi-operational production (Low Volume Deposition System) and, subsequently also industrial production (Large Volume Deposition System). Furthermore, the R&D of new progressive fibrous materials improved with the functional coatings (antimicrobial or with other functional properties) will be carried out in a vacuum deposition system by the means of magnetron sputtering in the inert gas.

Period

01. 01. 2023 – 31. 12. 2026

Zdroj

TAČR

Code

FW06010192

Leader

doc. Mgr. Irena Šlamborová, Ph.D.

The aim of the project is research and development of shaped moulds made of H-13 and HEATVAR material for die casting of aluminium alloys in operating conditions using modern technologies of additive production, innovative design, heat treatment, surface treatment and numerical simulations. Selected materials intended for additive printing should replace standardly used materials of shaped moulds. With regard to the different carbon content, achieved properties and demands for additive production, it will be necessary to optimize the parameters of printing and subsequent heat treatment of printed steel. New knowledge will enable the development and operational verification of a unique concept of shaped moulds in the conditions of the Czech Republic.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010609

Leader

Ing. Michal Ackermann, Ph.D.

The aim of the project is research and development of shaped moulds from hardenable steels H11 and T300 for casting zinc alloys using a combination of modern technology of additive production, heat treatment, surface treatment and numerical simulations, including verifications in operating conditions. Another aim of the project is use of a more economically efficient and more environmentally suitable cobalt-free version of steel (T300) which is at the moment not used for additive manufacturing. Additive manufacturing will enable quicker production of shaped inserts of the moulds, design of more sophisticated cooling systems and possibility of significantly increased lifespan of the moulds. New findings will enable to design and to operationally verify a unique concept of shaped moulds.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010323

Leader

Ing. Jiří Šafka, Ph.D.

The aim of the project will be research and development of special protective clothing with antibacterial and antiviral effects for pandemic situations for the public. Protective clothing will be solved in the application of nanofibers on a textile substrate with additives antiviral and antibacterial, next based on special fibers with antiviral and antibacterial effects and fibers that absorb UV radiation. For temperature monitoring and monitoring the amount of UV radiation, wearable electronics will be integrated into Smart clothing, It will enable the use of the latest technological possibilities in the field of telemedicine to improve the care of the population in emergency situations. The smart application will have NFC tags for sophisticated maintenance and use.

Period

01. 01. 2023 – 31. 12. 2026

Zdroj

TAČR

Code

FW06010021

Leader

doc. Ing. Antonín Havelka, CSc.

The aim of the project will be research and development of special protective clothing with antibacterial and antiviral effects for pandemic situations for the public. Protective clothing will be solved in the application of nanofibers on a textile substrate with additives antiviral and antibacterial, next based on special fibers with antiviral and antibacterial effects and fibers that absorb UV radiation. For temperature monitoring and monitoring the amount of UV radiation, wearable electronics will be integrated into Smart clothing, It will enable the use of the latest technological possibilities in the field of telemedicine to improve the care of the population in emergency situations. The smart application will have NFC tags for sophisticated maintenance and use.

Period

01. 01. 2023 – 31. 12. 2026

Zdroj

TAČR

Code

FW06010021

Leader

doc. Ing. Antonín Havelka, CSc.

One of the main goals is the possibility that these will be obstacles that could lead to environmental threats. Another object is to provide a research facility that will serve as a means for more efficient surface water purification. The research polygon will be designed so that it is possible to soak up the surface water. Another objective is to verify the functionality of the technology that generates pressure using non-mineralized and untreated water sources.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010446

Leader

Ing. Jaroslav Nosek, Ph.D.

Glaucoma is one of the most frequent and complicated eye diseases, which very often results in complete blindness. Most current approaches to glaucoma therapy are based on reducing intraocular pressure (IOP) using drainage implants. There is currently no reliable method of treating glaucoma on the worldwide market. There are only a few treatment options. However, problems of current implants are associated with insufficient IOP reduction, postoperative hypotony, the formation of adhesions, or progressive corneal endothelial cell damage associated with implant stiffness. The aim of the project is to examine a nanofibrous materials for the treatment of glaucoma. The research will be focus on research of intraocular nanofibrous implant from a soft, flexible, and mechanically resistant material based on biocompatible polymers. The structure will imitate the native filter organ of the eye, the trabecular meshwork. As part of the project, the flow of intraocular fluid through the nanofibrous layer will be measured using laboratory filtration equipment modified to simulate the perfusion of intraocular fluid in the glaucomatous and healthy eye. The functionality of the implant in terms of resistance to cell fibrotization will be monitored in vitro with fibroblast and endothelial cell lines. The antiadhesive properties of the material will be tested mechanically directly to the eye tissue. Implantation of nanofibrous planar material will be performed on cadaverous rabbit and porcine bulbs, including simulation of transport properties at different levels of IOP.

Period

01. 05. 2021 – 31. 12. 2024

Zdroj

MŠMT

Code

PURE-2021-6005

Leader

doc. Ing. Jiří Chvojka, Ph.D.

3D printing technology is a current perspective trend. Printers for plastics and metals dominate in industry, however, 3D printing of silica and ceramic materials still remains a challenge. The presented project will focus on research of new silica matters applicable to robocasting (robotic 3D printing technology). Initially, the rheological properties of silica matter and appropriate viscosity will be tested. These findings will be used as input data for numerical modeling of the flow of extruded matter. The second part of the project will deal with the practical verification of the numerical model with use of robocasting, simultaneously input parameters of extrusion will be fined (flow properties of extruded matter, flow velocity, robot velocity, and robot trajectory definition).

Period

01. 03. 2023 – 30. 11. 2025

Zdroj

MŠMT

Code

SGS-2023-5393

Leader

doc. Ing. Vlastimil Hotař, Ph.D.

The proposed research, which has the submitted project and your essence is presented in this document, focusing on the issue of landfills and waste repositories, matter generates thermal energy. The presented project has no problem with a destructive impact affecting thermal and biological activity and offers a research solution that should be possible to protect the environment from other to devastating accidents in the future. Other identified substances or substances that physically or chemically inhibit endangered bacterial consortia and / or promote damage to the geomechanical and hydrodynamic properties of the studied sealing materials. Microbial processes in bentonite and modified bentonite will be simulated in shorter experiments.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010349

Leader

RNDr. Alena Ševců, Ph.D.

The proposed research, which has the submitted project and your essence is presented in this document, focusing on the issue of landfills and waste repositories, matter generates thermal energy. The presented project has no problem with a destructive impact affecting thermal and biological activity and offers a research solution that should be possible to protect the environment from other to devastating accidents in the future. Other identified substances or substances that physically or chemically inhibit endangered bacterial consortia and / or promote damage to the geomechanical and hydrodynamic properties of the studied sealing materials. Microbial processes in bentonite and modified bentonite will be simulated in shorter experiments.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010349

Leader

RNDr. Alena Ševců, Ph.D.

The subject of the research is design of new and modification of existing structures of textile and single-purpose machines for automation of processes, optimization of selected textile processes with aim of optimization of machinery and research of new processes of fabrication of textile structures.

Period

01. 02. 2022 – 31. 12. 2024

Zdroj

TUL

Code

SGS-2022-5046

Leader

Ing. Jiří Komárek, Ph.D.

The main objective of the project is to identify online tools and methods of marketing communication targeting school-age children by means of individual in-depth interviews and a questionnaire survey and to verify whether and how children perceive this communication. The subject of the application is to create a didactic tool, which will consist of methodological videos for teachers and worksheets for pupils of the 5th and 6th grades of elementary school. The videos will introduce teachers to online marketing and recommend how to work with worksheets. Worksheets will teach pupils to recognize online marketing messages. The pupil will be aware of how marketing messages affect them and can critically evaluate them.

Period

01. 08. 2020 – 31. 07. 2023

Zdroj

TAČR

Code

TL03000236

Leader

Ing. Jitka Burešová, Ph.D.

The main objective of the project is to identify online tools and methods of marketing communication targeting school-age children by means of individual in-depth interviews and a questionnaire survey and to verify whether and how children perceive this communication. The subject of the application is to create a didactic tool, which will consist of methodological videos for teachers and worksheets for pupils of the 5th and 6th grades of elementary school. The videos will introduce teachers to online marketing and recommend how to work with worksheets. Worksheets will teach pupils to recognize online marketing messages. The pupil will be aware of how marketing messages affect them and can critically evaluate them.

Period

01. 08. 2020 – 31. 07. 2023

Zdroj

TAČR

Code

TL03000236

Leader

Ing. Jitka Burešová, Ph.D.

Aim of the project is to develop distributed sensor system integrated into cable construction, which will enable monitoring of its state and time and space detection of faults and conditions endangering its safe and reliable performance (overheating, mechanical load, deformation, etc.). The sensor system will utilize advanced sensitive nanomaterials optimized for this purpose, so that final product (cable) can be produced by a technology compatible with current processes with minimal additional cost. The nanomaterials will change their electrical or optical properties detected and measured using methods of electrical and optical reflectometry. Corresponding electronic detection system will be developed to provide compatibility of energetic transmission lines with Industry 4.0 principles.

Period

01. 07. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

TK03020219

Leader

doc. Ing. Stanislav Petrík, CSc.

The single-pixel camera enables the creation of multidimensional data in a simple system thanks to compressed sensing. For compressed sensing to be applicable, the captured signal has to be sparse on some basis. This basis is implemented in the measurement as a spatial modulation – in the case of the single-pixel camera setting a specific pattern to the DMD. This project aims to use the existing single-pixel hyperspectral setup to test existing and new spatial modulation and their combinations and compare the quality of retrieved information. The wide wavelength range of the current system enables simultaneous testing in many varied conditions. Additionally, the compression ratio for all modulations will be tested for information loss.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-3325

Leader

Ing. Lukáš Klein

The project will focus on using two kinds of expanded graphite (EG) as filler material to enhance the mechanical, thermal and electrical properties of polymers as possible matrices for composite and textile applications. The use of EG as filler material is expected to be more economical and effective than using graphene or graphite to achieve the same properties. Polymer matrices such as PVA, HDPE, EPOXY and geopolymers will be used. The aim of the project is to improve the forementioned polymer matrices by using the EG filler particles to form a composite and finally to produce a fibrous material with improved mechanical, thermal and electrical properties. EG is graphite which is exfoliated by either sulfuric or nitric acid and heated to 900 °C. The properties of the two kinds of EG fillers are expected to differ from each due to the different methods of graphite exfoliation used to produce them resulting in non-carbon elements present in their chemical composition. This is expected to contribute to a difference in measured composite properties because each kind of EG filler should interact differently with the polymer matrix. Very little is currently understood about the effects which non-carbon elements in EG has on the final properties of a composite system. There is an existing industry for expanded graphite in the Czech Republic thus the project will be of some domestic interest.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6384

Leader

Ing. Blanka Tomková, Ph.D.

Fe3Al-based intermetallics excel in high temperature oxidation resistance and corrosion resistance in molten soda-lime glass and lead molten glass. Lead glass containing PbO are being worldwide replaced by lead-free glasses due to the harmful effects of lead on human health and the environment. The aim of the project is to study the corrosion behaviour and corrosion resistance of iron aluminides with different types of additives (e.g. Nb, Si) in molten lead-free glass. The project includes the performance of corrosion tests, the analysis of structural changes and changes in chemical composition of alloys and glass. The corrosion attack of the alloys will be quantified using parameters of fractal geometry, surface roughness and statistical tools

Period

01. 02. 2022 – 31. 12. 2023

Zdroj

MŠMT

Code

SGS-2022-5022

Leader

doc. Ing. Adam Hotař, Ph.D.

The presented project is focused on the development of a new test system made of polymeric microfibers for monitoring the cell-material interaction, where it is possible to monitor living cells overtime on the tested materials. The advantage of this method is the absence of influencing the cell line with other chemicals and the possibility of continuous monitoring of cellular behaviour at a specified location of the material. The test model is based on a fibre structure with a defined orientation prepared by fibre drawing technology (so-called drawing). This technology is based on the production of individual micro to nanofibers by mechanical drawing from a drop of polymer. The new method of in-vitro testing of cell interaction with the material will allow the observation of living cells in direct contact with fibres and thus expand the possibilities of evaluating materials intended for tissue engineering.

Period

01. 02. 2023 – 31. 12. 2024

Zdroj

Code

SGS-2022-4090

Leader

Ing. Šárka Hauzerová

The contribution of our research team to the PHOENIX action relies on exploring the use of nanofiber-based composites and laser micromachining for the enhancement of exoelectrogen biofilm growth over anodes in microbial fuel cells. Our involvement will be framed in the working group 2 working task 4; functionalized electrodes in bioelectrochemical systems.

Period

01. 01. 2021 – 30. 09. 2024

Zdroj

MŠMT

Code

CA19123

Leader

doc. Fatma Yalcinkaya, Ph.D. M.Sc.

The aim of the project is to undertake various types of educational activities in the area of Sustainable Design and Process in Textile. It is necessary to change the awareness and approach to this important topic. Future textile designers who in the future will create new products and solutions not only for the textile and clothing industry, but also for others that use textile products, e.g. medicine, transport, hygiene industry, protective equipment) must have full knowledge and awareness of how to create new solutions in line with the goals of sustainable development.

Period

01. 01. 2022 – 31. 12. 2023

Zdroj

EUK

Code

2021-1-PL01-KA220-HED-000032201

Leader

Ing. Jana Drašarová, Ph.D.

The project “Sustainable Remediation of Radionuclide Impacts on Land and Critical Materials Recovery (SURRI)” aims to establish a multinational shared research agenda and project pipeline for addressing the challenges radionuclides pose to land remediation and materials recovery, with a particular focus on rare earth elements (REE) and other critical elements, in order to facilitate more efficient cycling and management of water, soil and material resources. The topic is highly relevant to facilitating the circular use of land, water and several key materials. Investigating the mitigation of radionuclide problems has been rather a “Cinderella” subject for land and waste management research, where the focus has been on organic and inorganic chemical contamination. However, radionuclides present widespread and difficult problems for Society at large and achieving the “Green Deal” in particular. The research concept is based on the integration of electrochemical and microbiological interventions, which can be applied, in-situ or ex-situ, to provide new tools to unlock the remediation of radionuclide affected sites, and facilitate the recovery of material resources from radionuclide-impacted wastes, and so reduce reliance on virgin (and non-EU) sources. The project is coordinated by the Technical university of Liberec (TUL, CZ) with the participation of the University of Grenada (Sp) and University of Southampton (UK). The two internationally leading partners in the field will help TUL to reach five specific objectives – to advance its research excellence in radionuclide impact mitigation, to develop a shared research vision and supporting research agenda for a virtual R&I centre, to raise the research profile of TUL staff, and to develop an international network of supporters, contributors and participants in the proposed virtual centre.

Period

01. 01. 2023 – 31. 12. 2025

Zdroj

EUK

Code

101079345

Leader

prof. Dr. Ing. Miroslav Černík, CSc.

Emerging pollutants are chemicals known to be in the water that cause major effects on aquatic life and human health due to their acute toxicity. Current water treatment methods, such as chemical oxidation and biological treatment, are insufficient and can lead to generate toxic by-products. However, the adsorption method is considered a more effective and economical alternative for water treatment. Recently, the use of carbon nanomaterials such as graphene oxide as effective and ecofriendly nano adsorbents has attracted attention for the removal of several pollutants. This project will aim to fabricate carbon nanomaterials by electrochemical methods as a green procedure and enhance the adsorption capacity of materials by their modification via green compounds to adsorb the pollutants.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-8354

Leader

Masoud Khaleghiabbasabadi

The goal of the project is to use the existing extensive measuring infrastructure at the Uhelná location to develop a forecast system for groundwater levels applicable in the longer term to other locations in the Czech Republic. The research goal is to explain significant drops in groundwater levels in the Bohemian Cretaceous Basin. A partial goal is the installation of continuous monitoring of the vadose zone: measurement of soil moisture profiles at selected points, and measurement of the water content in the deep vadose zone. Crucial are numerical models: a surface model including runoff, infiltration, and evapo-transpiration; a 3D model of the deep vadose zone and the upper part of the phreatic zone. For the data assimilation and learning of the models the Kalman filter will be used.

Period

01. 04. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

SS06010280

Leader

doc. Mgr. Jan Březina, Ph.D.

Goal of the project is development of high production electrospraying technology including formulations of nanoparticles for oral and transdermal drug delivery. Specifically, we aim to develop high-throughput electrospraying device with optimized function meeting needs of pharmaceutic, cosmetic and food/feed industry. Nevertheless, advanced drug-releasing nanoparticles with mucopentrative, mucoadhesive and transdermal function will help to adapt the technology to needs of particlar customer and speed up development of final products. The technology follows up on our internal development. InoCure developed the prototype of high-throughput electrospraying unit and verified market competivness. uSphere technology is the only high-throughput electrospraying technology available on market.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010445

Leader

Ing. Miroslava Rysová, Ph.D.

The aim is to develop and verify an innovative technology for in situ remediation of groundwater contaminated with chlorinated compounds based on a combination of ERD and ISCR supported by electric current application. Detailed site survey using direct sensing will be carried out prior to the remediation. The injection of remediation agents will be performed using Frac-In technology to increase the permeability and emplacement of mZVI. Subsequently, electrodes and newly developed equipment for remote monitoring and control will be installed. Using this device, remediation based on application of electric current and remediation agents to the aquifer will be remotely monitored and controlled. The developed technology will enable partners to penetrate the West-European remediation market.

Period

01. 01. 2021 – 31. 12. 2024

Zdroj

TAČR

Code

FW03010071

Leader

Ing. Jaroslav Nosek, Ph.D.

The project is focused on the research and development of a new technology for the continuous production of multi-layer nanofibrous composite material and on the development of laboratory equipment implementing this technology, whereby multi-layer/sandwich materials will be composed of different nanofibrous layers or their combinations. The principle of production of these materials will be based on a new method of spinning polymer solutions by the effect of an alternating electric field (AC electrospinning). The project is also focused on research and development of multilayer/sandwich nanofibrous materials, which find significant technical, medical and bioengineering applications.

Period

01. 04. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

NCK 2 (STA02022TN020)

Website

www.kts.tul.cz

Leader

doc. Ing. Jan Valtera, Ph.D.

One of the most serious long-term environmental problems is the presence of microplastics in the air and in all types of water around the world, which is constantly increasing. In addition to chronic effects on the humans, microplastics also have a negative effect on microbial communities, zooplankton, fish, birds, and aquatic macrophytes, with toxicity being influenced by the shape, size, and chemistry of the materials. Common fibrous microplastics are mostly based on polyolefins, which usually float on water due to their low density. However, in surface waters, a significant proportion of microplastics (>30%) is made up of fiber fragments released from textile products mostly made of polymers with a higher density. These microplastics include particles released from synthetic fibers and fibers based on natural polymers, which are relatively stiff and resistant to degradation. Because textile fiber microplastics have different chemical composition due to the substances used in dyeing and chemical treatment of textiles, more toxic decomposition products and much more difficult elimination from the environment can be expected. A large amount of textile fibers enters the aquatic environment during textile production and the first three washing cycles. These fibers will likely have a completely different effect on organisms than fibers released into the environment by slow weathering. There is a surprising lack of information about this phenomenon, which is why research on it is a key part of the proposed project. Currently, there is also a strong emphasis on recycling textiles, including those containing synthetic polymers. However, 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). Then, they can be rereleased when the physical and chemical conditions of the environment change. We therefore want to pay increased attention to this issue. The project is generally focused on a comprehensive study of problems related to the occurrence of textile fiber microplastics in aquatic ecosystems. The project team on both the Czech and American sides will therefore mainly deal with: Separating fibrous microplastics from surface water and sediment samples, analyzing their occurrence, geometry, morphology, and chemical composition and determining which are textile microplastics and which microplastics are dominant. Creating fibrous microplastics (the dominant types) in the textile production process and simulating the generation of microplastics by mechanical separation. Analyzing mechanical manifestations from the creating of microplastics. Studying the adsorption/desorption of common antibiotics and PFAS in textile microplastics. Studying the specific effects of different types of textile microplastics, including fibers from recycled materials, on aquatic organisms (bacteria, green algae, aquatic macrophytes, pearl oysters, and fish). Risks assessment for the subsurface freshwater environment

Period

01. 03. 2023 – 31. 12. 2026

Zdroj

MŠMT

Code

LUAUS23054

Leader

RNDr. Alena Ševců, Ph.D.

In our project, we are going to study the impact of both forced and voluntary population transfers, which occured after the end of World War II, on the Czech-Polish cross-border cooperation. These transfers caused a significant change in the composition of the population of Czech-Polish borderland and caused actually a “twofold borderland”: the original Germanspeaking population was forced to leave territories of both Czechoslovakia and Poland in the western part of the mutual border – which is the entire length of the border between Bohumín /Chalupki and Czech-Polish-German trilateral border. The very eastern part of the border between Bohumín/Chalupki and the Czech-Polish-Slovak trilateral border is in a different situation, as the population change was not so major there. We are going to identify the impacts of these changes on the mutual cross-border co-operation on the entire length of the border. We will verify the hypothesis expecting the more profound integration in the eastern part of the border.

Period

01. 03. 2023 – 31. 12. 2025

Zdroj

GAČR

Code

23-04226L

Website

https://gacr.cz/vyhlaseni-soutezi-pro-rok-2023/

Leader

RNDr. Artur Boháč, Ph.D.

Ambient air pollution, a human carcinogen, negatively affects human health and contributes to incidence of pulmonary, cardiovascular and neurological disorders. Polluted air contains a mixture of gaseous compounds, particulate matter and chemicals bound to it. Biological impacts of air pollution are modulated by interactions between this complex mixture and the organism. In vitro studies often rely on toxicity tests of separate fractions of polluted air, yielding misleading data. We propose to investigate toxicity of real-world complete ambient air in lung bronchi and olfactory mucosa (a proxy to brain effects) tissues from healthy and diseased donors (asthma, Alzheimer´s disease). The cells will be grown at the air-liquid interface in our exposure system in the field conditions of localities differing in air pollution levels. We will analyze cytotoxicity, oxidative stress, immune response, and whole genome mRNA and miRNA expression. The results will contribute to understanding biological effects of polluted air and differences in response in samples from healthy and diseased donors.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

GAČR

Code

22-10279S

Leader

prof. Michal Vojtíšek, Ph.D. MSc

Plastic waste has been becoming a growing threat to the environment and society. An urgent solution to this requires innovative approaches. As most plastics are made from fossil fuel, eco-friendlier material, named bio-based plastics, made fully or partially from renewable sources, have been introduced and expected to be more biodegradable. Profound research has reported the involvement of microorganisms or enzymes in the biodegradation of synthetic plastics leading to a possible development of biological treatment technology for plastic waste. However, a single organism has been approached, not a complex symbiosis of microbial consortiums such as algae, bacteria, and fungi. Our preliminary study showed that fungi and bacteria were present in the generated biofilm on bio-based polyethylene terephthalate (PET) during its incubation in algal culture. Therefore, in this project, the possibility of them making an ally to degrade plastics will be investigated and the enzymes involved in biodegradation will be identified. Single bacteria and fungi will be isolated from algal biofilm. Each isolated microorganism will be determined using Sanger sequencing and cultured separately with the addition of plastics to see which one is playing a role in the degradation of the plastics. Protein characterization techniques will be applied to characterize the enzymes and the degraded products will be identified using chromatography analysis. By combining the data of enzymes and their degradation products, the mechanism and pathway of plastic degradation will be then constructed.

Period

01. 02. 2023 – 31. 12. 2024

Zdroj

MŠMT

Code

SGS-2023-3372

Leader

Marlita Marlita

The main aim of the project is to exchange best practices in pedagogical activities and share knowledge and management practices in selected courses both at EF TUL and IOT-G NTNU. Especially for the master degree students educated in English within courses related to Human Resource Management, the aim si to share knowledge, experiences, new methods and approaches and thus increase attractivity of courses for students and make it more practical for the students and prospective employers at both partner ́s universities. Moreover international cooperation will develop language and cross-cultural competencies both to students and academics involved in the project. Because of the pandemic situation most of the activities and intellectual outputs are planned to be online or in the digital format.

Period

01. 10. 2021 – 30. 09. 2023

Zdroj

DZS

Code

EHP-CZ-ICP-3-011

Leader

Ing. Tereza Michalová

Aerodynamics has perhaps played a pivotal role in the performance of athletes since the inception of speed sports. However, an enhanced interest in looking into the effects of aerodynamic properties on sportswear has gained the attention of researchers worldwide very recently. The surface textures of sports fabrics greatly influence the aerodynamic properties of athletes while performing sports. Interestingly, the surface texture of sports garments depends on the stress applied while wearing. As a result, the complexity of aerodynamic behavior increases according to the body fit of the sportswear garment. Additionally, the fabric can enhance aerodynamic behavior when stretched comfortably to a certain degree. The primary objective of this research is to design a methodology that can evaluate the impact of dynamic pressure and force (wind load) induced by wind speed on commercially available sports fabrics. The methodology adopted by the research is experimental. It will utilize the Wind Tunnel device developed by the department of Clothing Technology, Faculty of Textile Engineering at the Technical University of Liberec. The study will measure the aerodynamic characteristics of the fabrics over a range of Reynolds numbers and stretch levels to evaluate the mechanical and physical properties of stretchable fabrics used for sports. The findings will analyze the changes in surface texture under various stretching levels that can affect the aerodynamic drag.

Period

01. 02. 2023 – 31. 01. 2024

Zdroj

MŠMT

Code

SGS-2023-6394

Leader

prof. Dr. Ing. Zdeněk Kůs

The aim of the project is to create such conditions at the Technical University of Liberec (“TUL”) so that successful and promising athletes with exceptional sports performance can study and combine both demanding study requirements and sports training and participation in competitions (especially academic ones). The project is focused on the coordination and service support of selected students with exceptional sports performance while studying at TUL and on the organizational provision of the development and support of university sports at TUL.

Period

01. 01. 2023 – 31. 12. 2023

Zdroj

MŠMT

Code

014/UNIS/2023

Website

https://ktv.fp.tul.cz/akademicky-sport/unis

Leader

doc. PaedDr. Aleš Suchomel, Ph.D.

The “Virtual Convoy” system will be a cooperative distributed system for end-to-end testing of CAR2X communication, which using a virtual infrastructure and environment, will be enable the transfer of tests from roads to the laboratory environment.

Period

01. 01. 2021 – 31. 12. 2023

Zdroj

TAČR

Code

CK02000136

Leader

Ing. Josef Novák, Ph.D.

The “Virtual Convoy” system will be a cooperative distributed system for end-to-end testing of CAR2X communication, which using a virtual infrastructure and environment, will be enable the transfer of tests from roads to the laboratory environment.

Period

01. 01. 2021 – 31. 12. 2023

Zdroj

TAČR

Code

CK02000136

Leader

Ing. Josef Novák, Ph.D.

Visegrad Scholarship.

Period

01. 09. 2022 – 30. 06. 2023

Zdroj

Visegradské fondy

Code

52210589

Leader

Ing. Mateusz Fijalkowski, Ph.D.

Visegrad Scholarship.

Period

01. 09. 2022 – 30. 06. 2023

Zdroj

Visegradské fondy

Code

52210829

Leader

dr hab. Ing. Stanislaw Witold Waclawek, Ph.D.

The main goal of the project is the development of a dental floss enabling application of oral probiotics and other substances naturally occurring in the saliva (bioactive substances) into the interdental and other spaces of the oral cavity which are hard to reach. These bioactive substances will enhance natural balance of oral microflora with a minimal risk of side effects which can be observed in commonly used chemical substances. Bioactive substances will be applied via nanopolymer layer on the surface of the dental floss. The optimized speed of dissolution of the released nanoparticles in the interdental spaces will enable a continuous application of the active ingredients into the deeper layers of the biofilm on the surface of teeth which is not possible with commonly used agents.

Period

01. 10. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW02020042

Leader

doc. Ing. Eva Kuželová Košťáková, Ph.D.

The main goal of the project is the development of a dental floss enabling application of oral probiotics and other substances naturally occurring in the saliva (bioactive substances) into the interdental and other spaces of the oral cavity which are hard to reach. These bioactive substances will enhance natural balance of oral microflora with a minimal risk of side effects which can be observed in commonly used chemical substances. Bioactive substances will be applied via nanopolymer layer on the surface of the dental floss. The optimized speed of dissolution of the released nanoparticles in the interdental spaces will enable a continuous application of the active ingredients into the deeper layers of the biofilm on the surface of teeth which is not possible with commonly used agents.

Period

01. 10. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW02020042

Leader

doc. Ing. Eva Kuželová Košťáková, Ph.D.

The goal is to develop an effective hybrid wastewater treatment technology (physical-chemical; biological separation) that will remove drugs, their metabolites, and other micropollutants causing environmental contamination from concentrated wastewater produced by medical facilities. For this purpose, heterogeneous catalysis and subsequent purification of decomposed products in the biofilm system will be primarily tested. Attention will also be focused on the sorption system, which should mainly serve as an insurance element of the comprehensive technology. The goal is to create a hybrid solution that, with its construction and concept, becomes easily accessible and applicable to a wide range of operators of sewage treatment infrastructure without representing an extreme economic burden.

Period

01. 04. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

SS06020091

Leader

Ing. Karel Havlíček, Ph.D.

The goal is to develop an effective hybrid wastewater treatment technology (physical-chemical; biological separation) that will remove drugs, their metabolites, and other micropollutants causing environmental contamination from concentrated wastewater produced by medical facilities. For this purpose, heterogeneous catalysis and subsequent purification of decomposed products in the biofilm system will be primarily tested. Attention will also be focused on the sorption system, which should mainly serve as an insurance element of the comprehensive technology. The goal is to create a hybrid solution that, with its construction and concept, becomes easily accessible and applicable to a wide range of operators of sewage treatment infrastructure without representing an extreme economic burden.

Period

01. 04. 2023 – 31. 12. 2025

Zdroj

TAČR

Code

SS06020091

Leader

Ing. Karel Havlíček, Ph.D.

The main goal of the project is research and development of an ecological and very efficient drinking water filter for households based on the adsorption of harmful substances on the graphene nanolayer. The implementation of the project will bring a new solution for the filtration of drinking water in order to eliminate the disadvantages of existing filtration systems. It is an innovative use of state-of-the-art nanotechnologies and the expected result of the project will exceed the technical parameters of currently known solutions. The output of the project will be a prototype of a new graphene-based drinking water filter, which will be characterized by higher adsorption capacity, higher efficiency and rate of adsorption and the ability to capture the widest range of substances.

Period

01. 01. 2022 – 31. 12. 2023

Zdroj

TAČR

Code

FW04020064

Leader

prof. Dr. Ing. Miroslav Černík, CSc.

The main goal of the project is research and development of an ecological and very efficient drinking water filter for households based on the adsorption of harmful substances on the graphene nanolayer. The implementation of the project will bring a new solution for the filtration of drinking water in order to eliminate the disadvantages of existing filtration systems. It is an innovative use of state-of-the-art nanotechnologies and the expected result of the project will exceed the technical parameters of currently known solutions. The output of the project will be a prototype of a new graphene-based drinking water filter, which will be characterized by higher adsorption capacity, higher efficiency and rate of adsorption and the ability to capture the widest range of substances.

Period

01. 01. 2022 – 31. 12. 2023

Zdroj

TAČR

Code

FW04020064

Leader

prof. Dr. Ing. Miroslav Černík, CSc.

The purpose of the project is to broaden the utility of material composite nanotechnologies in biotechnology applications, specifically in viticulture, through technic solutions allowing more eficient, easier, and reliable manipulation of wine-making yeast-biomass providing stress free and highly efficient wine production. The objectiveof the project is to develop technic solutions for modern wine-making approaches and by designing advanced biomass carriers, based on a nanotechnology material platform, which will: • allow for otimal wine-yeast collection thanks to the high material affinity, • allow for gentle and long-term conservation of production yeast-strains, and • simplify technological applications of the said carrier for the reviving of such conserved biomass.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010590

Leader

Ing. Mgr. Lukáš Dvořák, Ph.D.

The purpose of the project is to broaden the utility of material composite nanotechnologies in biotechnology applications, specifically in viticulture, through technic solutions allowing more eficient, easier, and reliable manipulation of wine-making yeast-biomass providing stress free and highly efficient wine production. The objectiveof the project is to develop technic solutions for modern wine-making approaches and by designing advanced biomass carriers, based on a nanotechnology material platform, which will: • allow for otimal wine-yeast collection thanks to the high material affinity, • allow for gentle and long-term conservation of production yeast-strains, and • simplify technological applications of the said carrier for the reviving of such conserved biomass.

Period

01. 01. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW01010590

Leader

Ing. Mgr. Lukáš Dvořák, Ph.D.

In the field of advanced materials, there will be provided research of complex porous structured materials beginning with the design of its structure, through FEM modeling of mechanical properties to confrontation with the experimental results. Furthermore, experimental and numerical investigation of viscose reinforced composite materials as well as smart and composite materials whose thermomechanical properties can be changed deliberately by acting of external stimuli like temperature, light, humidity, pH, pressure, electric or magnetic fields. In the area of machine learning, we will investigate the control of the multiple degrees-of-freedom mechanical systems – theoretically and experimentally. The possibility of substitution of a mathematical model of the dynamical system by an artificial neural network will be assessed as well.

Period

01. 02. 2022 – 31. 12. 2024

Zdroj

Code

SGS-2022-5072

Leader

doc. Ing. Iva Petríková, Ph.D.

The aim of the project is R&D of glass beads that will be in line with circular economy and ICT. R&D will be focused on the production of glass beads, which will contain in addition to traditional soda-potassium glass also ingredients obtained by recycling waste from various types of glass (flat, laboratory or decorative) or materials that have not been systematically recycled, such as fibers from composite materials. R&D will focus on the preparation of recycled materials (dust, shards, fibers), as well as on the composition of the resulting glass and the resulting visual effect. The 2nd project goal is the development of a glass bead that will allow jewelery to perform functions such as NFC or IoT. The methods of CAE, Rapid Tooling and 3D printing will be used for innovated glass beads.

Period

01. 11. 2020 – 31. 12. 2023

Zdroj

TAČR

Code

FW02020240

Leader

doc. Dr. Ing. Ivan Mašín

The project aims to research and develop an electricity metering system for energy networks with many feeders/outlets. It is a power analyzer with multiple current inputs. The target application is digitizing distribution substations, monitoring smart grids, intelligent buildings, and SmartCities. The aim is to reduce the complexity of the cabling to speed up installation and eliminate wiring errors. The project’s second goal is to fundamentally expand software modules for meter configuration, improve automatic data collection, improve multi-feeder analysis and create related automated reports, and use cloud services to store more extensive archives from large-scale monitored systems.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

TAČR

Code

TK04020053

Leader

Ing. Miroslav Novák, Ph.D.

Organochlorines (OCs), such as chlorinated ethenes and polychlorinated biphenyls, still constitute an important environmental problem due to actual and/or potential contamination of soils or drinking water sources. Although microbial degradation of OCs has been extensively studied, there is paucity of knowledge about the distribution of OC degradation genes at contaminated sites and their link to phylogenetic information in individual taxa. In this project, we aim to understand patterns in the distribution of vital biodegradative functions and the phylogenetic origin of bacteria that perform these functions. Specifically, our main objectives are to: reveal patterns in the distribution of selected OC degradation (bphA and rdhA) genes in indigenous communities at contaminated sites and their link to phylogeny; investigate the contribution of extrachromosomal DNA to the distribution of OC degradation genes in the environment; elucidate the capability of bacterial consortia to adapt to elevated concentrations of OCs by up-regulation and dissemination of particular rdhA genes.

Period

01. 01. 2022 – 31. 12. 2024

Zdroj

GAČR

Code

22-00150S

Leader

RNDr. Alena Ševců, Ph.D.