Access to the latest research knowledge: the IADI has extensive know-how in both theoretical and applied research. Industrial partners can benefit from this collaboration by gaining access to the latest knowledge and technology in the field of automotive and transport engineering.
Talented graduates.
Research and development: University institutes can offer industry partners the opportunity to collaborate on joint research and development projects, which can lead to new technologies or improvements to existing products.
Testing and certification: University laboratories and testing facilities can be used to test and certify products, an important step before new products are launched.
Staff upskilling: Industrial partners can use university courses, seminars and workshops to further train and upskill their staff.

Cooperation opportunities

Joint research projects: teams from industry and universities can collaborate on research projects that address specific challenges of industrial partners. Typical projects include TAČR, OP TAK Applications, Transport 2030 and others.
Internships and work experience for students: companies can offer internship and work experience positions for students, allowing them to gain practical experience and companies to identify potential future employees.
Sponsorship and donations: Industry partners can financially support specific research projects, academic programmes or scholarships for students. If interested in supporting the Institute, display their products in the Institute's premises.
Consultancy services.
Curriculum Development Collaboration: Companies can collaborate with the Institute on curriculum development to ensure that the curriculum meets the current and future needs of industry.
Technology transfer: the Institute has technologies, patents and inventions that can be commercialised through licensing agreements with industrial partners.

We are certified TISAX®

Trusted Information Security Assesment Exchange

TISAX® assesses the information security of companies in the automotive industry
Emphasizes secure processing of information from business partners, prototype protection and data protection
Certification is valid internationally
Our information security management system complies with the highest standards
TISAX® facilitates participation in competitive tenders

TISAX® (Trusted Information Security Assessment Exchange) is an assessment and exchange program for information security assessments of companies in the automotive industry. It was developed by ENX with the support of the VDA (Verband der Automobilindustrie), the German automotive industry association, in 2017.

The aim of TISAX® is to ensure and optimize the exchange of information relating to information security between manufacturers and their suppliers in the automotive industry

TISAX® is based on ISO/IEC 27001, the internationally recognized standard for information security management systems (ISMS). However, TISAX® adds specific requirements and assessment mechanisms adapted to the needs of the automotive industry. It emphasizes secure processing of information from trading partners, prototype protection and data protection in accordance with the General Data Protection Regulation (GDPR) for potential business transactions between automotive manufacturers and their service providers or suppliers.

Scope of industrial cooperation

IAE has the most extensive industrial cooperation of all the institutes of the faculty and BUT. We focus on long-term and systematic cooperation.

How to collaborate on research with the Institute of Automotive and Transport Engineering

The Institute of Automotive and Transport Engineering (IADI) is one of the leading research centers focused on innovation and technological advancement in the field of automotive and transport engineering. Our mission is to push the boundaries of knowledge and technology in transportation and contribute to increased safety, efficiency, and sustainability of modern mobility.

We offer partners the opportunity to commission specific research tasks tailored to their needs. Contract research enables fast and targeted problem solving, with results that can be immediately applied in your business. If you have a problem that needs to be solved and lack the capacity, software, or expertise, take advantage of our institute’s resources. Based on your request, we will set a team of experts who will discuss your issue with you and propose solutions. We will prepare an offer that clearly defines deliverables, deadlines, and pricing. This may range from basic tasks, such as creating a digital model using reverse engineering or diagnosing noise and vibrations, to complex long-term research. We recommend exploring the activities of our research teams and our laboratory equipment.

The volume of our contract research clearly demonstrates that we have a lot to offer and that cooperation with us brings benefits to both parties.

If your problem involves research uncertainty and requires longer-term collaboration, there is also the possibility of submitting a joint project (e.g., TAČR, MPO, etc.). We collaborate on projects focused on the development of new technologies, process optimization, and the application of scientific knowledge in practice. Projects may be funded from public sources, such as grant agencies. An overview of currently ongoing projects is available.

Industry partners with the largest volume of funding

Lifelong learning courses - making money for companies

The review courses organized by the Institute of Automotive and Transport Engineering of the Faculty of Mechanical Engineering of Brno University of Technology are designed to acquire or remind knowledge in the basic areas of automotive engineering. These courses are also suitable as retraining courses for workers. Each course is dedicated to a selected topic. The courses are provided by lecturers from the academic staff of the Institute of Automotive and Transport Engineering, Faculty of Mechanical Engineering, Brno University of Technology. Practical assignments in laboratories or computer labs may also be part of the course.

The basic fee for a full-day course (6 teaching hours) is CZK 2,500.- excluding VAT. The course is open for 10 participants. Courses are held on Thursdays or Fridays at the premises of ÚADI Technická 2, Brno 616 69. The course can be held at your company's premises or can be arranged via MS Teams. The courses also include teaching materials.

If you are interested in a course from the offer or a course with a different topic, please contact Ing. Jana Stodolová stodolova@fme.vutbr.cz or prof. Ing. Josef Štětina, Ph.D. josef.stetina@vutbr.cz .

Examples of courses:

Applied Thermodynamics (prof. Ing. Josef Štětina, Ph.D.)

This course is designed for everyone interested in understanding and applying the principles of thermodynamics in practice, from beginners to professionals in the automotive, energy, and mechanical engineering industries. Participants will gain both theoretical knowledge and practical skills needed to solve complex problems in thermodynamics.

Introduction to Thermomechanics, Basic concepts and principles of thermodynamics
Processes of Ideal Gases
Laws of ideal gases (Boyle’s law, Charles’s law, Gay-Lussac’s law),
The equation of state for an ideal gas
Isothermal, isochoric, isobaric, adiabatic, and polytropic processes,
Real gases vs. ideal gases
Laws of Thermodynamics
First law of thermodynamics: law of energy conservation, Work, heat, and internal energy,
Application to closed and open systems, Definition of enthalpy and its physical meaning, Enthalpy calculations for various thermodynamic processes,
Use of enthalpy in energy calculations and analyses,
Second law of thermodynamics: direction of thermodynamic processes,
Entropy and its significance
Thermal Efficiency
Definition and importance of thermal efficiency, Carnot cycle and its efficiency,
Heat engines and their efficiency (engine, turbine, refrigeration systems),
Evaluation and optimization of thermodynamic cycles (Rankine cycle, Brayton cycle)
Parameters of Steam and Humid Air, Properties and behavior of steam, Phase transformations of water and its diagrams, Saturated steam tables and their use,
Calculation of parameters in different steam states
Flow of Gases and Vapors, Basic principles of gas and vapor flow, Continuity equation, Bernoulli equation and its applications, Flow in nozzles and pipes

Conclusion and Practical Application of Thermomechanics, Summary of key course concepts, Practical applications in industry and energy sectors,
Discussion and solving specific problems by the course participants

Heat Transfer (prof. Ing. Josef Štětina, Ph.D.)

This course is designed for everyone interested in understanding and applying the principles of heat transfer in practice, from beginners to professionals in the energy, automotive, and mechanical engineering industries. Participants will gain both theoretical knowledge and practical skills needed to solve complex problems in the field of heat transfer.

1. Introduction to Heat Transfer
Basic concepts and principles of heat transfer, Importance of heat transfer in industry and everyday life

Fundamentals of Heat Transfer
Basic heat transfer mechanisms: conduction, convection, and radiation,
Definition and physical principles of each mechanism, Fundamental equations and their applications
Heat Transfer by Conduction
Fourier’s law of heat conduction, Heat conduction equation in one-dimensional and multilayer systems, Steady-state and transient conduction,
Examples of practical applications (thermal insulation, construction)
Heat Transfer by Convection
Newton’s law of cooling, Types of convection: natural and forced,
Laminar and turbulent flow, Calculations of convective heat transfer,
Examples of applications (electronics cooling, heating and air conditioning)
Heat Transfer by Radiation
Basic principles of thermal radiation, Stefan–Boltzmann law, Wien’s law, and Planck’s law, Heat exchange between surfaces, Examples of applications of radiative heat transfer (solar heating, radiators)
Similarity Theory
Dimensional analysis and dimensionless parameters, Reynolds number, Nusselt number, Prandtl number, Application of similarity theory in heat transfer,
Modeling and experimental techniques
Overall Heat Transfer (Heat Transfer Through Structures)
Mechanism of heat transfer through materials,
Combination of conduction, convection, and radiation, Thermal resistance and overall heat transfer coefficient, Calculations of heat transfer in various systems,
Practical applications (windows, walls, thermal insulation)
Heat Exchangers
Types and design of heat exchangers, Tubular, plate, and spiral heat exchangers,
Principles of operation and heat exchangers efficiency, Design and sizing methods, Practical applications (industrial processes, air conditioning, energy systems

Conclusion and Practical Applications of Heat Transfer
Summary of key course concepts, Practical applications in industry and everyday life, Discussion and solving specific problems by the course participants.

Measurement of Thermal Quantities

Discover the secrets of measuring thermal quantities with a leading expert!

Join our unique course “Measurement of Thermal Quantities” led by the renowned expert Prof. Ing. Josef Štětina, Ph.D. This course is designed for everyone who wants to gain in-depth knowledge and practical skills in measuring temperature, pressure, and flow.

What will you learn?

Temperature Measurement:
From basic principles to the most advanced technologies. You will learn how to properly use various types of thermometers and understand how to ensure accuracy and reliability in measurements.
Pressure Measurement:
Explore methods of measuring pressure in different applications. You will gain an overview of techniques and devices used in industry and research.
Flow Measurement:
Learn how to correctly measure the flow of liquids and gases. You will understand different measurement methods and how to select the right one for a specific application.
Thermographic Measurement:
Learn how to use thermal imaging cameras for diagnostics and analysis of thermal processes. You will understand how to correctly interpret thermographic images and apply them in practice.

Why to participate?

Top Expert Instructor: Prof. Ing. Josef Štětina, Ph.D., is a renowned specialist with many years of experience in the field of thermal measurements. His knowledge and practical expertise will provide you with deep insight into this area.
Practical Skills: The course focuses on the practical application of acquired knowledge. You will learn not only theoretical foundations but also practical procedures and measurement techniques.
Modern Technologies: You will become familiar with the latest technologies and instruments used in the measurement of thermal quantities.

Who is the course designed for?

The course is ideal for engineers, technicians, and scientists in technical fields who want to gain deeper knowledge and practical skills in measuring thermal quantities. Join us and acquire valuable expertise that will help take your career to the next level!

Thermal Cycles and Their Modeling

(prof. Ing. Josef Štětina, Ph.D.) Gain expert knowledge of thermal cycles and their modeling with a leading specialist!

Join our prestigious course “Thermal Cycles and Their Modeling” led by the renowned expert Prof. Ing. Josef Štětina, Ph.D. This course is designed for everyone who wants to gain a deep understanding and practical skills in the thermodynamics of thermal cycles and their applications.

What will you learn?

Thermodynamics of Thermal Cycles:
Fundamental principles of thermodynamics applied to thermal cycles. You will learn how to analyze and optimize various thermal cycles.
Thermal Efficiency:
You will understand how to measure and improve the efficiency of thermal cycles. Learn how to identify and minimize losses.
Internal Combustion Engine Cycles:
Detailed analysis of cycles used in internal combustion engines. You will gain knowledge of Otto, Diesel, and other engine cycles.
Gas Turbine Cycles:
Explore the Brayton cycle and other gas turbine cycles. Learn how to optimize the performance and efficiency of these systems.
Steam Power Cycles:
Gain an in-depth understanding of the Rankine cycle and its applications in steam power plants. You will learn how to improve the efficiency of steam systems.
Jet Engines and Compressors:
Discover how jet engines and compressors operate and understand their thermodynamic cycles. You will learn how to model and optimize these systems.

Why to participate?

Expert Instructor:
Prof. Ing. Josef Štětina, Ph.D., is a leading specialist with extensive experience in thermal cycles and thermodynamics. His knowledge and practical expertise will provide you with deep insight into this field.
Practical Application:
The course focuses on the practical use of theoretical knowledge. You will learn how to apply acquired skills to solve real-world problems.
Modern Technologies and Methods:
You will become familiar with the latest methods and tools for modeling and analyzing thermal cycles.

Who is the course for?

The course is ideal for engineers, technicians, and scientists in technical fields who want to gain a deeper understanding and practical skills in thermal cycles and their modeling.

Join us and discover how thermal cycles work, how to model them, and how to optimize them to increase efficiency and performance. This course will provide valuable knowledge and skills to help take your career to the next level!

Strength of Components, Lubrication, and Oil Consumption in Rotating Machinery

Gain expert knowledge in the field of turbochargers, internal combustion engines, and centrifugal compressors!

Join our unique course “Strength of Components, Lubrication, and Oil Consumption in Rotating Machinery” led by the renowned expert Prof. Ing. Pavel Novotný, Ph.D. This course is designed for everyone who wants to gain in-depth knowledge and practical skills in the area of turbochargers, internal combustion engines, centrifugal compressors, and related systems.

What will you learn?

Component Strength Assessment: evaluation of limit states (LS) of elasticity, assessment of high-cycle fatigue failure, assessment of low-cycle fatigue failure
Lubrication of Power Unit Components: types of lubrication, losses and wear,
properties of oils, cavitation
Hydrodynamic Lubrication with Application to Turbocharger Bearings:
lubrication of hydrodynamic bearings, floating ring bearings, thrust bearings,
air bearings, foil air bearings
Gas Blow-By and Oil Consumption in Internal Combustion Engines:
mechanisms of gas leakage (blow-by) in engines and turbochargers, oil consumption in engines and turbochargers, particle deposition on walls

Why to participate?

Top Expert Instructor: Prof. Ing. Pavel Novotný, Ph.D., is a renowned specialist with extensive experience in turbochargers and internal combustion engines. His knowledge and practical experience from both research and industrial applications will provide you with deep insight into this field.

Who is the course for?

The course is ideal for engineers, technicians, and scientists in technical fields who want to gain deeper knowledge and practical skills. The course, including all materials, can be taught both in Czech and English.

Vehicle Dynamics

This course is designed to provide professionals in transport engineering, the automotive industry, and related fields with up-to-date knowledge and skills in vehicle dynamics. Graduates will gain practical abilities that can be immediately applied in their professional career.

Target Group:

Engineers in the automotive and transport industries
Vehicle safety specialists
Technicians and managers in vehicle development and testing
Everyone interested in widening their knowledge of vehicle dynamics

Course Content:

1. Introduction to Vehicle Dynamics
Overview of fundamental concepts and historical development, Review of current trends and innovations in vehicle dynamics, Importance of vehicle dynamics in the context of safety and transport efficiency

Kinematics and Dynamics of Vehicles
Application of fundamental principles to real-world problems, Advanced models for in-depth analysis, Case studies from the automotive industry
Tires and Road–Tire Interaction
Practical applications of tire models, Tools for analyzing road–tire interaction,
Impact on driving performance and safety
Vehicle Stability and Handling
Evaluation of real vehicle stability, Modern driver assistance systems and their influence on dynamics, Testing and validation of active safety systems
Braking and Acceleration Dynamics
Practical aspects of braking and acceleration, Transient phenomena and their impact on the vehicle, Innovations in braking systems
Cornering and Turning Dynamics
Optimization of vehicle handling characteristics, Analysis of critical situations in corners, Influence of chassis systems on vehicle behavior
Vehicle Aerodynamics
Application of aerodynamic principles to modern vehicles, Techniques for reducing air resistance, Case studies of aerodynamic optimization
Modeling and Simulation of Vehicle Dynamics
Introduction to modern software tools, Simulation and prediction of vehicle dynamic behavior, Analysis of results and their practical application
Advanced Technologies in Vehicle Dynamics
Development of autonomous vehicles and their dynamic challenges,
Integration of modern driver assistance systems, Future of vehicle dynamics in the context of sustainability and electrification
Conclusion
Discussion and sharing of practical experience, Presentation of results

Learning Outcomes:

After completing the course, participants will be able to:

Apply the latest knowledge and technologies in vehicle dynamics
Solve real-world problems related to vehicle dynamics and handling
Design and optimize systems ensuring vehicle safety and performance
Effectively use modern software tools for simulation and analysis of vehicle dynamics.

This course enables professionals to remain competitive and respond to rapidly changing demands in the automotive industry.

Development of Control Systems for Modern Internal Combustion Engines and ECU Applications

The aim of this course is to provide professionals with in-depth knowledge and practical skills in the development and optimization of internal combustion engine control systems, including the design and programming of Electronic Control Units (ECUs). The course focuses on current trends, emission standards, energy efficiency, and new technologies in the automotive industry. Upon request, it can also be oriented toward motorsport applications.

Target Group:

Engineers in the automotive industry
ECU developers and programmers
Technicians focused on engine optimization
Specialists in emission standards and engine control

Course Content:

Introduction to Engine Control History and development of internal combustion engines, Principles and types of engines, Basics of engine control and the role of the ECU
Mechanics and Thermodynamics of Internal Combustion Engines Fundamental mechanical and thermodynamic processes, Combustion cycles and their optimization,
Influence of mechanical components on engine control
Electronic Control Units (ECU) Architecture and components of ECUs, Principles of operation and basic programming, ECU development: from prototype to mass production
Sensors and Actuators Types of sensors used in engine control, Integration of sensors into the ECU system, Actuators and their role in optimizing engine performance
Engine Control Strategies Air-fuel mixture control, Combustion optimization and emission control, Modern ignition and injection control systems
Emission Standards Overview of global emission standards (Euro), Emission reduction techniques (EGR, SCR, DPF), Optimization of control strategies to meet emission limits
Modeling and Simulation of Engine Control Simulation of thermodynamic processes, Modeling control algorithms in software (MATLAB/Simulink), Testing and validation in virtual environments
ECU Calibration and Tuning Calibration methods for different driving conditions, Optimization of fuel consumption and emissions, Tuning for high performance vs. efficiency
Modern Technologies and Future Trends Integration of hybrid and electric systems with ECUs, Future of engine control in the context of sustainability, Impact of autonomous vehicles on ECU development
Project Work and Case Studies Design and implementation of a control algorithm for a specific engine, Optimization of control systems, Presentation of results and knowledge sharing

Learning Outcomes:

After completing the course, participants will be able to:

Design and implement advanced control systems for internal combustion engines
Optimize ECUs to achieve higher efficiency and meet emission requirements
Perform engine calibration and tuning in accordance with current standards
Apply knowledge of modern technologies and trends to the development of new engines and control systems

This course offers a comprehensive approach to internal combustion engine control and ECU development, providing professionals with the knowledge and skills needed to maintain expertise at a top level.

The Big Five Powertrains of Motor Vehicles

This course provides a comprehensive overview of the five main types of motor vehicle powertrains. Participants will become familiar with their operating principles, advantages, disadvantages, and future trends in internal combustion engines, alternative fuel engines, hybrid systems, electric drives, and fuel cell technologies.

Target Group:

This is an overview course that enables comparison of different technologies. It is particularly useful for managers making strategic decisions, and it also provides a foundation for further specialization in specific areas.

Course Content:

1. Introduction to Vehicle Powertrains Historical development and current state of powertrains, Overview of key technologies and their importance in the modern world, Economic, environmental, and technological aspects of different powertrains

2. Conventional Internal Combustion Engines Operating principles of gasoline and diesel engines, Modern technologies for performance and efficiency optimization, Emissions, regulations, and environmental impact, Future of internal combustion engines

3. Internal Combustion Engines Using Alternative Fuels Overview of alternative fuels: LPG, CNG, biofuels, synthetic fuels, hydrogen, Modifications and technologies for alternative fuel engines, Advantages and challenges associated with alternative fuels, Practical examples and case studies

4. Hybrid Powertrains Types of hybrid systems: mild hybrid, full hybrid, plug-in hybrid, Design and operating principles of hybrid vehicles, Advantages compared to conventional combustion engines, Market trends and future of hybrid technologies

5. Electric Powertrains Fundamentals of electric motors and battery systems, Charging infrastructure and energy management, Advantages and challenges of electromobility (range, performance, environmental impact), Innovations and future directions in electric mobility

6. Hydrogen Fuel Cell Powertrains Principles of fuel cell operation (hydrogen fuel cells), Hydrogen production, storage, and distribution, Advantages and challenges of hydrogen-powered vehicles, Prospects and potential of hydrogen mobility

7. Comparison and Selection of Powertrains Economic and environmental evaluation of different systems, Selection of appropriate powertrain based on application and operating conditions, Analysis of market trends and their impact on the future of mobility

8. Future of Vehicle Powertrains Impact of legislation and regulations on powertrain development, Role of sustainability and environmental responsibility, Innovations and breakthrough technologies, Future mobility scenarios and integration of multiple powertrain types

Learning Outcomes:

After completing the course, the participants will be able to:

Distinguish between different types of powertrains and their applications
Analyze the advantages and disadvantages of each system in terms of environmental and economic factors
Evaluate future trends and prepare for technological changes in the automotive industry
Propose strategies for integrating modern powertrains into various types of vehicles

This course offers a comprehensive overview of key vehicle powertrain technologies and is designed to equip participants with the knowledge needed to navigate the rapidly evolving automotive industry.

From Burning Lizards to a Fox’s Tail

An Entertaining Journey from Internal Combustion Engines to Electromobility

Lecture Objective:

The aim of this lecture is to introduce a broad audience to the evolution of vehicle propulsion systems, from internal combustion engines to electromobility. It explains why and how we have moved from “burning lizards” (a metaphor for the ancient biological origins of crude oil) to the “fox’s tail” (a reference to the generation of static electricity by rubbing an ebonite rod with a fox’s tail), symbolizing the transition from fossil fuel combustion to modern electric motors and battery systems.

Lecture Content:

1. Introduction: What Does “Burning Lizards” Mean?

An entertaining metaphor for the combustion of fossil fuels (with references to dinosaurs and prehistoric organic matter).
A brief historical overview: from the first steam engines to the first gasoline-powered engines.
How internal combustion engines changed the world and made us the “kings of the road.”

2. The Golden Age of Internal Combustion Engines

The development of automobiles throughout the 20th century: from the Ford Model T to muscle cars.
The cultural impact of internal combustion engines: freedom, power, and speed (iconic brands and models).
The combustion engine as a symbol of progress and modernity.

3. The Dark Side of Internal Combustion Engines: Why We Needed Alternatives

An accessible and engaging discussion of the challenges associated with combustion engines: emissions, dependence on oil, and climate change.
Growing environmental awareness and the first steps toward alternative fuels.
“When the lizards were no longer enough”: the need for change.

4. Back to the Fox’s Tail: Electricity and Its Generation

The history of electricity generation: from rubbing an ebonite rod with a fox’s tail to modern power plants.
How the “fox’s tail” symbolizes the beginnings of our understanding of electricity and the transition to electromobility.
From static electricity to large-scale electrical energy production for transportation.

5. The First Steps Toward Electromobility: Back to the Future

Surprising facts: the first electric vehicles and their forgotten era at the end of the 19th century.
Why electric vehicles failed the first time and what revived them in the 21st century.
The role of visionaries such as Elon Musk in the modern resurgence of electromobility.

6. The Fox’s Tail as a Metaphor for Modern Electromobility

The fox’s tail as a symbol of agility, responsiveness, and intelligence—qualities associated with modern propulsion systems.
Fundamentals of electromobility: how electric motors, batteries, and regenerative braking work.
Advantages of electric vehicles: quiet operation, zero local emissions, and instant torque.

7. Challenges on the Road to Clean Mobility

The electric revolution is not without obstacles: charging infrastructure, battery production, and energy sources.
Discussion of myths and facts surrounding electric vehicles (e.g., their environmental footprint).
Searching for solutions: sustainable energy, battery recycling, and technological innovation.

8. The Future of Electric Mobility: Where Are We Heading?

Visions for 2030 and beyond: autonomous vehicles, smart cities, and electromobility as part of a broader ecosystem.
Possible future transportation scenarios involving combinations of electric mobility, hydrogen technologies, and shared mobility.
What will the next decade of development bring?

9. Conclusion: Are We Ready for the Change?

Summary: from fossil fuels to clean energy—a fascinating look at how far we have come.
Call to action: how each of us can contribute to this transformation.
Questions and answers: an interactive session allowing participants to discuss and ask questions.

Learning Outcomes

Participants will gain:

A fundamental understanding of why society is transitioning from internal combustion engines to electromobility.
Insight into the challenges and opportunities associated with this transformation.
Inspiration to consider how they can contribute to the new era of transportation.

This lecture is designed not only to inform but also to entertain and inspire participants to think about the future of mobility and their own role in shaping it.

Involvement of companies in teaching, expert lectures

Modern education in automotive engineering requires not only theoretical knowledge but also a deep understanding of real-world challenges and industry trends. Involving companies in the teaching process through specialized lectures by industry experts provides students with valuable insight into current developments in the field and helps bridge the gap between theory and practice.

The Importance of Industry Involvement in Education: Expert lectures by professionals from the automotive industry are a key element in preparing students for their future careers. These activities enable students to:

Gain insights into current trends and technologies: Students have direct access to the latest innovations, technologies, and practices used in the automotive industry.
Practical experience: Lectures help students understand how theoretical concepts are applied in real projects and industrial operations.
Build professional networks: Students have opportunities to meet experts, establish professional contacts, and potentially secure internships or employment opportunities.

Opportunities for Industry Involvement:

Expert Lectures and Seminars:
- Companies can contribute through expert lectures covering current topics such as new propulsion systems, autonomous driving, vehicle manufacturing and design, or sustainability in the automotive industry.
- Seminars may focus on specific projects, case studies, or sharing experiences from the implementation of major industrial projects.
Workshops and Practical Training
- In addition to theoretical lectures, companies can organize practical workshops where students work on real-world tasks and challenges. These activities provide deeper insight into technologies and industrial processes.
- Companies may also introduce software tools commonly used in the industry and allow students the opportunity to try them out.
Mentoring, consultations, and topics for master’s and bachelor’s theses
- We offer companies the opportunity to propose topics for Bachelor's and Master's theses.
- Experienced industry professionals can provide mentoring and consultations to students working on their theses.
- In this way, students may benefit from valuable guidance and feedback from experts with extensive practical experience.
Industrial PhD Projects – the highest level of industry involvement in the institute’s research
- Information on doctoral studies and opportunities for company involvement can be found here.
Technical Visits and Company Tours:
- Organizing visits to manufacturing plants, development centers, or testing laboratories enables students to observe theoretical concepts in practice and better understand the complexity of industrial processes.

Benefits for companies: Industry involvement in education benefits not only students but also the companies themselves. Through cooperation with academia, companies can:

Identify and attract talented students who may become future employees.
Increase awareness of their brand among future professionals in the field.
Contribute to the development of education that corresponds to current industry needs.
Participate in shaping new engineers equipped with the knowledge and skills required to address current and future challenges.

How to get involved: If you are interested in participating in education and sharing your expertise with future professionals, please do not hesitate to contact:

If you are interested in participating in education and sharing your expertise with future professionals, please do not hesitate to contact: Ing. Jana Stodolová stodolova@fme.vutbr.cz or prof. Ing. Josef Štětina, Ph.D. josef.stetina@vutbr.cz. Together, we can create lectures, workshops, or mentoring programs that will benefit both students and your company.

Help educate the next generation of engineers and become part of our educational mission!