AI-Driven Mechatronics and Robotics (Mechatronics and Robotics Study Track)

This master's study track gives you a deep, engineering-focused understanding of complex mechatronic systems where mechanical engineering, electrical engineering and computer science meet. You will learn to analyse and describe how mechanical, electrical and information-technology components interact within such systems, using scientific methods and rigorous reasoning.

The programme trains you to design, model, build, implement and test mechatronic solutions across a wide range of applications. Emphasis is placed on developing innovative systems by optimising how disciplinary resources are combined, and on applying integrated methods from mechanics, electronics and software engineering to solve real technical problems. You will also gain the ability to plan and carry out independent scientific work, conduct research, and critically evaluate results.

Key competencies you will acquire:

• Deep knowledge of complex mechatronic systems at the interface of mechanics, electrical engineering and computer science
• Ability to scientifically analyse and describe interactions among mechanical, electrical and information-technology components
• Skills in design, modelling, construction, implementation and testing of mechatronic systems
• Capacity to develop innovative mechatronic solutions by optimising multidisciplinary resources for diverse applications
• Independent scientific working skills, including planning and conducting research and critical analysis of results
• Competence in integrating methods from mechanical engineering, electrical engineering and computer science to solve technical problems

Practical notes and programme details:

• Language of instruction: English
• Field: Mechanical Engineering
• Admission requirements and application details: Not specified in the provided description — consult the university’s official programme page for entry criteria, documentation and deadlines.

Over four semesters, the curriculum combines theory and practice to build interdisciplinary expertise in mechatronics and robotics. Core thematic areas include:

• System modelling and simulation of mechanical, electrical and embedded components
• Design and construction of mechatronic systems, including sensors, actuators and drive systems
• Measurement, control and automation techniques for closed‑loop system behaviour
• Integration of information‑technology methods (including AI methods) to optimise system performance
• Experimental implementation and systematic testing of prototypes

Learning outcomes focus on the ability to design and evaluate complex mechatronic systems, integrate methods from mechanical engineering, electrical engineering and computer science, and to carry out independent, scientific research and development tasks. Practical project work and research‑oriented assignments train students to transfer interdisciplinary knowledge into engineered solutions.

Graduates acquire the technical breadth and research skills to work on the design, integration and optimisation of mechatronic and robotic systems. Typical employers include companies in automation, robotics, automotive and aerospace sectors, suppliers of drives and sensors, and engineering consultancies focusing on system integration and control.

The degree also prepares students for R&D roles and provides a solid foundation for doctoral studies in fields that combine mechanical engineering, electrical engineering and computer science.