To monitor the effect of application of lactic acid bacteria, mycoparasitic and entomopathogenic fungi in consideration to the disease and pest protection of pea (Pisum sativum L. and soybean (Glycine max (L.) Merr.).
Depend on the growing stage will be evaluated some growth characteristics related to protection application (eq. the number of nodes, plant length, root length, dry matter of plant and roots, chlorophyll content and diseases scoring).
Main work will be made in laboratory and will contain following parts:
a) learn basic methods used in microbiological laboratory (includes work with microscope, sterilizer, incubator, prepare of cultivation media, work with microorganisms);
b) evaluation of insect pests and nematodes parameters (involves a method of extracting nematodes from the soil);
c) microbiological analysis of plant colonization.
Make the review of the biological protection of legumes in organic farming (Week I).
Learn microbiological laboratory technics: Introduction to microbiological laboratory equipment (microscope, sterilizer, incubator, other equipments) and cultivation media preparation (Week II).
Collecting data from field experiments and processing samples of the plants after treatment application (Week III).
Analysis of occurence of nematodes in the soil (Week IV).
Microbiological analysis of treated plants (Week V).
Determination of fungi by light microscopy (Week VI).
Data processing (Week VII).
Presentation, report and poster preparation (Week VIII).
Basic knowledge of laboratory work.
Presentation, Report.
Students of plant sciences.
The topic of the internship is aimed on the analysis of agricultural products and food with special focus on fermented food produced from plant by-products.
Determination of antioxidant activity in food and agricultural products, work with HPLC/MS, food chemical and microbiological analysis, including sensory analysis.
General knowledge of food sciences.
Expected outcome should be literature review and/or report of food analysis of the given samples.
The topic of the internship is aimed on the analysis of agricultural products and food with special focus on the changes of food properties during food processing (e.g. baking, pasteurising, roasting, drying,…).
Determination of antioxidant activity in food and agricultural products, work with HPLC/MS, food chemical analysis, including sensory analysis.
General knowledge of food sciences.
Expected outcome should be literature review and/or report of food analysis of the given samples.
LCA studies are used to determine the environmental impacts of products, services, or organizations. The life cycle assessment method is also the basis for Environmental product declaration; Carbon footprint; Greenhouse gas report; Environmental footprint of the product and organization; Global Reporting Initiative; Ecodesign and Eco-innovation; Water footprint, and more.
LCA studies can serve as a tool for reducing the environmental impact of companies, as motivational aspects in communication with the customer, as motivational tools for environmental policy (e.g., agriculture), for increasing competitiveness, or for development and research. The benefit of the LCA method is its ability to interpret data into a clear set of environmental indicators or into an ecological footprint. With the help of LCA, it is possible to compare the environmental impacts of products with regard to their function or evaluate the environmental impacts with respect to the entire product life cycle. The LCA study generally has the ability to identify the transmission of environmental problems both in space and between different impact categories. It is, therefore, possible to detect the transfer of problems from place to place. The outputs of a particular LCA study are not valid in general but always under given and clearly specified conditions. The benefit of the LCA method is just a clear definition of the conditions of validity of studies, placing the knowledge about the interactions of technological processes and the environment into a specific technological, environmental, and socio-economic context.
Literature review, data collection, environmental impact assessment.
Education in the field of agriculture; and general knowledge of ecology, toxicology, and chemistry are welcome.
Examples of the topic:
Bernas, J. et al. (2023). Optimal environmental design of nitrogen application rate for facultative wheat using life cycle assessment. European Journal of Agronomy, 146, 126813.
Bernas, J. et al. (2021). Sustainability Estimation of Oat:Pea Intercrops from the Agricultural Life Cycle Assessment Perspective. Agronomy, 11, 2433.
Bernas, J. et al. (2021). Cup plant, an alternative to conventional silage from a LCA perspective. The International Journal of Life Cycle Assessment, 1-16.
Bernas, J. et al. (2021). Agricultural lca for food oil of winter rapeseed, sunflower, and hemp, based on czech standard cultivation practices. Agronomy, 11, 2301.
Bernas, J. et al. (2020). The Energy and Environmental Potential of Waste from the Processing of Hulled Wheat Species. Agriculture, 10(12), 592.
The research program in our laboratory is aimed at biologically and sensory active compounds of agricultural products and medicinal plants. Our goals include isolation and identification of these compounds, and evaluation of their biological properties (e.g., antimicrobial, cytotoxic, anti-inflammatory activities, etc.).
The student will be involved in the running research projects. His/her activities will include samples preparation and their analysis by state-of-the-art analytical instruments as well as isolation and purification of compounds of interest from various agricultural products (e.g., garlic, onion, mushrooms).
General knowledge of chemistry and basic laboratory skills. Enthusiasm and reliability.
Report/presentation.
https://global.oup.com/academic/product/ecological-speciation-9780199587117?cc=cz&lang=en&;
https://www.biorxiv.org/content/10.1101/2020.02.28.969279v1
https://www.frontiersin.org/articles/10.3389/fphys.2;
https://www.nature.com/articles/s41598-019-50555-9
Boron-doped diamond (BDD) electrode presents a real hit among electrode materials for electroanalysis in the biomedical, biological and environmental field, because of low and stable background current, wide potential window in aqueous and non-aqueous media, corrosion and fouling resistance, good mechanical stability, and high thermal conductivity. The popularity of BDD electrodes for electrooxidation is given by the wide potential window in anodic region. Beside reactions involving direct electron transfer processes in the potential region of water stability, at the high positive applied potentials the BDD surface allows the production of hydroxyl radicals from the electrolysis of water. In this case the reaction mechanism relies on anodic oxygen transfer between adsorbed OH radicals coming from anodic discharge of the water molecule and adsorbed analyte. That enables electrooxidation of compounds otherwise considered to be electrochemically inactive for direct oxidation at common electrode materials. On the other side, the decreased sensitivity towards oxygen reduction and relatively wide potential window of these electrodes in cathodic region is advantageous when considering reduction of organic compounds. Their electrochemical behavior of organic compounds at BDD-based electrodes is strongly dependent on boron doping level, morpohology and surface termination with hydrogen-, oxygen-terminated, or polished surface as the most frequently used for common applications.
The proposed project aims at the development of new BDD-based sensors applicable in batch voltammetric and liquid flow techniques and in biosensing. Concentration of the dopant, morphology of the surface and its termination or modification will be investigated with respect to the analytical parameters (sensitivity, limit of detection, linear dynamic range etc.) of organic compounds of interest. The actual trends in BDD-based research will be represented by the following proposals:
a) Development and characterization of nanostructured BDD material and of a system for dual recording of neuroelectrical and electrochemical signals of neurotransmitters from in vitro micro electrode arrays based on this material. Attention will be paid to electrochemical response of catecholamines (e.g., dopamine) in media ensuring compatibility of the sensor with conditions enabling the grow of neurons at the BDD surface.
b) Investigation of proclivity of BDD surface towards chemisorption of organic compounds of smaller size and biomolecules and its utilization in development of BDD-based sensors for electroanalysis. Adsorption of aggregates of phenolic compounds with surfactants, complexation of triazole compounds with inorganic cations ar behavior of steroid compounds in dependence on surface termination and morphology will be studied.
Basic laboratory experience, basic knowledge of analytical chemistry, very good communications skills (i.e. good English).
Synthesis of various types of biopolymer-based composites via sol-gel techniques ← Characterization → Tuning composite properties
Biopolymer-based composites have emerged as promising materials for tissue repair due to their unique combination of biocompatibility, biodegradability, and tunable mechanical properties. By integrating natural or synthetic polymers with bioactive fillers such as bioceramics, nanoparticles, or growth factors, these composites can mimic the extracellular matrix, support cell adhesion, and promote tissue regeneration.
Nanocomposite synthesis, characterization via thermal analyses, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
https://doi.org/10.3390/molecules26030619
Students of material science, chemistry or physics
Synthesis of CeO2 NPs via precipitation method using hexamethylenetetramine ← Characterization → Charge-tunable CeO₂ nanoparticles
Cerium oxide (CeO₂) is an important rare-earth material known for its ability to switch between two oxidation states, Ce³⁺ and Ce⁴⁺. This redox behaviour depends on conditions such as temperature and pH and is further enhanced by the high oxygen mobility and efficient electron transfer on the surface of the nanoparticles. These characteristics make CeO₂ nanoparticles highly effective in both catalytic and biomedical fields. Cerium oxide nanoparticles have been extensively investigated for their potential to mitigate oxidative stress at the cellular level due to their intrinsic antioxidant properties.
Synthesis of dispersions, characterization, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
Students of material science, chemistry or physics
The research program in our laboratory is aimed at biologically and sensory active compounds of agricultural products and medicinal plants. Our goals include isolation and identification of these compounds, and evaluation of their biological properties (e.g., antimicrobial, cytotoxic, anti-inflammatory activities, etc.).
The student will be involved in the running research projects. His/her activities will include samples preparation and their analysis by state-of-the-art analytical instruments as well as isolation and purification of compounds of interest from various agricultural products (e.g., garlic, onion, mushrooms).
General knowledge of chemistry and basic laboratory skills. Enthusiasm and reliability.
Report/presentation.
Boron-doped diamond (BDD) electrode presents a real hit among electrode materials for electroanalysis in the biomedical, biological and environmental field, because of low and stable background current, wide potential window in aqueous and non-aqueous media, corrosion and fouling resistance, good mechanical stability, and high thermal conductivity. The popularity of BDD electrodes for electrooxidation is given by the wide potential window in anodic region. Beside reactions involving direct electron transfer processes in the potential region of water stability, at the high positive applied potentials the BDD surface allows the production of hydroxyl radicals from the electrolysis of water. In this case the reaction mechanism relies on anodic oxygen transfer between adsorbed OH radicals coming from anodic discharge of the water molecule and adsorbed analyte. That enables electrooxidation of compounds otherwise considered to be electrochemically inactive for direct oxidation at common electrode materials. On the other side, the decreased sensitivity towards oxygen reduction and relatively wide potential window of these electrodes in cathodic region is advantageous when considering reduction of organic compounds. Their electrochemical behavior of organic compounds at BDD-based electrodes is strongly dependent on boron doping level, morpohology and surface termination with hydrogen-, oxygen-terminated, or polished surface as the most frequently used for common applications.
The proposed project aims at the development of new BDD-based sensors applicable in batch voltammetric and liquid flow techniques and in biosensing. Concentration of the dopant, morphology of the surface and its termination or modification will be investigated with respect to the analytical parameters (sensitivity, limit of detection, linear dynamic range etc.) of organic compounds of interest. The actual trends in BDD-based research will be represented by the following proposals:
a) Development and characterization of nanostructured BDD material and of a system for dual recording of neuroelectrical and electrochemical signals of neurotransmitters from in vitro micro electrode arrays based on this material. Attention will be paid to electrochemical response of catecholamines (e.g., dopamine) in media ensuring compatibility of the sensor with conditions enabling the grow of neurons at the BDD surface.
b) Investigation of proclivity of BDD surface towards chemisorption of organic compounds of smaller size and biomolecules and its utilization in development of BDD-based sensors for electroanalysis. Adsorption of aggregates of phenolic compounds with surfactants, complexation of triazole compounds with inorganic cations ar behavior of steroid compounds in dependence on surface termination and morphology will be studied.
Basic laboratory experience, basic knowledge of analytical chemistry, very good communications skills (i.e. good English).
Synthesis of various types of biopolymer-based composites via sol-gel techniques ← Characterization → Tuning composite properties
Biopolymer-based composites have emerged as promising materials for tissue repair due to their unique combination of biocompatibility, biodegradability, and tunable mechanical properties. By integrating natural or synthetic polymers with bioactive fillers such as bioceramics, nanoparticles, or growth factors, these composites can mimic the extracellular matrix, support cell adhesion, and promote tissue regeneration.
Nanocomposite synthesis, characterization via thermal analyses, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
https://doi.org/10.3390/molecules26030619
Students of material science, chemistry or physics
Synthesis of CeO2 NPs via precipitation method using hexamethylenetetramine ← Characterization → Charge-tunable CeO₂ nanoparticles
Cerium oxide (CeO₂) is an important rare-earth material known for its ability to switch between two oxidation states, Ce³⁺ and Ce⁴⁺. This redox behaviour depends on conditions such as temperature and pH and is further enhanced by the high oxygen mobility and efficient electron transfer on the surface of the nanoparticles. These characteristics make CeO₂ nanoparticles highly effective in both catalytic and biomedical fields. Cerium oxide nanoparticles have been extensively investigated for their potential to mitigate oxidative stress at the cellular level due to their intrinsic antioxidant properties.
Synthesis of dispersions, characterization, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
Students of material science, chemistry or physics
The research program in our laboratory is aimed at biologically and sensory active compounds of agricultural products and medicinal plants. Our goals include isolation and identification of these compounds, and evaluation of their biological properties (e.g., antimicrobial, cytotoxic, anti-inflammatory activities, etc.).
The student will be involved in the running research projects. His/her activities will include samples preparation and their analysis by state-of-the-art analytical instruments as well as isolation and purification of compounds of interest from various agricultural products (e.g., garlic, onion, mushrooms).
General knowledge of chemistry and basic laboratory skills. Enthusiasm and reliability.
Report/presentation.
Even though the work of the Institute of Road Structures BUT is often presented mainly by its laboratory research, it also includes research of traffic design and traffic engineering. The presented internship is oriented on these fields and offers several tasks you can be part of depending on your specialisation or interests. Most of them are closely connected to real-life projects of city of Brno.
Brno University of Technology, Faculty of Civil Engineering, Institute of Road Structures
The topic is focused on testing materials for asphalt pavement.
The aim of the project is to prepare and test advanced materials for road construction using recycled asphalt pavement (RAP). The main focus of the internship is working in a road laboratory, testing the properties of asphalt mixtures and layers or emulsion cold mixtures. An integral part of the internship will be testing the materials used (e.g., asphalt, asphalt emulsion, aggregate) and evaluating the measured data.
The internship is suitable for civil engineering students with focus on road structures. The intern should have basic knowledge of materials used in road construction, asphalt pavements, and their testing.
The output will be a report summarizing the results of the internship.
The references will be sent after agreement with the intern
Recommended: students of Civil Engineering (specialization in road structures).
Basic laboratory experience, basic knowledge of analytical chemistry, very good communications skills (i.e. good English).
https://www.elsevier.com/connect/11-steps-to-structuring-a-science-paper-editors-will-take-seriously
The aim of the project is to prepare the test bed using real time digital simulator and test chosen distance relays.
PLC programming task is to provide data logging, on-line monitoring of individual variables and their visualization.
1) Make a survey of the problems of interest. For example, see [1], [2] or [3].
2) After a discussion with your supervisor choose one of the problems, make a deeper study of existing possibilities how to solve it, preferably by EAs. For the introduction to evolutionary solution of some typical NP complete problems, for example, see [4].
3) Create an implementation (or get an existing one if available, e.g. from github) for solving the problem from item 2 by means of an EA. Familiarize yourself with its functioning and experiment with the solution of some basic instances of the problem.
4) Analyze the results from item 3 and identify parts of the system for potential improvements. They may include the problem representation, evaluation function or the EA itself. Apply your own ideas and creativity to implement at least one modification into the original system.
5) Perform a set of experiments with solving more advanced problem instances using both the basic EA implementation and the version modified by you. Try to solve complex instances as best as you can. Compare statistically the results, evaluate the EA performance and discuss the contributions of your work.
1) S. Dasgupta, C.H. Papadimitriou, and U.V. Vazirani: Algorithms, 2006 (for NP-complete problems see chapter 8, e.g. from here: https://book.huihoo.com/pdf/algorithms/)
2) P. Crescenzi, V. Kann (eds.): A compendium of NP optimization problems. Available online: https://www.csc.kth.se/tcs/compendium/,pdf: https://cs.pwr.edu.pl/zielinski/lectures/om/compendium.pdf
3) List of NP-complete problems on Wikipedia: https://en.wikipedia.org/wiki/List_of_NP-complete_problems
4) K. De Jong et al.: Using Genetic Algorithms to Solve NP-Complete Problems, 1998, available online: https://www.researchgate.net/publication/2718690_Using_Genetic_Algorithms_to_Solve_NP-Complete_Problems
\http://people.cs.aau.dk/~adavid/smc/index.html, https://ieeexplore.ieee.org/document/9116207
1) Summarize key terms and concepts related to the so-called Statistical Model Checking (SMC) and analyse the actual state in the area of modelling and analysis of real-time systems defined by a set of tasks and scheduling (priority assignment) policies.
2) Identify SMC means suitable for modelling of such systems as well as for evaluating their schedulability.
3) Model representative systems in order to check their schedulability by means of SMC in various conditions.
4) Evaluate your model and discuss it from the applicability and validity viewpoints.
University of West Bohemia in Pilsen, New Technologies Research Centre
Unique measurement system was developed for high speed measurement of thermal radiation from material during nanosecond, picosecond and femtosecond laser micromachining. It is based on InGaAs photodiodes and response time is in nanoseconds. A precise calibration is necessary for absolute temperature measurement. We want to use this system for measurement of temperatures during ultrashort laser processing of materials, e.g. titanium for medical implants.
Main work will be setup and calibration of the measurement system, measurement with different laser processing parameters and analysis of measured data.
Capability of careful precise measurements with a delicate optical instrument and detail analysis of measurements in user developed software (Python).
Students of engineering or physics.
University of West Bohemia in Pilsen, New Technologies Research Centre
Quantum technologies include new multidisciplinary research areas connecting physics, chemistry, mathematics, computer science and materials science and have great technological potential. The NTC team is focused on development of quantum technologies, mainly qaunatum materials and quantum sensing devices. New ideas has to be tested experimentally on the optical bench using lasers, optical components, detectors, etc.
Main work will be literature review, experimental development and verification of the new idea of quantum measurement system, measurement of optical and thermal properties of different materials, and analysis of measured data.
Capability of careful measurements with optical instruments and detail analysis of measurements. Beneficial is knowledge of Python programming and pasion for new ideas.
Lit. review, report, presentation.
https://qm4st.zcu.cz/en/
Implementation of a library of algorithms for tuning adjustable parameters of PID (PSD) controllers. The output will be a library of functions writen in the C language.
Basic knowledge in programming in C or C++.
Study literature is available at the department. The issue of PID regulation will be explained at the beginning of the internship.
Students of mechatronic or electrical engineering with focus on programming.
We have created a prototype device that allows you to create unique nanostructures by combining two methods of creating nanofibers. The device is controlled via a direct code on the microcontroller. We would like to increase the level of automation and add control of devices via a graphical interface directly from the device. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a user interface for a device that uses for manufacturing complex nanofiber structures. The user interface will work on Raspberry Pi on the touch screen.
Experience with Python, Raspbery Pi, Arduino, basic electronics.
Graphical user interface on Raspbery Pi.
https://docs.python.org/3/library/tkinter.html
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
We have created a prototype device that allows you to create special structures of the so-called scaffolds. The device is used in the medical field. A graphical interface will help maintenance personnel use the device without programming knowledge. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a grafical user interface for 3D printer that uses for manufacturing micro- and nanofiber scaffollds. The user interface should be written in Python.
Experience with Python, Arduino, G-code, basic electronics.
User friendly software, that allows you to perform certain operations on the device.
https://github.com/bborncr/gcodesender.py; https://marlinfw.org/meta/gcode/
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
Our university is a leader in the field of nanotechnology. One of the methods for the production of nano- and microfibers is the drawing method. In this area, it is planned to realize one experiment to which it is necessary to build a rotating drum with the construction and revitalization of which we would like to help. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a design for a rotating drum;
Figure out how to connect it with the current device based on a 3D printer;
If possible to implement and assemble the device;
Experience with CAD software, preparing model for 3D printing, Arduino, basic electronics and Python.
Firmware, CAD models.
https://www.researchgate.net/figure/Schematic-of-nanofiber-fabrication-by-the-drawing-technique-b-SEM-images-of-a_fig3_268872758
Recommended for: Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
Cooperation on the development of new possibilities of using robotic hand in agriculture. Sample topics are:
a) Preparing of literature review,
b) Programming in the field of machine vision,
c) Programming in the field of artificial intelligence,
d) Computer modeling in the field of using robotic hand,
e) Preparing graphic for presentation of a project, etc.
Python represents one of the most used programming languages in the world. It may be used for many applications, such as neural networks, image processing, etc.
Creation of source code in Python, where the focus of the work will be specified according to the trainee’s interest.
Knowledge of Python (if needed, the trainee can consult with a specialist).
Outcomes depend on the theme: source code, report, literature review, scientific paper…
Introduction to programming in Python:
https://www.w3schools.com/python/
https://www.geeksforgeeks.org/python-programming-language/
https://realpython.com/
https://ocw.mit.edu/courses/6-0001-introduction-to-computer-science-and-programming-in-python-fall-2016/
Introduction to image processing in Python:
https://docs.opencv.org/3.4/d6/d00/tutorial_py_root.html
https://pyimagesearch.com/
The focus of the work will be specified according to the trainee’s interest.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L – 3D Vision system, bin picking etc. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in industrial robotics.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples / teaching materials.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L connected sensors and conveyor, AGV SSI Schaefer Weasel, Balluff model assembly line. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in sensors.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples, teaching materials.
University of West Bohemia/Faculty of Mechanical Engineering/Department of Industrial Engineering and Management
In this research, we aim to expose participants to a corporate virtual training environment, where stress-inducing scenarios will be deliberately introduced (e.g., machine malfunction, increased production rate, or emergency situations). We are particularly interested in how participants manage stress in these scenarios induced by virtual reality. The level of stress will vary individually and will be measured using wearable devices (e.g., skin conductance, heart rate). After the exposure, participants will also complete questionnaires on stress levels, cybersickness, and user acceptance. Furthermore, the memorability of the content will be tested.
An intern could assist in preparing the virtual environment, participate in the actual experiment by helping with the attachment of sensors to participants, and be responsible for data collection. The intern may also assist with data analysis.
The mentioned requirements are recommended but not mandatory, as the intern can either learn the necessary skills or be involved in tasks appropriate to their existing knowledge. Programming skills are advantageous (specifically in C# and Unity), as well as a basic understanding of statistical analysis.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia/Faculty of Mechanical Engineering/Department of Industrial Engineering and Management
The objective of this experiment is to assess the efficiency and subjective perception of using AR in a simulated production line maintenance scenario, compared to a traditional approach that utilizes maps and paper instructions. The experiment is designed to clearly compare the performance and convenience of both methods. The experimental setup utilizes the Fischertechnik construction kit, which serves as a model for simulating production line maintenance. The kit is configured to include machines distributed in a real-world space, requiring participants to actively search for individual components. Both regular maintenance tasks and random malfunctions are planned for the simulation, with these conditions being consistent for all participants. Participants in the experiment are divided into two groups. The control group follows the traditional approach, studying the layout of the line using a map and tracking errors on a single terminal with paper-based instructions. Repairs are carried out based on these paper instructions. In contrast, the experimental group uses either a tablet or AR glasses to monitor sensor data, with the machine reporting the error and showing the route to the malfunction site. Repairs in the experimental group are guided by AR, providing real-time visual instructions. The experimental group is further divided into two subgroups based on the type of AR device used. Maintenance and repairs are divided into simple tasks, such as pressing a button, and more complex repairs that require specific step-by-step sequences. The control group works with a paper list of errors and repairs, while the experimental group uses AR to display specific steps directly on the machine. The experiment involves simulating maintenance, where participants perform tasks according to the assigned instructions, and both the time and success rate of repairs are recorded. After completing the simulation, participants will fill out a questionnaire focused on their subjective perception of the method used. Participants who experienced the traditional method will then try the AR version and provide feedback. This experiment will provide valuable insights into the advantages and disadvantages of using AR in industrial maintenance and allow for a better understanding of its potential benefits in real-world operational conditions.
Although the program that reads real-time data and displays it on the machines is already developed, there is still a need to finalize a system that will simulate malfunctions based on AR and input data, display them on the terminal, and simultaneously show repair instructions in augmented reality.
This task mainly involves assistance with the technical preparation of the software, so we would particularly emphasize programming proficiency. The system will be developed in Unity with support from the Vuforia platform. Communication between IoT devices is handled by the MQTT architecture. From previous experience, we know that specific experience with these systems is not required, but general programming experience will suffice.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project integrates the Fischertechnik educational robotics kit with a Siemens programmable logic controller (PLC) to demonstrate industrial automation principles in a hands-on, academic setting. The goal is to design and implement control logic that allows the Siemens PLC to operate Fischertechnik components such as motors, sensors, and actuators. This setup simulates real-world automation systems and provides engineering students practical experience in PLC programming and system integration.
The project bridges the gap between educational robotics and industrial control systems, offering valuable insights into how programmable controllers are used in manufacturing and automation.
1) Getting to know the Fischertechnik kit
2) Familiarisation with Siemens PLC
3) Creating a study guide
4) Creating one more complex model
5) Analyse the benefits and challenges of linking the learning kit with an industrial PLC.
6) Describe the methodology, testing results and recommendations for teaching.
7) Create a paper suitable for publication or presentation at a professional conference.
Knowledge of PLC and PLC programming
Research paper about the problematic, Study guide
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The internship would aim to create a programming manual for the Fischertechnik TXT 4.0 controller using Python and to develop control codes for basic examples for industrial engineering students.
1. Familiarisation with the Fischertechnik TXT 4.0 unit and the Fischertechnik kit
2. Develop a study guide for programming the control unit using Python
3. Develop basic examples for industrial engineering students
Basic knowledge of Python is an advantage
Basic understanding of Scratch is an advantage
Study book, Paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project explores and compares two approaches to 3D printing: traditional 3D printing using a Průša Mini+ printer and a Dobot Magician robot. The aim is to evaluate both systems’ capabilities, accuracy and usability in the context of engineering education and prototyping. The final output will be a research paper summarising the findings, supported by practical experiments and analysis.
1) Technical Familiarisation
2) Design and Execution of
3) Test Prints
4) Evaluation Criteria
5) Development
6)Experimental Testing
7) Analysis and Interpretation
8) Research Article Writing
Basic understanding of 3D printing
Willingness to experiment and explore
Knowledge of e.g. Autodesk Inventor is an advantage
Research paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Smart manufacturing – participate in course development related to smart manufacturing, including studying literature from various sources and create chapters of a course.
Prepare various chapters on Industry 4.0 and Smart manufacturing concept, simulation models and digital twins, data collection from manufacturing system, sensors and their application, Machine Learning using visual programming language, Data in Smart manufacturing, decision making algorithms in manufacturing management, Industry 5.0 concept, trends in manufacturing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Matlab examples – participate in course development related to Matlab programming, including studying literature from various sources.
Own creation of examples in Matlab environment. Examples should be from the technical field. Creation of assignments for examples, including analysis, description of solutions and testing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of Matlab programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
C# examples – participation in course development focused on C# programming, including studying literature from various sources.
Own creation of examples in the C# environment oriented on the principle of object-oriented programming – inheritance, etc. Examples should have technical character. Creation of assignments for examples, including analysis, description of solutions and their testing.
Basic knowledge of C# programming, know how to work with MS Office tools, know how to work with PC, design an algorithm to solve a problem, create a simple form application in an object-oriented programming system, create simple algorithms for technical calculations, express an algorithm in a graphical way
Chapters in course.
Mendel University in Brno, Faculty of Regional Development and International Studies, Department of Agricultural Economics and Policy
Department of Agricultural Economics and Policy is an organizational unit of the Department of Regional and Business Economics FRDIS MENDELU. This team of academic staff and other experts is grouped around specific topics regarding to the development of current agribusiness in socio-economic, technological, political, environmental and other context. Specific topics may be e.g. economics of farms, agri-food trade, agribusiness value chains and global production networks, alternative food systems, agrarian policy analysis and evaluation, food security.
The student will participate on research activities of the Department of Geography with a specific focus of above-mentioned topic.
The student should have general interest and passion for scientific research and be a team player. We expect him/her to have some geographical knowledge and interets in the topic mentioned above. Fluent English is a must (reading, writing, speaking).
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 5.0 and its impact on ergonomics, work physiology and occupational health and safety.
Conducting a literature search on the issue, creating a literature review, joint publication.
Literature review, publication.
CSR = a type of business self-regulation with the aim of being socially accountable. There is no one “right” way companies can practice CSR; many corporate CSR initiatives strive to positively contribute to the public, the economy or the environment.
Literature review – global case studies of companies within the EU and all over the World; comparison of different types of industry (focusing then mainly on chemical industry); social, economic and environmental issues; reporting; LCA; sustainability; setting hypotheses and verifying/rejecting them; statistics and overviews.
General knowledge of CSR, interest in the issue, statistics.
Voluntary:
The aim of the project is to prepare the test bed using real time digital simulator and test chosen distance relays.
PLC programming task is to provide data logging, on-line monitoring of individual variables and their visualization.
1) Make a survey of the problems of interest. For example, see [1], [2] or [3].
2) After a discussion with your supervisor choose one of the problems, make a deeper study of existing possibilities how to solve it, preferably by EAs. For the introduction to evolutionary solution of some typical NP complete problems, for example, see [4].
3) Create an implementation (or get an existing one if available, e.g. from github) for solving the problem from item 2 by means of an EA. Familiarize yourself with its functioning and experiment with the solution of some basic instances of the problem.
4) Analyze the results from item 3 and identify parts of the system for potential improvements. They may include the problem representation, evaluation function or the EA itself. Apply your own ideas and creativity to implement at least one modification into the original system.
5) Perform a set of experiments with solving more advanced problem instances using both the basic EA implementation and the version modified by you. Try to solve complex instances as best as you can. Compare statistically the results, evaluate the EA performance and discuss the contributions of your work.
1) S. Dasgupta, C.H. Papadimitriou, and U.V. Vazirani: Algorithms, 2006 (for NP-complete problems see chapter 8, e.g. from here: https://book.huihoo.com/pdf/algorithms/)
2) P. Crescenzi, V. Kann (eds.): A compendium of NP optimization problems. Available online: https://www.csc.kth.se/tcs/compendium/,pdf: https://cs.pwr.edu.pl/zielinski/lectures/om/compendium.pdf
3) List of NP-complete problems on Wikipedia: https://en.wikipedia.org/wiki/List_of_NP-complete_problems
4) K. De Jong et al.: Using Genetic Algorithms to Solve NP-Complete Problems, 1998, available online: https://www.researchgate.net/publication/2718690_Using_Genetic_Algorithms_to_Solve_NP-Complete_Problems
\http://people.cs.aau.dk/~adavid/smc/index.html, https://ieeexplore.ieee.org/document/9116207
1) Summarize key terms and concepts related to the so-called Statistical Model Checking (SMC) and analyse the actual state in the area of modelling and analysis of real-time systems defined by a set of tasks and scheduling (priority assignment) policies.
2) Identify SMC means suitable for modelling of such systems as well as for evaluating their schedulability.
3) Model representative systems in order to check their schedulability by means of SMC in various conditions.
4) Evaluate your model and discuss it from the applicability and validity viewpoints.
University of West Bohemia in Pilsen, New Technologies Research Centre
Unique measurement system was developed for high speed measurement of thermal radiation from material during nanosecond, picosecond and femtosecond laser micromachining. It is based on InGaAs photodiodes and response time is in nanoseconds. A precise calibration is necessary for absolute temperature measurement. We want to use this system for measurement of temperatures during ultrashort laser processing of materials, e.g. titanium for medical implants.
Main work will be setup and calibration of the measurement system, measurement with different laser processing parameters and analysis of measured data.
Capability of careful precise measurements with a delicate optical instrument and detail analysis of measurements in user developed software (Python).
Students of engineering or physics.
University of West Bohemia in Pilsen, New Technologies Research Centre
Quantum technologies include new multidisciplinary research areas connecting physics, chemistry, mathematics, computer science and materials science and have great technological potential. The NTC team is focused on development of quantum technologies, mainly qaunatum materials and quantum sensing devices. New ideas has to be tested experimentally on the optical bench using lasers, optical components, detectors, etc.
Main work will be literature review, experimental development and verification of the new idea of quantum measurement system, measurement of optical and thermal properties of different materials, and analysis of measured data.
Capability of careful measurements with optical instruments and detail analysis of measurements. Beneficial is knowledge of Python programming and pasion for new ideas.
Lit. review, report, presentation.
https://qm4st.zcu.cz/en/
Implementation of a library of algorithms for tuning adjustable parameters of PID (PSD) controllers. The output will be a library of functions writen in the C language.
Basic knowledge in programming in C or C++.
Study literature is available at the department. The issue of PID regulation will be explained at the beginning of the internship.
Students of mechatronic or electrical engineering with focus on programming.
We have created a prototype device that allows you to create unique nanostructures by combining two methods of creating nanofibers. The device is controlled via a direct code on the microcontroller. We would like to increase the level of automation and add control of devices via a graphical interface directly from the device. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a user interface for a device that uses for manufacturing complex nanofiber structures. The user interface will work on Raspberry Pi on the touch screen.
Experience with Python, Raspbery Pi, Arduino, basic electronics.
Graphical user interface on Raspbery Pi.
https://docs.python.org/3/library/tkinter.html
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
We have created a prototype device that allows you to create special structures of the so-called scaffolds. The device is used in the medical field. A graphical interface will help maintenance personnel use the device without programming knowledge. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a grafical user interface for 3D printer that uses for manufacturing micro- and nanofiber scaffollds. The user interface should be written in Python.
Experience with Python, Arduino, G-code, basic electronics.
User friendly software, that allows you to perform certain operations on the device.
https://github.com/bborncr/gcodesender.py; https://marlinfw.org/meta/gcode/
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
Our university is a leader in the field of nanotechnology. One of the methods for the production of nano- and microfibers is the drawing method. In this area, it is planned to realize one experiment to which it is necessary to build a rotating drum with the construction and revitalization of which we would like to help. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a design for a rotating drum;
Figure out how to connect it with the current device based on a 3D printer;
If possible to implement and assemble the device;
Experience with CAD software, preparing model for 3D printing, Arduino, basic electronics and Python.
Firmware, CAD models.
https://www.researchgate.net/figure/Schematic-of-nanofiber-fabrication-by-the-drawing-technique-b-SEM-images-of-a_fig3_268872758
Recommended for: Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
Cooperation on the development of new possibilities of using robotic hand in agriculture. Sample topics are:
a) Preparing of literature review,
b) Programming in the field of machine vision,
c) Programming in the field of artificial intelligence,
d) Computer modeling in the field of using robotic hand,
e) Preparing graphic for presentation of a project, etc.
Python represents one of the most used programming languages in the world. It may be used for many applications, such as neural networks, image processing, etc.
Creation of source code in Python, where the focus of the work will be specified according to the trainee’s interest.
Knowledge of Python (if needed, the trainee can consult with a specialist).
Outcomes depend on the theme: source code, report, literature review, scientific paper…
Introduction to programming in Python:
https://www.w3schools.com/python/
https://www.geeksforgeeks.org/python-programming-language/
https://realpython.com/
https://ocw.mit.edu/courses/6-0001-introduction-to-computer-science-and-programming-in-python-fall-2016/
Introduction to image processing in Python:
https://docs.opencv.org/3.4/d6/d00/tutorial_py_root.html
https://pyimagesearch.com/
The focus of the work will be specified according to the trainee’s interest.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L – 3D Vision system, bin picking etc. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in industrial robotics.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples / teaching materials.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L connected sensors and conveyor, AGV SSI Schaefer Weasel, Balluff model assembly line. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in sensors.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples, teaching materials.
University of West Bohemia/Faculty of Mechanical Engineering/Department of Industrial Engineering and Management
In this research, we aim to expose participants to a corporate virtual training environment, where stress-inducing scenarios will be deliberately introduced (e.g., machine malfunction, increased production rate, or emergency situations). We are particularly interested in how participants manage stress in these scenarios induced by virtual reality. The level of stress will vary individually and will be measured using wearable devices (e.g., skin conductance, heart rate). After the exposure, participants will also complete questionnaires on stress levels, cybersickness, and user acceptance. Furthermore, the memorability of the content will be tested.
An intern could assist in preparing the virtual environment, participate in the actual experiment by helping with the attachment of sensors to participants, and be responsible for data collection. The intern may also assist with data analysis.
The mentioned requirements are recommended but not mandatory, as the intern can either learn the necessary skills or be involved in tasks appropriate to their existing knowledge. Programming skills are advantageous (specifically in C# and Unity), as well as a basic understanding of statistical analysis.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia/Faculty of Mechanical Engineering/Department of Industrial Engineering and Management
The objective of this experiment is to assess the efficiency and subjective perception of using AR in a simulated production line maintenance scenario, compared to a traditional approach that utilizes maps and paper instructions. The experiment is designed to clearly compare the performance and convenience of both methods. The experimental setup utilizes the Fischertechnik construction kit, which serves as a model for simulating production line maintenance. The kit is configured to include machines distributed in a real-world space, requiring participants to actively search for individual components. Both regular maintenance tasks and random malfunctions are planned for the simulation, with these conditions being consistent for all participants. Participants in the experiment are divided into two groups. The control group follows the traditional approach, studying the layout of the line using a map and tracking errors on a single terminal with paper-based instructions. Repairs are carried out based on these paper instructions. In contrast, the experimental group uses either a tablet or AR glasses to monitor sensor data, with the machine reporting the error and showing the route to the malfunction site. Repairs in the experimental group are guided by AR, providing real-time visual instructions. The experimental group is further divided into two subgroups based on the type of AR device used. Maintenance and repairs are divided into simple tasks, such as pressing a button, and more complex repairs that require specific step-by-step sequences. The control group works with a paper list of errors and repairs, while the experimental group uses AR to display specific steps directly on the machine. The experiment involves simulating maintenance, where participants perform tasks according to the assigned instructions, and both the time and success rate of repairs are recorded. After completing the simulation, participants will fill out a questionnaire focused on their subjective perception of the method used. Participants who experienced the traditional method will then try the AR version and provide feedback. This experiment will provide valuable insights into the advantages and disadvantages of using AR in industrial maintenance and allow for a better understanding of its potential benefits in real-world operational conditions.
Although the program that reads real-time data and displays it on the machines is already developed, there is still a need to finalize a system that will simulate malfunctions based on AR and input data, display them on the terminal, and simultaneously show repair instructions in augmented reality.
This task mainly involves assistance with the technical preparation of the software, so we would particularly emphasize programming proficiency. The system will be developed in Unity with support from the Vuforia platform. Communication between IoT devices is handled by the MQTT architecture. From previous experience, we know that specific experience with these systems is not required, but general programming experience will suffice.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project integrates the Fischertechnik educational robotics kit with a Siemens programmable logic controller (PLC) to demonstrate industrial automation principles in a hands-on, academic setting. The goal is to design and implement control logic that allows the Siemens PLC to operate Fischertechnik components such as motors, sensors, and actuators. This setup simulates real-world automation systems and provides engineering students practical experience in PLC programming and system integration.
The project bridges the gap between educational robotics and industrial control systems, offering valuable insights into how programmable controllers are used in manufacturing and automation.
1) Getting to know the Fischertechnik kit
2) Familiarisation with Siemens PLC
3) Creating a study guide
4) Creating one more complex model
5) Analyse the benefits and challenges of linking the learning kit with an industrial PLC.
6) Describe the methodology, testing results and recommendations for teaching.
7) Create a paper suitable for publication or presentation at a professional conference.
Knowledge of PLC and PLC programming
Research paper about the problematic, Study guide
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The internship would aim to create a programming manual for the Fischertechnik TXT 4.0 controller using Python and to develop control codes for basic examples for industrial engineering students.
1. Familiarisation with the Fischertechnik TXT 4.0 unit and the Fischertechnik kit
2. Develop a study guide for programming the control unit using Python
3. Develop basic examples for industrial engineering students
Basic knowledge of Python is an advantage
Basic understanding of Scratch is an advantage
Study book, Paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project explores and compares two approaches to 3D printing: traditional 3D printing using a Průša Mini+ printer and a Dobot Magician robot. The aim is to evaluate both systems’ capabilities, accuracy and usability in the context of engineering education and prototyping. The final output will be a research paper summarising the findings, supported by practical experiments and analysis.
1) Technical Familiarisation
2) Design and Execution of
3) Test Prints
4) Evaluation Criteria
5) Development
6)Experimental Testing
7) Analysis and Interpretation
8) Research Article Writing
Basic understanding of 3D printing
Willingness to experiment and explore
Knowledge of e.g. Autodesk Inventor is an advantage
Research paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Smart manufacturing – participate in course development related to smart manufacturing, including studying literature from various sources and create chapters of a course.
Prepare various chapters on Industry 4.0 and Smart manufacturing concept, simulation models and digital twins, data collection from manufacturing system, sensors and their application, Machine Learning using visual programming language, Data in Smart manufacturing, decision making algorithms in manufacturing management, Industry 5.0 concept, trends in manufacturing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Matlab examples – participate in course development related to Matlab programming, including studying literature from various sources.
Own creation of examples in Matlab environment. Examples should be from the technical field. Creation of assignments for examples, including analysis, description of solutions and testing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of Matlab programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
C# examples – participation in course development focused on C# programming, including studying literature from various sources.
Own creation of examples in the C# environment oriented on the principle of object-oriented programming – inheritance, etc. Examples should have technical character. Creation of assignments for examples, including analysis, description of solutions and their testing.
Basic knowledge of C# programming, know how to work with MS Office tools, know how to work with PC, design an algorithm to solve a problem, create a simple form application in an object-oriented programming system, create simple algorithms for technical calculations, express an algorithm in a graphical way
Chapters in course.
Even though the work of the Institute of Road Structures BUT is often presented mainly by its laboratory research, it also includes research of traffic design and traffic engineering. The presented internship is oriented on these fields and offers several tasks you can be part of depending on your specialisation or interests. Most of them are closely connected to real-life projects of city of Brno.
Brno University of Technology, Faculty of Civil Engineering, Institute of Road Structures
The topic is focused on testing materials for asphalt pavement.
The aim of the project is to prepare and test advanced materials for road construction using recycled asphalt pavement (RAP). The main focus of the internship is working in a road laboratory, testing the properties of asphalt mixtures and layers or emulsion cold mixtures. An integral part of the internship will be testing the materials used (e.g., asphalt, asphalt emulsion, aggregate) and evaluating the measured data.
The internship is suitable for civil engineering students with focus on road structures. The intern should have basic knowledge of materials used in road construction, asphalt pavements, and their testing.
The output will be a report summarizing the results of the internship.
The references will be sent after agreement with the intern
Recommended: students of Civil Engineering (specialization in road structures).
Basic laboratory experience, basic knowledge of analytical chemistry, very good communications skills (i.e. good English).
https://www.elsevier.com/connect/11-steps-to-structuring-a-science-paper-editors-will-take-seriously
To monitor the effect of application of lactic acid bacteria, mycoparasitic and entomopathogenic fungi in consideration to the disease and pest protection of pea (Pisum sativum L. and soybean (Glycine max (L.) Merr.).
Depend on the growing stage will be evaluated some growth characteristics related to protection application (eq. the number of nodes, plant length, root length, dry matter of plant and roots, chlorophyll content and diseases scoring).
Main work will be made in laboratory and will contain following parts:
a) learn basic methods used in microbiological laboratory (includes work with microscope, sterilizer, incubator, prepare of cultivation media, work with microorganisms);
b) evaluation of insect pests and nematodes parameters (involves a method of extracting nematodes from the soil);
c) microbiological analysis of plant colonization.
Make the review of the biological protection of legumes in organic farming (Week I).
Learn microbiological laboratory technics: Introduction to microbiological laboratory equipment (microscope, sterilizer, incubator, other equipments) and cultivation media preparation (Week II).
Collecting data from field experiments and processing samples of the plants after treatment application (Week III).
Analysis of occurence of nematodes in the soil (Week IV).
Microbiological analysis of treated plants (Week V).
Determination of fungi by light microscopy (Week VI).
Data processing (Week VII).
Presentation, report and poster preparation (Week VIII).
Basic knowledge of laboratory work.
Presentation, Report.
Students of plant sciences.
The topic of the internship is aimed on the analysis of agricultural products and food with special focus on fermented food produced from plant by-products.
Determination of antioxidant activity in food and agricultural products, work with HPLC/MS, food chemical and microbiological analysis, including sensory analysis.
General knowledge of food sciences.
Expected outcome should be literature review and/or report of food analysis of the given samples.
The topic of the internship is aimed on the analysis of agricultural products and food with special focus on the changes of food properties during food processing (e.g. baking, pasteurising, roasting, drying,…).
Determination of antioxidant activity in food and agricultural products, work with HPLC/MS, food chemical analysis, including sensory analysis.
General knowledge of food sciences.
Expected outcome should be literature review and/or report of food analysis of the given samples.
LCA studies are used to determine the environmental impacts of products, services, or organizations. The life cycle assessment method is also the basis for Environmental product declaration; Carbon footprint; Greenhouse gas report; Environmental footprint of the product and organization; Global Reporting Initiative; Ecodesign and Eco-innovation; Water footprint, and more.
LCA studies can serve as a tool for reducing the environmental impact of companies, as motivational aspects in communication with the customer, as motivational tools for environmental policy (e.g., agriculture), for increasing competitiveness, or for development and research. The benefit of the LCA method is its ability to interpret data into a clear set of environmental indicators or into an ecological footprint. With the help of LCA, it is possible to compare the environmental impacts of products with regard to their function or evaluate the environmental impacts with respect to the entire product life cycle. The LCA study generally has the ability to identify the transmission of environmental problems both in space and between different impact categories. It is, therefore, possible to detect the transfer of problems from place to place. The outputs of a particular LCA study are not valid in general but always under given and clearly specified conditions. The benefit of the LCA method is just a clear definition of the conditions of validity of studies, placing the knowledge about the interactions of technological processes and the environment into a specific technological, environmental, and socio-economic context.
Literature review, data collection, environmental impact assessment.
Education in the field of agriculture; and general knowledge of ecology, toxicology, and chemistry are welcome.
Examples of the topic:
Bernas, J. et al. (2023). Optimal environmental design of nitrogen application rate for facultative wheat using life cycle assessment. European Journal of Agronomy, 146, 126813.
Bernas, J. et al. (2021). Sustainability Estimation of Oat:Pea Intercrops from the Agricultural Life Cycle Assessment Perspective. Agronomy, 11, 2433.
Bernas, J. et al. (2021). Cup plant, an alternative to conventional silage from a LCA perspective. The International Journal of Life Cycle Assessment, 1-16.
Bernas, J. et al. (2021). Agricultural lca for food oil of winter rapeseed, sunflower, and hemp, based on czech standard cultivation practices. Agronomy, 11, 2301.
Bernas, J. et al. (2020). The Energy and Environmental Potential of Waste from the Processing of Hulled Wheat Species. Agriculture, 10(12), 592.
The research program in our laboratory is aimed at biologically and sensory active compounds of agricultural products and medicinal plants. Our goals include isolation and identification of these compounds, and evaluation of their biological properties (e.g., antimicrobial, cytotoxic, anti-inflammatory activities, etc.).
The student will be involved in the running research projects. His/her activities will include samples preparation and their analysis by state-of-the-art analytical instruments as well as isolation and purification of compounds of interest from various agricultural products (e.g., garlic, onion, mushrooms).
General knowledge of chemistry and basic laboratory skills. Enthusiasm and reliability.
Report/presentation.
Multinational Corporations and sanction measures under Russia-Ukranian conflict.
Brazil and the Czech Republic are active members of regional security international organizations. Brazil is active in regional security through the OAS and past initiatives like UNASUR, while Czechia is embedded in NATO and the EU. This project compares these two regional models and explores what they mean for global security governance. During the internship, students will be working as members of the Centre for International Humanitarian and Operational Law team.
Knowledge of English, basic knowledge of international law, help with Czech language will be provided by the university staff if necessary.
Will be agreed upon arrival of the intern.
Law students (undergraduate or postgraduate).
Given the current geopolitical developments, this project examines how Brazil and Czechia approach the prohibition on the use of force under international law. It will compare their positions in the UN and other fora, assess state practice and official statements, and consider the role of constitutional or political factors shaping each country’s stance. During the internship, students will be working as members of the Centre for International Humanitarian and Operational Law team.
Knowledge of English, basic knowledge of international law, help with Czech language will be provided by the university staff if necessary.
Will be agreed upon arrival of the intern.
Law students (undergraduate or postgraduate).
How do the two states approach the application of international law (jus ad bellum and IHL) in cyberspace? A comparison of Brazil’s positions in the UN GGE/OEWG and Czechia’s published strategies could provide valuable insights. During the internship, students will be working as members of the Centre for International Humanitarian and Operational Law team.
Knowledge of English, basic knowledge of international law, help with Czech language will be provided by the university staff if necessary.
Will be agreed upon arrival of the intern.
Law students (undergraduate or postgraduate).
Masaryk University, Faculty of Economics and Administration, Department of Regional Economics + International Office
The exchange project focuses on Brno as an international university city and explores how the city is experienced, perceived, and “lived” by prospective young international students. Beyond public space, the topic investigates a broader set of factors shaping student experience, including urban services, safety, affordability, mobility, everyday student life, and emotional perception of the city.
The project aims to analyse strengths and weaknesses of Brno’s urban environment and student services and translate these insights into authentic narratives and stories that can support international marketing and internationalisation efforts of the Faculty of Economics and Administration / Masaryk University.
The topic combines urban studies, student experience research, place marketing, and internationalisation of higher education, producing outputs relevant for both academic reflection and practical recruitment communication.
The intern will deliver a practical marketing package focused on Brno as an international student city, including: 3–5 short student stories based on real experience, Instagram posts and stories, short video concepts, short blog-style texts, student personas (2–3 profiles) describing typical international prospective students and what they care about, etc.
Self-study and inspiration shared before the exchange: basic data and background materials on Brno and Masaryk University (student population, services, city profile), including selected international marketing and communication materials used to present the city and the university to prospective international students.
The student will work with results of two finished project Themasys and Ecohep. The main focus will be application of projects results on new issues or processing the project data for computation model validation.
Themasys: The aim of the two-year project is to create a complete system for testing the components of the systems for active thermal management of electric vehicles. This is a very current area, which is addressed by a large number of automotive companies, reflecting the high demands of customers. The components of the system that will be created during the project will be the thermal simulator of the battery, the cabin simulator including the HVAC unit and the data acquisition system. An integral part and one of the outputs of the project will be a set of procedures for component testing using the BUT climate chamber, which will also be the result with the main potential for commercial use.
Ecohep: The aim of the two-year project is to develop a new compact reversible heat pump system (air conditioning/heating) for automotive applications using HC based refrigerant. The entire system will first be designed at a thermodynamic level using simulation models and virtual validation to find the optimum amount of refrigerant in the system to minimize its amount. Next, a functional sample from power and economically relevant components will be assembled and the system will be validated by a series of climatic tests in the BUT climate chamber to confirm its operational parameters. The project will also include a proposal for managing the entire system and plan for its integration into vehicles.
Virtual human twins are a concept in healthcare that involves creating a digital twin of a patient that can be used to simulate and personalise medical treatment. These virtual twins are based on the patient’s medical history, profile, and other data, and can be used to test different treatments and interventions to determine which is likely to be most effective for that particular patient. This can lead to better outcomes for patients and reduce healthcare costs by avoiding unnecessary treatments. Biomechanical computational models of healthy and pathological pelvis, pelvic cavity and pelvic floor are a rapidly evolving field, and there is ongoing research to improve the accuracy and predictive capabilities of these models. The models and simulations require high quality input and validation data frequently based on medical imaging. The development of such models based on medical images is highly time-consumptive, various scaling and morphing methods are used to develop the subject-specific model from a template models and a set of internal and external landmarks.
Identify internal pelvic floor landmarks using an open-source software 3D Slicer. Morph template model to subject-specific model using chosen identified landmarks. Check accuracy using various sets of landmarks.
Curiosity. Team work. Communication skills. Basic knowledge of programming.
Literature review. Final report. Presentation.
https://www.slicer.org
You will work in an international and multidisciplinary team of researchers, engineers, and medical doctors.
The research evaluates the safety performance of reclined seats, a potential feature in future autonomous vehicles, through numerical simulations of sled test experiments. Using Hybrid III ATD (Anthropomorphic Test Device) sled tests literature data, the study compares the results with simulations conducted using the Virthuman human body model, developed at the University of West Bohemia. The primary goal is to assess the differences in injury risk between dummy and human body models in reclined seat configurations. This comprehensive analysis will enhance safety standards for occupants in autonomous vehicle designs.
Perform numerical simulations using VPS software and Virthuman model. Compare results with available literature data.
Curiosity. Team work. Communication skills. Basic knowledge of programming.
Literature review. Final report. Presentation.
SAE Technical Paper 2014-01-0534, doi: 10.4271/2014-01-0534.
You will work in an international and multidisciplinary team of researchers, engineers, and medical doctors.
The research evaluates the safety performance of new type of motorcycle helmet, a potential personal protective equipment for motorcycle drivers, through numerical simulations of drop test experiments. Using the ECE 22.06 testing procedure for motorcycle helmet, the study compares the evaluation of the injury with simulations conducted Explicit FEM solver. The primary goal is to assess the differences in injury risk between a standard helmet ( EPS based) and an innovative tensegrity-based helmet. This comprehensive analysis will enhance safety standards for drivers of powered-two-wheelers.
Perform numerical simulations using VPS software (Explicit FEM Solver). Compare results with available literature data.
Curiosity. Team work. Communication skills. Basic knowledge of programming.
Literature review. Final report. Presentation. Journal paper.
Tomasz BONKOWSKI, Ludek HYNCIK, EP4426154 – HELMET WITH A MULTI-DIRECTIONAL SUSPENSION SYSTEM AND A PROCEDURE FOR ASSEMBLING THE HELMET
Tan, R., Baker, C.E., Yu, X. et al. Superior linear and comparable rotational protection of an air-filled helmet versus foam helmets. Sci Rep 15, 27364 (2025). https://doi.org/10.1038/s41598-025-10615-9
You will work in an international and multidisciplinary team of researchers, engineers, and medical doctors.
University of West Bohemia in Pilsen, New Technologies Research Centre
Unique measurement system was developed for high speed measurement of thermal radiation from material during nanosecond, picosecond and femtosecond laser micromachining. It is based on InGaAs photodiodes and response time is in nanoseconds. A precise calibration is necessary for absolute temperature measurement. We want to use this system for measurement of temperatures during ultrashort laser processing of materials, e.g. titanium for medical implants.
Main work will be setup and calibration of the measurement system, measurement with different laser processing parameters and analysis of measured data.
Capability of careful precise measurements with a delicate optical instrument and detail analysis of measurements in user developed software (Python).
Students of engineering or physics.
University of West Bohemia in Pilsen, New Technologies Research Centre
Quantum technologies include new multidisciplinary research areas connecting physics, chemistry, mathematics, computer science and materials science and have great technological potential. The NTC team is focused on development of quantum technologies, mainly qaunatum materials and quantum sensing devices. New ideas has to be tested experimentally on the optical bench using lasers, optical components, detectors, etc.
Main work will be literature review, experimental development and verification of the new idea of quantum measurement system, measurement of optical and thermal properties of different materials, and analysis of measured data.
Capability of careful measurements with optical instruments and detail analysis of measurements. Beneficial is knowledge of Python programming and pasion for new ideas.
Lit. review, report, presentation.
https://qm4st.zcu.cz/en/
Pulsed laser deposition in vaccum and liquids of selected bioactive nanoparticles (silicon, CaSi2, CaTiSiO5, CaTiO3, CaCu3Ti4O12) on smooth and porous surfaces; Characterization of deposited nanoparticles by SEM, EDX, Raman spectroscopy; Selection of the most suitable deposits for testing of the bone tissue growing; Analyse results and write final report.
Fundamental knowledge in the field of chemistry and material science, basic skills necessary in the chemical lab.
Synthesis of various types of biopolymer-based composites via sol-gel techniques ← Characterization → Tuning composite properties
Biopolymer-based composites have emerged as promising materials for tissue repair due to their unique combination of biocompatibility, biodegradability, and tunable mechanical properties. By integrating natural or synthetic polymers with bioactive fillers such as bioceramics, nanoparticles, or growth factors, these composites can mimic the extracellular matrix, support cell adhesion, and promote tissue regeneration.
Nanocomposite synthesis, characterization via thermal analyses, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
https://doi.org/10.3390/molecules26030619
Students of material science, chemistry or physics
Synthesis of CeO2 NPs via precipitation method using hexamethylenetetramine ← Characterization → Charge-tunable CeO₂ nanoparticles
Cerium oxide (CeO₂) is an important rare-earth material known for its ability to switch between two oxidation states, Ce³⁺ and Ce⁴⁺. This redox behaviour depends on conditions such as temperature and pH and is further enhanced by the high oxygen mobility and efficient electron transfer on the surface of the nanoparticles. These characteristics make CeO₂ nanoparticles highly effective in both catalytic and biomedical fields. Cerium oxide nanoparticles have been extensively investigated for their potential to mitigate oxidative stress at the cellular level due to their intrinsic antioxidant properties.
Synthesis of dispersions, characterization, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
Students of material science, chemistry or physics
Main focus is on the thermal evaluation of the injection mould from 3D printed plastic material.
Depending on the agreement with the supervisor of the collaboration topic.
Depending on the agreement with the supervisor of the collaboration topic.
Depending on the agreement with the supervisor of the collaboration topic.
The research in general is aiming at the new design of vehicle’s chassis and related parts. The main areas of the research are new chassis design proposition and optimization, strength and deformation analysis using modern computational procedures, development of chassis parts of the vehicle’s powertrain, differentials, efficiency of permanent gears and gearboxes using PowerTrain etc.
The study will focus on the design of suitable cutting tools (material composition, tool geometry, etc.), cutting conditions for efficient machining of carbon fiber composite plates.
Preparation of a research on the problem of milling of composite materials with carbon fibres, focusing mainly on the current state of knowledge:
– Issues in the milling of carbon fibre reinforced composites (tool wear, cutting forces, machining temperatures, delamination of machined material, health hazards, etc.)
– Tools (material, geometry),
– Cutting conditions (milling without process fluid, with process fluid).
General knowledge:
– Machining technology,
– Composite materials.
Report, presentation.
SHYHA, Islam; HUO, Dehong. Advances in Machining of Composite Materials. Online. Springer International Publishing, 2021. Dostupné z: http://dx.doi.org/10.1007/978-3- 030-71438-3.
Implementation of a library of algorithms for tuning adjustable parameters of PID (PSD) controllers. The output will be a library of functions writen in the C language.
Basic knowledge in programming in C or C++.
Study literature is available at the department. The issue of PID regulation will be explained at the beginning of the internship.
Students of mechatronic or electrical engineering with focus on programming.
We have created a prototype device that allows you to create unique nanostructures by combining two methods of creating nanofibers. The device is controlled via a direct code on the microcontroller. We would like to increase the level of automation and add control of devices via a graphical interface directly from the device. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a user interface for a device that uses for manufacturing complex nanofiber structures. The user interface will work on Raspberry Pi on the touch screen.
Experience with Python, Raspbery Pi, Arduino, basic electronics.
Graphical user interface on Raspbery Pi.
https://docs.python.org/3/library/tkinter.html
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
We have created a prototype device that allows you to create special structures of the so-called scaffolds. The device is used in the medical field. A graphical interface will help maintenance personnel use the device without programming knowledge. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a grafical user interface for 3D printer that uses for manufacturing micro- and nanofiber scaffollds. The user interface should be written in Python.
Experience with Python, Arduino, G-code, basic electronics.
User friendly software, that allows you to perform certain operations on the device.
https://github.com/bborncr/gcodesender.py; https://marlinfw.org/meta/gcode/
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
Our university is a leader in the field of nanotechnology. One of the methods for the production of nano- and microfibers is the drawing method. In this area, it is planned to realize one experiment to which it is necessary to build a rotating drum with the construction and revitalization of which we would like to help. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a design for a rotating drum;
Figure out how to connect it with the current device based on a 3D printer;
If possible to implement and assemble the device;
Experience with CAD software, preparing model for 3D printing, Arduino, basic electronics and Python.
Firmware, CAD models.
https://www.researchgate.net/figure/Schematic-of-nanofiber-fabrication-by-the-drawing-technique-b-SEM-images-of-a_fig3_268872758
Recommended for: Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
In case of commonly produced flexible materials with internal structure (e.g. polyurethane foam) the forming if this structure is given by chemical reactions occurring as a part of technological process. Controlling of geometric and mechanical properties is then given by chemical composition of production components and other technological conditions. The alternative way how to make such a kind of material is a 3D printing technology when every geometric part of the structure can be intentionally designed. It is way more easier to control the total material density as well as detailed geometric properties.
The research at the Department of Applied Mechanics deals with artificial design of a geometry of 3D printed materials and investigation of their mechanical properties. Once the material was designed and printed it is subjected to mechanical testing in the Laboratory of Experimental Mechanics what is a part of our department. We investigate experimentally the force response to displacement excitation (usually compression tests), and dissipated energy. Simultaneously we develop material model of a structure for a simulation by means of Finite Element Method. We use MSC.Marc software for the computer simulation. Then detailed data analysis is performed for comparison of the experiment and simulation.
The job description will be adapted to real abilities of internship students and will comprise following activities. These activities and detailed work description and tasks will be given by needs of our research at the time of internship.
– Artificial design of 3D structure.
– Assistance in experimental work.
– Data processing and evaluation.
– (Finite Element Method simulation.)
Programming skills (Matlab is preferred, Python may be useful as well).
Some positive relationship to a field of Stress and Strength of Materials and experimental work.
This will be specified in accordance with a detailed work specification.
Basic skills with text processors (MS Word, LaTeX…)
Literature review, scientific paper…
https://www.elsevier.com/connect/11-steps-to-structuring-a-science-paper-editors-will-take-seriously
MATLAB represents the numerical computing environment and could serve as a strong background for proprietary programs and software demands. The software uses various mathematical and physical frameworks that can be implemented as source code in diverse programs.
Creation of source code in MATLAB, where the focus of the work will be specified according to the trainee’s interest. Sample topics are:
a) Program for finding the optimal track of agricultural technology in field works;
b) Programming in the field of genetic algorithms (optimization tasks);
c) Computer model in the field of treatment of porous materials with plasma;
d) Image processing, etc..
Knowledge of MATLAB (if needed, the trainee will be able to consult with a specialist).
Outcomes depend on theme: source code, report, literature review, scientific paper…
Attaway, S. (2013). MATLAB: A practical introduction to programming and problem solving. Third edition.Boston: Elsevier, B/H,Butterworth-Heinemann.
Stork, D., G. and Yom-Tov, E. (2004). Computer manual in MATLAB to accompany pattern classification. Secondedition. Hoboken: Wiley-Interscience.
Artificial intelligence is an intensively developing field of science with possible applications in all areas of human activity. Our department deals with the application of these modern methods in agriculture, within several scientific and research projects.
The trainee’s task will be to engage in this very interesting research and development activities, taking into account his / her capabilities and professional focus. The tasks can be oriented towards literature search, programming, neural network learning, testing and more. The tasks are within various levels of complexity and they are available both for complete beginners in this field as well as for experienced specialists.
Basic orientation in the researched issue is an advantage.
Outcomes depend on theme: source code, report, literature review, scientific paper…
Hansen, M. F. et al. (2018). Computers in Industry Towards on-farm pig face recognition using convolutional neural networks. Computers in Industry. Elsevier B.V., 98:145–152.
Koirala, A. et al. (2019). Deep learning for real – time fruit detection and orchard fruit load estimation: benchmarking of MangoYOLO. Precision Agriculture. Springer US, 20(6): 1107–1135.
Ma, L., Xie, W. and Huang, H. (2019). Convolutional neural network-based obstacle detection for unmanned surface vehicle. Mathematical Biosciences and Engineering, 17(1): 845–861.
Yiping, G. et al. (2020). A semi-supervised convolutional neural network-based method for steel surface defect recognition. Robotics and Computer Integrated Manufacturing,61:1–8.
Zhuang, X. and Zhang, T. (2019). ScienceDirect Detection of sick broilers by digital image processing and deep learning. Biosystems Engineering. Elsevier Ltd, 179:106–116.
Livestock production is facing huge demands in terms of high-quality milk production. Same as in automotive production the robotization could be an asset to the livestock escalation. The robotic arm could be used for milking procedures as an alternative to human labour.
Cooperation on the development of new possibilities of using robotic hand in agriculture. Sample topics are:
a) Preparing of literature review,
b) Programming in the field of machine vision,
c) Programming in the field of artificial intelligence,
d) Computer modeling in the field of using robotic hand,
e) Preparing graphic for presentation of a project, etc.
Basic skills, basic orientation in the researched issue is an advantage.
Outcomes depend on theme: source code, computer model, graphics, report, literature review, scientific paper…
Ford, M. (2016). The rise of the robots: technology and the threat of mass unemployment. London: Oneworld.
Li, S., Jin, L. and Mirza, M.A. (2019). Kinematic control of redundant robot arms using neural networks. Hoboken, NJ: John Wiley & Sons.
Graphical representation in a scientific paper is a very important part of successful publishing. Useful and prepared graphical objects ease the read and understanding of the presented information and results.
Preparing of graphic content (e.g. pictures, animations, posters, formatting, etc.) for publications and presentations of department.
Basic skills with graphical editors, basic skills with text processors (MS Word, LaTeX…).
Outcomes depend on theme: graphics (pictures, graphs, animations, posters, infographics…), formatted papers…
https://www.elsevier.com/connect/11-steps-to-structuring-a-science-paper-editors-will-take-seriously
Python represents one of the most used programming languages in the world. It may be used for many applications, such as neural networks, image processing, etc.
Creation of source code in Python, where the focus of the work will be specified according to the trainee’s interest.
Knowledge of Python (if needed, the trainee can consult with a specialist).
Outcomes depend on the theme: source code, report, literature review, scientific paper…
Introduction to programming in Python:
https://www.w3schools.com/python/
https://www.geeksforgeeks.org/python-programming-language/
https://realpython.com/
https://ocw.mit.edu/courses/6-0001-introduction-to-computer-science-and-programming-in-python-fall-2016/
Introduction to image processing in Python:
https://docs.opencv.org/3.4/d6/d00/tutorial_py_root.html
https://pyimagesearch.com/
The focus of the work will be specified according to the trainee’s interest.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L – 3D Vision system, bin picking etc. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in industrial robotics.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples / teaching materials.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L connected sensors and conveyor, AGV SSI Schaefer Weasel, Balluff model assembly line. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in sensors.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples, teaching materials.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
In this research, we aim to expose participants to a corporate virtual training environment, where stress-inducing scenarios will be deliberately introduced (e.g., machine malfunction, increased production rate, or emergency situations). We are particularly interested in how participants manage stress in these scenarios induced by virtual reality. The level of stress will vary individually and will be measured using wearable devices (e.g., skin conductance, heart rate). After the exposure, participants will also complete questionnaires on stress levels, cybersickness, and user acceptance. Furthermore, the memorability of the content will be tested.
An intern could assist in preparing the virtual environment, participate in the actual experiment by helping with the attachment of sensors to participants, and be responsible for data collection. The intern may also assist with data analysis.
The mentioned requirements are recommended but not mandatory, as the intern can either learn the necessary skills or be involved in tasks appropriate to their existing knowledge. Programming skills are advantageous (specifically in C# and Unity), as well as a basic understanding of statistical analysis.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The objective of this experiment is to assess the efficiency and subjective perception of using AR in a simulated production line maintenance scenario, compared to a traditional approach that utilizes maps and paper instructions. The experiment is designed to clearly compare the performance and convenience of both methods. The experimental setup utilizes the Fischertechnik construction kit, which serves as a model for simulating production line maintenance. The kit is configured to include machines distributed in a real-world space, requiring participants to actively search for individual components. Both regular maintenance tasks and random malfunctions are planned for the simulation, with these conditions being consistent for all participants. Participants in the experiment are divided into two groups. The control group follows the traditional approach, studying the layout of the line using a map and tracking errors on a single terminal with paper-based instructions. Repairs are carried out based on these paper instructions. In contrast, the experimental group uses either a tablet or AR glasses to monitor sensor data, with the machine reporting the error and showing the route to the malfunction site. Repairs in the experimental group are guided by AR, providing real-time visual instructions. The experimental group is further divided into two subgroups based on the type of AR device used. Maintenance and repairs are divided into simple tasks, such as pressing a button, and more complex repairs that require specific step-by-step sequences. The control group works with a paper list of errors and repairs, while the experimental group uses AR to display specific steps directly on the machine. The experiment involves simulating maintenance, where participants perform tasks according to the assigned instructions, and both the time and success rate of repairs are recorded. After completing the simulation, participants will fill out a questionnaire focused on their subjective perception of the method used. Participants who experienced the traditional method will then try the AR version and provide feedback. This experiment will provide valuable insights into the advantages and disadvantages of using AR in industrial maintenance and allow for a better understanding of its potential benefits in real-world operational conditions.
Although the program that reads real-time data and displays it on the machines is already developed, there is still a need to finalize a system that will simulate malfunctions based on AR and input data, display them on the terminal, and simultaneously show repair instructions in augmented reality.
This task mainly involves assistance with the technical preparation of the software, so we would particularly emphasize programming proficiency. The system will be developed in Unity with support from the Vuforia platform. Communication between IoT devices is handled by the MQTT architecture. From previous experience, we know that specific experience with these systems is not required, but general programming experience will suffice.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project integrates the Fischertechnik educational robotics kit with a Siemens programmable logic controller (PLC) to demonstrate industrial automation principles in a hands-on, academic setting. The goal is to design and implement control logic that allows the Siemens PLC to operate Fischertechnik components such as motors, sensors, and actuators. This setup simulates real-world automation systems and provides engineering students practical experience in PLC programming and system integration.
The project bridges the gap between educational robotics and industrial control systems, offering valuable insights into how programmable controllers are used in manufacturing and automation.
1) Getting to know the Fischertechnik kit
2) Familiarisation with Siemens PLC
3) Creating a study guide
4) Creating one more complex model
5) Analyse the benefits and challenges of linking the learning kit with an industrial PLC.
6) Describe the methodology, testing results and recommendations for teaching.
7) Create a paper suitable for publication or presentation at a professional conference.
Knowledge of PLC and PLC programming
Research paper about the problematic, Study guide
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The internship would aim to create a programming manual for the Fischertechnik TXT 4.0 controller using Python and to develop control codes for basic examples for industrial engineering students.
1. Familiarisation with the Fischertechnik TXT 4.0 unit and the Fischertechnik kit
2. Develop a study guide for programming the control unit using Python
3. Develop basic examples for industrial engineering students
Basic knowledge of Python is an advantage
Basic understanding of Scratch is an advantage
Study book, Paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project explores and compares two approaches to 3D printing: traditional 3D printing using a Průša Mini+ printer and a Dobot Magician robot. The aim is to evaluate both systems’ capabilities, accuracy and usability in the context of engineering education and prototyping. The final output will be a research paper summarising the findings, supported by practical experiments and analysis.
1) Technical Familiarisation
2) Design and Execution of
3) Test Prints
4) Evaluation Criteria
5) Development
6)Experimental Testing
7) Analysis and Interpretation
8) Research Article Writing
Basic understanding of 3D printing
Willingness to experiment and explore
Knowledge of e.g. Autodesk Inventor is an advantage
Research paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The department built and programmed an AGV model using a Fischertechnik kit and Fischertechnik TXT 4.0 Controller as part of one of the bachelor theses. The AGV uses an IR sensor for line tracking and a camera for reading markers (e.g. stop sign). During the internship, experiments will be carried out to investigate the reliability of this solution under different lighting conditions and their statistical evaluation. The output will bepresentation of the experiments and data analysis and collective technical paper which can be finished by online form after the internship.
1. Creation of test scenarios.
2. Execution of tests.
3. Statistical evaluation of the tests.
4. Collaboration on the paper.
Scratch basics an advantage.
Basics of statistical data evaluation.
Technical thinking.
Presentation, Publication.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The internship focuses on collaboration on a publication focused on the SimTalk scripting language used in the discrete event simulation tool Tecnomatix Plant Simulation. The publication will serve as one of the study materials in a course focused on computer simulations. It should introduce students to the basics of SimTalk, i.e. variables, conditions and cycles, important objects such as table types and working with them, etc.
Collaboration on a publication focused on SimTalk language.
Tecnonatix Plant Simulation.
SimTalk 2.0.
Publication.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Smart manufacturing – participate in course development related to smart manufacturing, including studying literature from various sources and create chapters of a course.
Prepare various chapters on Industry 4.0 and Smart manufacturing concept, simulation models and digital twins, data collection from manufacturing system, sensors and their application, Machine Learning using visual programming language, Data in Smart manufacturing, decision making algorithms in manufacturing management, Industry 5.0 concept, trends in manufacturing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Matlab examples – participate in course development related to Matlab programming, including studying literature from various sources.
Own creation of examples in Matlab environment. Examples should be from the technical field. Creation of assignments for examples, including analysis, description of solutions and testing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of Matlab programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
C# examples – participation in course development focused on C# programming, including studying literature from various sources.
Own creation of examples in the C# environment oriented on the principle of object-oriented programming – inheritance, etc. Examples should have technical character. Creation of assignments for examples, including analysis, description of solutions and their testing.
Basic knowledge of C# programming, know how to work with MS Office tools, know how to work with PC, design an algorithm to solve a problem, create a simple form application in an object-oriented programming system, create simple algorithms for technical calculations, express an algorithm in a graphical way
Chapters in course.
In this project we will investigate basic tools of stochastic calculus and analysis in mathematical finance and their application to different continuous-time market models and to selected financial derivatives such as options. One of the most important indicators in finance is volatility. It is the degree of variation of a trading price series over time, usually measured by the standard deviation of logarithmic returns. Historic volatility measures a time series of past market prices. Implied volatility looks forward in time, being derived from the market price of a market-traded derivative (in particular, an option). We will study appropriate implied volatility surfaces parametrizations as well as fitting to other financial curves or surfaces of interest. Local volatility and stochastic volatility (LVSV) models will be considered.
General tasks within the project:
a) Studying efficiency of pricing formulas.
b) Simulation of LVSV models.
c) Calibration of LVSV models to real market data.
d) Robustness and sensitivity analysis.
e) Parametrizations of implied volatility surfaces. Each intern will be responsible probably for one task only. Its detailed specification will be provided on request by the supervisor.
Basic knowledge of financial mathematics is an advantage, but not requisite. Ability to implement financial models on a computer (preferably in MATLAB, alternatively in Python) is highly recommended.
Implementation of studied models, report on obtained results ideally written as a paper draft.
Papers related to specific tasks will be provided on request by the supervisor. An inspiration can be obtained from recent publications of the supervisor (http://home.zcu.cz/~honik/publications/).
a) Baustian, F., Mrázek, M., Pospíšil, J., and Sobotka, T. (2017), Unifying pricing formula for several stochastic volatility models with jumps. Appl. Stoch. Models Bus. Ind. 33(4), 422–442, ISSN 1524-1904, DOI: 10.1002/asmb.2248, Zbl 1420.91444, MR3690484.
b) Mrázek, M., Pospíšil, J., and Sobotka, T. (2016), On calibration of stochastic and fractional stochastic volatility models. European J. Oper. Res. 254(3), 1036-1046, ISSN 0377-2217, DOI: 10.1016/j.ejor.2016.04.033, Zbl 1346.91238, MR3508893.
c) Mrázek, M. and Pospíšil, J. (2017), Calibration and simulation of Heston model. Open Math. 15(1), 679-704, ISSN 2391-5455, DOI: 10.1515/math-2017-0058, Zbl 1368.60061, MR3657941.
d) Pospíšil, J., Sobotka, T., and Ziegler, P. (2019), Robustness and sensitivity analyses for stochastic volatility models under uncertain data structure. Empir. Econ. 57(6), 1935–1958, ISSN 0377-7332, DOI: 10.1007/s00181-018-1535-3.
In this project we will investigate stochastic models driven by a fractional Brownian motion (fBm) especially in the so called rough regime, i.e. in the case with low regularity. We will primarily focus on parameter estimation and numerical solutions. Models described by stochastic ordinary and partial differential equations (SODEs and SPDEs), or stochastic evolution equations in Hilbert spaces will be of interest. Stochastic models with rough fractional noise have numerous practical applications, but their analysis is theoretically challenging. Nevertheless, parameter estimation and numerical solution are now possible and of high interest. We will study appropriateness of several different parameter estimation techniques known from equations driven by a (standard) Brownian motion, in particular ergodic-type estimators and least squares estimators. To enable Monte Carlo analysis, different numerical solutions of rough fractional SODEs and SPDEs will be developed, implemented and analysed. We plan to introduce novel estimation procedures that integrate these numerical solutions.
General tasks within the project:
a) Finding effective numerical methods for rough fractional stochastic models, analysis of the numerical solution and comparison of these methods.
b) Stochastic analysis of drift parameter estimators for linear and semi-linear rough fractional SPDEs.
c) Drift parameter estimation for non-linear equations (ergodic-type and LSE estimators). Each intern will be responsible probably for one task only. Its detailed specification will be provided on request by the supervisor.
Basic knowledge of stochastic and numerical analysis is an advantage, but not requisite. Ability to implement numerical methods on a computer (preferably in MATLAB, alternatively in Python) is highly recommended.
Implementation of studied method, report on obtained results ideally written as a paper draft.
a) Lord, G. J., Powell, C. E., and Shardlow, T. (2014), An introduction to computational stochastic PDEs. Camb. Texts Appl. Math., Cambridge University Press, New York, ISBN 978-0-521-72852-2/pbk; 978-0-521- 89990-1/hbk; 978-1-139-01732-9/ebook, DOI: 10.1017/CBO9781139017329, Zbl 1327.60011, MR3308418.
b) Øksendal, B. (2003), Stochastic differential equations. An introduction with applications. Universitext, Springer-Verlag, Berlin, 6th edn., ISBN 3-540-04758-1/pbk, DOI: 10.1007/978-3-642-14394-6, Zbl 1025.60026, MR2001996.
Papers related to specific tasks will be provided on request by the supervisor.
The research will focus on the development and study of novel mathematical methods in geometric modelling aimed at the effective description, representation, modification, and visualization of curves and surfaces. Particular attention will be paid to approaches that support further applications in engineering practice and the natural sciences. The project will also involve gaining practical experience with appropriate geometric and mathematical software tools.
The student will work on a selected topic from the field of geometric modelling (or related disciplines) in close cooperation with the supervisor. The work will include literature study as well as practical experiments using selected computer algebra systems (such as Maple or Wolfram Mathematica).
Prerequisites include a foundation in various branches of geometry, basic knowledge of shape representation in computer-aided design, and familiarity with at least one computer algebra system and a 3D modelling environment. If the student’s background knowledge is insufficient, the supervisor will recommend suitable materials for self-study.
The outcomes of the project will be presented in the form of a written report or a poster.
Relevant papers and books related to the chosen topic will be recommended and provided by the supervisor.
For many graph properties, there are general results concerning the structure of the graphs satisfying the property. Examples include the Kuratowski Theorem which characterises planar graphs in terms of forbidden minors, or the Tutte theorem which is a characterisation of graphs admitting a perfect matching.
Research of a problem related to graph structure based on discussions with the supervisor: current status, related results, proof methods, work on a selected special case etc.
Knowledge of basic graph theory as taught in an introductory course (cycles, matchings, spanning trees, distance in graphs, colourings, homomorphisms, planar graphs).
A presentation at the Graph Theory seminar and a written report on the results of the research.
a) J. A. Bondy, U. S. R. Murty: Graph Theory. Springer, 2008.
b) R. Diestel: Graph Theory. Fifth edition, Graduate Texts in Mathematics, Vol. 173. Springer, 2016.
Combinatorial problems arise naturally in many areas such as operations research, computer science, computational biology and artificial intelligence. Typical examples include scheduling, timetabling, routing, resource allocation and genome sequencing.
To collaborate in algorithm development for a selected problem (e.g. satisfiability, routing or coloring).
To have a solid background in combinatorial optimization including integer programming methods and approximation algorithms. Programming skills are very welcome.
Report on obtained results or ideally paper draft.
The movement of fluids through porous media is a fundamental process in hydrology, environmental engineering, and geology. Traditionally, these processes are described by Darcy’s law, which assumes a linear relationship between flow velocity and pressure gradient. However, in many modern applications—such as high-velocity flow—this linear approximation breaks down, requiring a more sophisticated mathematical approach.
The Frontier: Fractured Aquifers
A major frontier in this field is the study of fractured aquifers. These systems are vital for water supplies in remote rural areas in many countries across the globe. In impermeable crystalline rocks (such as granites, gneisses, etc.), ground water moves through complex fracture networks where high velocities and intricate geometries trigger “non-Darcy” behavior. Standard linear equations cannot capture the turbulence and inertial effects present in these systems, making nonlinear modeling an absolute necessity.
What you will learn in this project:
This project offers a unique opportunity to bridge the gap between abstract mathematical theory and critical environmental applications.
• Theoretical Foundations: You will learn modern theory of nonlinear operators, specifically focusing on the p-Laplacian, which generalizes classical linear theory to handle nonlinear flow regimes.
• Advanced Numerical Methods: Because these nonlinear models are often resistant to analytical solutions, you will master specialized numerical techniques and computational tools (such as Finite Element or CFD methods) designed to solve complex boundary value problems.
The Outcome:
By participating in this project, you will develop a robust toolkit—combining deep analytical theory with high-level computational skills—to address some of the most pressing challenges in modern hydrogeology. You will gain the expertise needed to study models that are at the forefront of both mathematical research and environmental engineering.
Simple analysis of chosen nonlinear problems in cooperation with the supervisor, study of literature, numerical experiments.
Knowledge of elementary methods of solving linear initial and boundary value problems for ODEs and PDEs. Any programming skills are welcome. Suitable for graduates and undergraduates in mathematics, hydrogeology and/or environmental sciences.
Report summarizing obtained results.
Benedikt, J., Girg, P., Kotrla, L., & Takáč, P. (2018). “Origin of the p-Laplacian and A. Missbach.” Electronic Journal of Differential Equations, Vol. 2018, No. 16, pp. 1-17.
Girg, P., Kotrla, L., & Švandová, A. (2022/2025). “p-Laplacian in Phenomenological Modeling of Flow in Porous Media and CFD Simulations.” Electronic Journal of Differential Equations, Conf. 26, pp. 179-200.
Bear, J. (1972). Dynamics of Fluids in Porous Media. American Elsevier Publishing Company (or later editions).
Further references will be recommended by the supervisor according to the given project.
In this project we study properties of models based on differential, difference equations or cellular automata. We focus on nonlinear phenomena and qualitative properties like bifurcations, chaotic behaviour. Both analytical and numerical approaches are considered. Various mathematical structures (discrete x continuous time/space) are compared and selected based on the behaviour and/or applications in, e.g., mathematical biology, economics, etc.
Analysis of a selected problem, literature review, discussion about parameter dependence, applications, numerical experiments.
Basic familiarity with recurrences, differential equations. Motivation for dynamical systems and related applications. Interest in simulations and numerical experiments.
A short report summarizing obtained results. Numerical experiments.
Papers and books recommended by the supervisor related to the selected topic.
The student will work with results of two finished project Themasys and Ecohep. The main focus will be application of projects results on new issues or processing the project data for computation model validation.
Themasys: The aim of the two-year project is to create a complete system for testing the components of the systems for active thermal management of electric vehicles. This is a very current area, which is addressed by a large number of automotive companies, reflecting the high demands of customers. The components of the system that will be created during the project will be the thermal simulator of the battery, the cabin simulator including the HVAC unit and the data acquisition system. An integral part and one of the outputs of the project will be a set of procedures for component testing using the BUT climate chamber, which will also be the result with the main potential for commercial use.
Ecohep: The aim of the two-year project is to develop a new compact reversible heat pump system (air conditioning/heating) for automotive applications using HC based refrigerant. The entire system will first be designed at a thermodynamic level using simulation models and virtual validation to find the optimum amount of refrigerant in the system to minimize its amount. Next, a functional sample from power and economically relevant components will be assembled and the system will be validated by a series of climatic tests in the BUT climate chamber to confirm its operational parameters. The project will also include a proposal for managing the entire system and plan for its integration into vehicles.
Virtual human twins are a concept in healthcare that involves creating a digital twin of a patient that can be used to simulate and personalise medical treatment. These virtual twins are based on the patient’s medical history, profile, and other data, and can be used to test different treatments and interventions to determine which is likely to be most effective for that particular patient. This can lead to better outcomes for patients and reduce healthcare costs by avoiding unnecessary treatments. Biomechanical computational models of healthy and pathological pelvis, pelvic cavity and pelvic floor are a rapidly evolving field, and there is ongoing research to improve the accuracy and predictive capabilities of these models. The models and simulations require high quality input and validation data frequently based on medical imaging. The development of such models based on medical images is highly time-consumptive, various scaling and morphing methods are used to develop the subject-specific model from a template models and a set of internal and external landmarks.
Identify internal pelvic floor landmarks using an open-source software 3D Slicer. Morph template model to subject-specific model using chosen identified landmarks. Check accuracy using various sets of landmarks.
Curiosity. Team work. Communication skills. Basic knowledge of programming.
Literature review. Final report. Presentation.
https://www.slicer.org
You will work in an international and multidisciplinary team of researchers, engineers, and medical doctors.
The research evaluates the safety performance of reclined seats, a potential feature in future autonomous vehicles, through numerical simulations of sled test experiments. Using Hybrid III ATD (Anthropomorphic Test Device) sled tests literature data, the study compares the results with simulations conducted using the Virthuman human body model, developed at the University of West Bohemia. The primary goal is to assess the differences in injury risk between dummy and human body models in reclined seat configurations. This comprehensive analysis will enhance safety standards for occupants in autonomous vehicle designs.
Perform numerical simulations using VPS software and Virthuman model. Compare results with available literature data.
Curiosity. Team work. Communication skills. Basic knowledge of programming.
Literature review. Final report. Presentation.
SAE Technical Paper 2014-01-0534, doi: 10.4271/2014-01-0534.
You will work in an international and multidisciplinary team of researchers, engineers, and medical doctors.
The research evaluates the safety performance of new type of motorcycle helmet, a potential personal protective equipment for motorcycle drivers, through numerical simulations of drop test experiments. Using the ECE 22.06 testing procedure for motorcycle helmet, the study compares the evaluation of the injury with simulations conducted Explicit FEM solver. The primary goal is to assess the differences in injury risk between a standard helmet ( EPS based) and an innovative tensegrity-based helmet. This comprehensive analysis will enhance safety standards for drivers of powered-two-wheelers.
Perform numerical simulations using VPS software (Explicit FEM Solver). Compare results with available literature data.
Curiosity. Team work. Communication skills. Basic knowledge of programming.
Literature review. Final report. Presentation. Journal paper.
Tomasz BONKOWSKI, Ludek HYNCIK, EP4426154 – HELMET WITH A MULTI-DIRECTIONAL SUSPENSION SYSTEM AND A PROCEDURE FOR ASSEMBLING THE HELMET
Tan, R., Baker, C.E., Yu, X. et al. Superior linear and comparable rotational protection of an air-filled helmet versus foam helmets. Sci Rep 15, 27364 (2025). https://doi.org/10.1038/s41598-025-10615-9
You will work in an international and multidisciplinary team of researchers, engineers, and medical doctors.
University of West Bohemia in Pilsen, New Technologies Research Centre
Unique measurement system was developed for high speed measurement of thermal radiation from material during nanosecond, picosecond and femtosecond laser micromachining. It is based on InGaAs photodiodes and response time is in nanoseconds. A precise calibration is necessary for absolute temperature measurement. We want to use this system for measurement of temperatures during ultrashort laser processing of materials, e.g. titanium for medical implants.
Main work will be setup and calibration of the measurement system, measurement with different laser processing parameters and analysis of measured data.
Capability of careful precise measurements with a delicate optical instrument and detail analysis of measurements in user developed software (Python).
Students of engineering or physics.
University of West Bohemia in Pilsen, New Technologies Research Centre
Quantum technologies include new multidisciplinary research areas connecting physics, chemistry, mathematics, computer science and materials science and have great technological potential. The NTC team is focused on development of quantum technologies, mainly qaunatum materials and quantum sensing devices. New ideas has to be tested experimentally on the optical bench using lasers, optical components, detectors, etc.
Main work will be literature review, experimental development and verification of the new idea of quantum measurement system, measurement of optical and thermal properties of different materials, and analysis of measured data.
Capability of careful measurements with optical instruments and detail analysis of measurements. Beneficial is knowledge of Python programming and pasion for new ideas.
Lit. review, report, presentation.
https://qm4st.zcu.cz/en/
Pulsed laser deposition in vaccum and liquids of selected bioactive nanoparticles (silicon, CaSi2, CaTiSiO5, CaTiO3, CaCu3Ti4O12) on smooth and porous surfaces; Characterization of deposited nanoparticles by SEM, EDX, Raman spectroscopy; Selection of the most suitable deposits for testing of the bone tissue growing; Analyse results and write final report.
Fundamental knowledge in the field of chemistry and material science, basic skills necessary in the chemical lab.
Synthesis of various types of biopolymer-based composites via sol-gel techniques ← Characterization → Tuning composite properties
Biopolymer-based composites have emerged as promising materials for tissue repair due to their unique combination of biocompatibility, biodegradability, and tunable mechanical properties. By integrating natural or synthetic polymers with bioactive fillers such as bioceramics, nanoparticles, or growth factors, these composites can mimic the extracellular matrix, support cell adhesion, and promote tissue regeneration.
Nanocomposite synthesis, characterization via thermal analyses, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
https://doi.org/10.3390/molecules26030619
Students of material science, chemistry or physics
Synthesis of CeO2 NPs via precipitation method using hexamethylenetetramine ← Characterization → Charge-tunable CeO₂ nanoparticles
Cerium oxide (CeO₂) is an important rare-earth material known for its ability to switch between two oxidation states, Ce³⁺ and Ce⁴⁺. This redox behaviour depends on conditions such as temperature and pH and is further enhanced by the high oxygen mobility and efficient electron transfer on the surface of the nanoparticles. These characteristics make CeO₂ nanoparticles highly effective in both catalytic and biomedical fields. Cerium oxide nanoparticles have been extensively investigated for their potential to mitigate oxidative stress at the cellular level due to their intrinsic antioxidant properties.
Synthesis of dispersions, characterization, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
Students of material science, chemistry or physics
Main focus is on the thermal evaluation of the injection mould from 3D printed plastic material.
Depending on the agreement with the supervisor of the collaboration topic.
Depending on the agreement with the supervisor of the collaboration topic.
Depending on the agreement with the supervisor of the collaboration topic.
The research in general is aiming at the new design of vehicle’s chassis and related parts. The main areas of the research are new chassis design proposition and optimization, strength and deformation analysis using modern computational procedures, development of chassis parts of the vehicle’s powertrain, differentials, efficiency of permanent gears and gearboxes using PowerTrain etc.
The study will focus on the design of suitable cutting tools (material composition, tool geometry, etc.), cutting conditions for efficient machining of carbon fiber composite plates.
Preparation of a research on the problem of milling of composite materials with carbon fibres, focusing mainly on the current state of knowledge:
– Issues in the milling of carbon fibre reinforced composites (tool wear, cutting forces, machining temperatures, delamination of machined material, health hazards, etc.)
– Tools (material, geometry),
– Cutting conditions (milling without process fluid, with process fluid).
General knowledge:
– Machining technology,
– Composite materials.
Report, presentation.
SHYHA, Islam; HUO, Dehong. Advances in Machining of Composite Materials. Online. Springer International Publishing, 2021. Dostupné z: http://dx.doi.org/10.1007/978-3- 030-71438-3.
Implementation of a library of algorithms for tuning adjustable parameters of PID (PSD) controllers. The output will be a library of functions writen in the C language.
Basic knowledge in programming in C or C++.
Study literature is available at the department. The issue of PID regulation will be explained at the beginning of the internship.
Students of mechatronic or electrical engineering with focus on programming.
We have created a prototype device that allows you to create unique nanostructures by combining two methods of creating nanofibers. The device is controlled via a direct code on the microcontroller. We would like to increase the level of automation and add control of devices via a graphical interface directly from the device. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a user interface for a device that uses for manufacturing complex nanofiber structures. The user interface will work on Raspberry Pi on the touch screen.
Experience with Python, Raspbery Pi, Arduino, basic electronics.
Graphical user interface on Raspbery Pi.
https://docs.python.org/3/library/tkinter.html
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
We have created a prototype device that allows you to create special structures of the so-called scaffolds. The device is used in the medical field. A graphical interface will help maintenance personnel use the device without programming knowledge. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a grafical user interface for 3D printer that uses for manufacturing micro- and nanofiber scaffollds. The user interface should be written in Python.
Experience with Python, Arduino, G-code, basic electronics.
User friendly software, that allows you to perform certain operations on the device.
https://github.com/bborncr/gcodesender.py; https://marlinfw.org/meta/gcode/
Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
Our university is a leader in the field of nanotechnology. One of the methods for the production of nano- and microfibers is the drawing method. In this area, it is planned to realize one experiment to which it is necessary to build a rotating drum with the construction and revitalization of which we would like to help. This is an interesting excursion into the world of nanotechnology and mechatronics.
Create a design for a rotating drum;
Figure out how to connect it with the current device based on a 3D printer;
If possible to implement and assemble the device;
Experience with CAD software, preparing model for 3D printing, Arduino, basic electronics and Python.
Firmware, CAD models.
https://www.researchgate.net/figure/Schematic-of-nanofiber-fabrication-by-the-drawing-technique-b-SEM-images-of-a_fig3_268872758
Recommended for: Students of electrical / mechanical / software engineering (depending on student skills the task would be adapted.).
In case of commonly produced flexible materials with internal structure (e.g. polyurethane foam) the forming if this structure is given by chemical reactions occurring as a part of technological process. Controlling of geometric and mechanical properties is then given by chemical composition of production components and other technological conditions. The alternative way how to make such a kind of material is a 3D printing technology when every geometric part of the structure can be intentionally designed. It is way more easier to control the total material density as well as detailed geometric properties.
The research at the Department of Applied Mechanics deals with artificial design of a geometry of 3D printed materials and investigation of their mechanical properties. Once the material was designed and printed it is subjected to mechanical testing in the Laboratory of Experimental Mechanics what is a part of our department. We investigate experimentally the force response to displacement excitation (usually compression tests), and dissipated energy. Simultaneously we develop material model of a structure for a simulation by means of Finite Element Method. We use MSC.Marc software for the computer simulation. Then detailed data analysis is performed for comparison of the experiment and simulation.
The job description will be adapted to real abilities of internship students and will comprise following activities. These activities and detailed work description and tasks will be given by needs of our research at the time of internship.
– Artificial design of 3D structure.
– Assistance in experimental work.
– Data processing and evaluation.
– (Finite Element Method simulation.)
Programming skills (Matlab is preferred, Python may be useful as well).
Some positive relationship to a field of Stress and Strength of Materials and experimental work.
This will be specified in accordance with a detailed work specification.
Basic skills with text processors (MS Word, LaTeX…)
Literature review, scientific paper…
https://www.elsevier.com/connect/11-steps-to-structuring-a-science-paper-editors-will-take-seriously
MATLAB represents the numerical computing environment and could serve as a strong background for proprietary programs and software demands. The software uses various mathematical and physical frameworks that can be implemented as source code in diverse programs.
Creation of source code in MATLAB, where the focus of the work will be specified according to the trainee’s interest. Sample topics are:
a) Program for finding the optimal track of agricultural technology in field works;
b) Programming in the field of genetic algorithms (optimization tasks);
c) Computer model in the field of treatment of porous materials with plasma;
d) Image processing, etc..
Knowledge of MATLAB (if needed, the trainee will be able to consult with a specialist).
Outcomes depend on theme: source code, report, literature review, scientific paper…
Attaway, S. (2013). MATLAB: A practical introduction to programming and problem solving. Third edition.Boston: Elsevier, B/H,Butterworth-Heinemann.
Stork, D., G. and Yom-Tov, E. (2004). Computer manual in MATLAB to accompany pattern classification. Secondedition. Hoboken: Wiley-Interscience.
Artificial intelligence is an intensively developing field of science with possible applications in all areas of human activity. Our department deals with the application of these modern methods in agriculture, within several scientific and research projects.
The trainee’s task will be to engage in this very interesting research and development activities, taking into account his / her capabilities and professional focus. The tasks can be oriented towards literature search, programming, neural network learning, testing and more. The tasks are within various levels of complexity and they are available both for complete beginners in this field as well as for experienced specialists.
Basic orientation in the researched issue is an advantage.
Outcomes depend on theme: source code, report, literature review, scientific paper…
Hansen, M. F. et al. (2018). Computers in Industry Towards on-farm pig face recognition using convolutional neural networks. Computers in Industry. Elsevier B.V., 98:145–152.
Koirala, A. et al. (2019). Deep learning for real – time fruit detection and orchard fruit load estimation: benchmarking of MangoYOLO. Precision Agriculture. Springer US, 20(6): 1107–1135.
Ma, L., Xie, W. and Huang, H. (2019). Convolutional neural network-based obstacle detection for unmanned surface vehicle. Mathematical Biosciences and Engineering, 17(1): 845–861.
Yiping, G. et al. (2020). A semi-supervised convolutional neural network-based method for steel surface defect recognition. Robotics and Computer Integrated Manufacturing,61:1–8.
Zhuang, X. and Zhang, T. (2019). ScienceDirect Detection of sick broilers by digital image processing and deep learning. Biosystems Engineering. Elsevier Ltd, 179:106–116.
Livestock production is facing huge demands in terms of high-quality milk production. Same as in automotive production the robotization could be an asset to the livestock escalation. The robotic arm could be used for milking procedures as an alternative to human labour.
Cooperation on the development of new possibilities of using robotic hand in agriculture. Sample topics are:
a) Preparing of literature review,
b) Programming in the field of machine vision,
c) Programming in the field of artificial intelligence,
d) Computer modeling in the field of using robotic hand,
e) Preparing graphic for presentation of a project, etc.
Basic skills, basic orientation in the researched issue is an advantage.
Outcomes depend on theme: source code, computer model, graphics, report, literature review, scientific paper…
Ford, M. (2016). The rise of the robots: technology and the threat of mass unemployment. London: Oneworld.
Li, S., Jin, L. and Mirza, M.A. (2019). Kinematic control of redundant robot arms using neural networks. Hoboken, NJ: John Wiley & Sons.
Graphical representation in a scientific paper is a very important part of successful publishing. Useful and prepared graphical objects ease the read and understanding of the presented information and results.
Preparing of graphic content (e.g. pictures, animations, posters, formatting, etc.) for publications and presentations of department.
Basic skills with graphical editors, basic skills with text processors (MS Word, LaTeX…).
Outcomes depend on theme: graphics (pictures, graphs, animations, posters, infographics…), formatted papers…
https://www.elsevier.com/connect/11-steps-to-structuring-a-science-paper-editors-will-take-seriously
Python represents one of the most used programming languages in the world. It may be used for many applications, such as neural networks, image processing, etc.
Creation of source code in Python, where the focus of the work will be specified according to the trainee’s interest.
Knowledge of Python (if needed, the trainee can consult with a specialist).
Outcomes depend on the theme: source code, report, literature review, scientific paper…
Introduction to programming in Python:
https://www.w3schools.com/python/
https://www.geeksforgeeks.org/python-programming-language/
https://realpython.com/
https://ocw.mit.edu/courses/6-0001-introduction-to-computer-science-and-programming-in-python-fall-2016/
Introduction to image processing in Python:
https://docs.opencv.org/3.4/d6/d00/tutorial_py_root.html
https://pyimagesearch.com/
The focus of the work will be specified according to the trainee’s interest.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L – 3D Vision system, bin picking etc. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in industrial robotics.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples / teaching materials.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Industry 4.0 laboratory – collaborative robot Fanuc CR-7iA/L connected sensors and conveyor, AGV SSI Schaefer Weasel, Balluff model assembly line. Creation of the teaching materials.
Study and explore the system, create the examples of the using of the system including solutions of the examples, create the teaching materials out of it.
Basic technical knowledge, basic programming skills, basic overview in sensors.
Teaching materials in form of document / video material including the solved examples. Creation of equipment to support the created examples, teaching materials.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
In this research, we aim to expose participants to a corporate virtual training environment, where stress-inducing scenarios will be deliberately introduced (e.g., machine malfunction, increased production rate, or emergency situations). We are particularly interested in how participants manage stress in these scenarios induced by virtual reality. The level of stress will vary individually and will be measured using wearable devices (e.g., skin conductance, heart rate). After the exposure, participants will also complete questionnaires on stress levels, cybersickness, and user acceptance. Furthermore, the memorability of the content will be tested.
An intern could assist in preparing the virtual environment, participate in the actual experiment by helping with the attachment of sensors to participants, and be responsible for data collection. The intern may also assist with data analysis.
The mentioned requirements are recommended but not mandatory, as the intern can either learn the necessary skills or be involved in tasks appropriate to their existing knowledge. Programming skills are advantageous (specifically in C# and Unity), as well as a basic understanding of statistical analysis.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The objective of this experiment is to assess the efficiency and subjective perception of using AR in a simulated production line maintenance scenario, compared to a traditional approach that utilizes maps and paper instructions. The experiment is designed to clearly compare the performance and convenience of both methods. The experimental setup utilizes the Fischertechnik construction kit, which serves as a model for simulating production line maintenance. The kit is configured to include machines distributed in a real-world space, requiring participants to actively search for individual components. Both regular maintenance tasks and random malfunctions are planned for the simulation, with these conditions being consistent for all participants. Participants in the experiment are divided into two groups. The control group follows the traditional approach, studying the layout of the line using a map and tracking errors on a single terminal with paper-based instructions. Repairs are carried out based on these paper instructions. In contrast, the experimental group uses either a tablet or AR glasses to monitor sensor data, with the machine reporting the error and showing the route to the malfunction site. Repairs in the experimental group are guided by AR, providing real-time visual instructions. The experimental group is further divided into two subgroups based on the type of AR device used. Maintenance and repairs are divided into simple tasks, such as pressing a button, and more complex repairs that require specific step-by-step sequences. The control group works with a paper list of errors and repairs, while the experimental group uses AR to display specific steps directly on the machine. The experiment involves simulating maintenance, where participants perform tasks according to the assigned instructions, and both the time and success rate of repairs are recorded. After completing the simulation, participants will fill out a questionnaire focused on their subjective perception of the method used. Participants who experienced the traditional method will then try the AR version and provide feedback. This experiment will provide valuable insights into the advantages and disadvantages of using AR in industrial maintenance and allow for a better understanding of its potential benefits in real-world operational conditions.
Although the program that reads real-time data and displays it on the machines is already developed, there is still a need to finalize a system that will simulate malfunctions based on AR and input data, display them on the terminal, and simultaneously show repair instructions in augmented reality.
This task mainly involves assistance with the technical preparation of the software, so we would particularly emphasize programming proficiency. The system will be developed in Unity with support from the Vuforia platform. Communication between IoT devices is handled by the MQTT architecture. From previous experience, we know that specific experience with these systems is not required, but general programming experience will suffice.
The final output of the research will be a publication in an impact peer-reviewed journal.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project integrates the Fischertechnik educational robotics kit with a Siemens programmable logic controller (PLC) to demonstrate industrial automation principles in a hands-on, academic setting. The goal is to design and implement control logic that allows the Siemens PLC to operate Fischertechnik components such as motors, sensors, and actuators. This setup simulates real-world automation systems and provides engineering students practical experience in PLC programming and system integration.
The project bridges the gap between educational robotics and industrial control systems, offering valuable insights into how programmable controllers are used in manufacturing and automation.
1) Getting to know the Fischertechnik kit
2) Familiarisation with Siemens PLC
3) Creating a study guide
4) Creating one more complex model
5) Analyse the benefits and challenges of linking the learning kit with an industrial PLC.
6) Describe the methodology, testing results and recommendations for teaching.
7) Create a paper suitable for publication or presentation at a professional conference.
Knowledge of PLC and PLC programming
Research paper about the problematic, Study guide
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The internship would aim to create a programming manual for the Fischertechnik TXT 4.0 controller using Python and to develop control codes for basic examples for industrial engineering students.
1. Familiarisation with the Fischertechnik TXT 4.0 unit and the Fischertechnik kit
2. Develop a study guide for programming the control unit using Python
3. Develop basic examples for industrial engineering students
Basic knowledge of Python is an advantage
Basic understanding of Scratch is an advantage
Study book, Paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
This internship project explores and compares two approaches to 3D printing: traditional 3D printing using a Průša Mini+ printer and a Dobot Magician robot. The aim is to evaluate both systems’ capabilities, accuracy and usability in the context of engineering education and prototyping. The final output will be a research paper summarising the findings, supported by practical experiments and analysis.
1) Technical Familiarisation
2) Design and Execution of
3) Test Prints
4) Evaluation Criteria
5) Development
6)Experimental Testing
7) Analysis and Interpretation
8) Research Article Writing
Basic understanding of 3D printing
Willingness to experiment and explore
Knowledge of e.g. Autodesk Inventor is an advantage
Research paper about the problematic
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The department built and programmed an AGV model using a Fischertechnik kit and Fischertechnik TXT 4.0 Controller as part of one of the bachelor theses. The AGV uses an IR sensor for line tracking and a camera for reading markers (e.g. stop sign). During the internship, experiments will be carried out to investigate the reliability of this solution under different lighting conditions and their statistical evaluation. The output will bepresentation of the experiments and data analysis and collective technical paper which can be finished by online form after the internship.
1. Creation of test scenarios.
2. Execution of tests.
3. Statistical evaluation of the tests.
4. Collaboration on the paper.
Scratch basics an advantage.
Basics of statistical data evaluation.
Technical thinking.
Presentation, Publication.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
The internship focuses on collaboration on a publication focused on the SimTalk scripting language used in the discrete event simulation tool Tecnomatix Plant Simulation. The publication will serve as one of the study materials in a course focused on computer simulations. It should introduce students to the basics of SimTalk, i.e. variables, conditions and cycles, important objects such as table types and working with them, etc.
Collaboration on a publication focused on SimTalk language.
Tecnonatix Plant Simulation.
SimTalk 2.0.
Publication.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Smart manufacturing – participate in course development related to smart manufacturing, including studying literature from various sources and create chapters of a course.
Prepare various chapters on Industry 4.0 and Smart manufacturing concept, simulation models and digital twins, data collection from manufacturing system, sensors and their application, Machine Learning using visual programming language, Data in Smart manufacturing, decision making algorithms in manufacturing management, Industry 5.0 concept, trends in manufacturing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
Matlab examples – participate in course development related to Matlab programming, including studying literature from various sources.
Own creation of examples in Matlab environment. Examples should be from the technical field. Creation of assignments for examples, including analysis, description of solutions and testing.
Know how to work with MS Office tools (Word, Excel), know how to work with PC, design an algorithm to solve a simple problem, basic knowledge of Matlab programming.
Chapters in course.
University of West Bohemia, Faculty of Mechanical Engineering, Department of Industrial Engineering and Management
C# examples – participation in course development focused on C# programming, including studying literature from various sources.
Own creation of examples in the C# environment oriented on the principle of object-oriented programming – inheritance, etc. Examples should have technical character. Creation of assignments for examples, including analysis, description of solutions and their testing.
Basic knowledge of C# programming, know how to work with MS Office tools, know how to work with PC, design an algorithm to solve a problem, create a simple form application in an object-oriented programming system, create simple algorithms for technical calculations, express an algorithm in a graphical way
Chapters in course.
University of West Bohemia in Pilsen, New Technologies Research Centre
Unique measurement system was developed for high speed measurement of thermal radiation from material during nanosecond, picosecond and femtosecond laser micromachining. It is based on InGaAs photodiodes and response time is in nanoseconds. A precise calibration is necessary for absolute temperature measurement. We want to use this system for measurement of temperatures during ultrashort laser processing of materials, e.g. titanium for medical implants.
Main work will be setup and calibration of the measurement system, measurement with different laser processing parameters and analysis of measured data.
Capability of careful precise measurements with a delicate optical instrument and detail analysis of measurements in user developed software (Python).
Students of engineering or physics.
University of West Bohemia in Pilsen, New Technologies Research Centre
Quantum technologies include new multidisciplinary research areas connecting physics, chemistry, mathematics, computer science and materials science and have great technological potential. The NTC team is focused on development of quantum technologies, mainly qaunatum materials and quantum sensing devices. New ideas has to be tested experimentally on the optical bench using lasers, optical components, detectors, etc.
Main work will be literature review, experimental development and verification of the new idea of quantum measurement system, measurement of optical and thermal properties of different materials, and analysis of measured data.
Capability of careful measurements with optical instruments and detail analysis of measurements. Beneficial is knowledge of Python programming and pasion for new ideas.
Lit. review, report, presentation.
https://qm4st.zcu.cz/en/
Pulsed laser deposition in vaccum and liquids of selected bioactive nanoparticles (silicon, CaSi2, CaTiSiO5, CaTiO3, CaCu3Ti4O12) on smooth and porous surfaces; Characterization of deposited nanoparticles by SEM, EDX, Raman spectroscopy; Selection of the most suitable deposits for testing of the bone tissue growing; Analyse results and write final report.
Synthesis of various types of biopolymer-based composites via sol-gel techniques ← Characterization → Tuning composite properties
Biopolymer-based composites have emerged as promising materials for tissue repair due to their unique combination of biocompatibility, biodegradability, and tunable mechanical properties. By integrating natural or synthetic polymers with bioactive fillers such as bioceramics, nanoparticles, or growth factors, these composites can mimic the extracellular matrix, support cell adhesion, and promote tissue regeneration.
Nanocomposite synthesis, characterization via thermal analyses, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
https://doi.org/10.3390/molecules26030619
Students of material science, chemistry or physics
Synthesis of CeO2 NPs via precipitation method using hexamethylenetetramine ← Characterization → Charge-tunable CeO₂ nanoparticles
Cerium oxide (CeO₂) is an important rare-earth material known for its ability to switch between two oxidation states, Ce³⁺ and Ce⁴⁺. This redox behaviour depends on conditions such as temperature and pH and is further enhanced by the high oxygen mobility and efficient electron transfer on the surface of the nanoparticles. These characteristics make CeO₂ nanoparticles highly effective in both catalytic and biomedical fields. Cerium oxide nanoparticles have been extensively investigated for their potential to mitigate oxidative stress at the cellular level due to their intrinsic antioxidant properties.
Synthesis of dispersions, characterization, modification. Analyse results and write final report/poster
Fundamental knowledge in the field of material science, basic skills necessary in the chemical lab.
Report, presentation.
Students of material science, chemistry or physics
https://mendelu.academia.edu/miros_horak
Masaryk University in Brno, Language Centre
The Language Centre at Masaryk University is offering internship positions for students of social sciences or humanities with an interest in language, culture, and identity. This opportunity is designed to provide hands-on experience in language teaching, presentation, and communication skills, under the guidance of experts in the field. Dr. Athena Alchazidu, a specialist in presentation and communication skills, will lead interns through the process of effectively presenting research results in multiple languages—a crucial skill in today’s global academic environment. Her research extends to identity issues of indigenous communities and minority groups in Latin America, offering interns valuable exposure to interdisciplinary cultural studies and linguistic research. Additionally, the internship offers the chance to collaborate with Dr. Linda Krahula Doleží and her team, who focus on the heritage language and cultural-linguistic identity. Interns will gain insight into the challenges and practices of heritage language preservation, as well as the role language plays in shaping and sustaining cultural identity, particularly within diasporas or other minority communities. Interns will have the opportunity to engage in interdisciplinary research, enhance their language and communication skills, and contribute to ongoing projects that explore the rich themes of cultural and linguistic diversity. The internship provides a solid foundation for those interested in Latin American studies, Czech heritage, or language pedagogy, offering valuable experience in a stimulating academic environment.
We would also be pleased to welcome interns from related fields in the humanities or social sciences.
This is an excellent opportunity to work at the intersection of language, culture, and identity at one of Central Europe’s leading universities.
Masaryk University, Faculty of Economics and Administration, Department of Regional Economics + International Office
The exchange project focuses on Brno as an international university city and explores how the city is experienced, perceived, and “lived” by prospective young international students. Beyond public space, the topic investigates a broader set of factors shaping student experience, including urban services, safety, affordability, mobility, everyday student life, and emotional perception of the city.
The project aims to analyse strengths and weaknesses of Brno’s urban environment and student services and translate these insights into authentic narratives and stories that can support international marketing and internationalisation efforts of the Faculty of Economics and Administration / Masaryk University.
The topic combines urban studies, student experience research, place marketing, and internationalisation of higher education, producing outputs relevant for both academic reflection and practical recruitment communication.
The intern will deliver a practical marketing package focused on Brno as an international student city, including: 3–5 short student stories based on real experience, Instagram posts and stories, short video concepts, short blog-style texts, student personas (2–3 profiles) describing typical international prospective students and what they care about, etc.
Self-study and inspiration shared before the exchange: basic data and background materials on Brno and Masaryk University (student population, services, city profile), including selected international marketing and communication materials used to present the city and the university to prospective international students.