Till innehåll på sidan
Till KTH:s startsida

MSc Systems, Control and Robotics

The master's programme in Systems, Control and Robotics focuses on the analysis, design and control of robots, autonomous vehicles, and other complex technical systems. It provides broad skills in the field and expertise through specialisations going deeper into areas such as autonomous sensing, AI, machine learning, decision making and control. Graduates face interesting careers, often in the robotics and autonomous vehicles industry, or as PhD students.

Master's programme in Systems, Control and Robotics

Application deadlines for studies starting August 2025

15 October (2024): Application opens
15 January: Last day to apply
3 February: Submit documents and, if required, pay application fee
27 March: Admission results announced

Application open

Start your application today for studies starting August 2025.

Apply now

Systems, Control and Robotics at KTH

The master's programme in Systems, Control and Robotics equips you with the skills necessary to analyse, design and control complex technical systems such as robots and other systems with significant autonomous capabilities. These systems are essential today and will become even more important as new technology enters our workplaces, homes and shared public spaces.

The programme starts with a few mandatory courses that provide a solid foundation in systems, control and robotics, as well as scientific methodology in general. It continues with courses on one of two tracks chosen by the student. In addition to courses associated with the tracks, there are many elective courses within the broad areas of AI, machine learning and control. To be prepared for a diversity of future careers, you will also take a project course of choice, and participate in a seminar series in which an opportunity is provided to reflect on the societal context of systems, control and robotics, such as sustainability and ethics.

The social robotics course DD2413 explores different aspects of human-robot interaction.

Robotics and autonomous systems

This track focuses on autonomous mobile systems that act in a dynamic world, including robots, drones and autonomous vehicles. Such systems need to act rationally based on information from complex sensors such as cameras or laser scanners to achieve both short- and long-term objectives in a changing world.

Learning, Decision and Control Systems

This track focuses on analysing and synthesising of decision and control systems, both model-based, including classical control systems and AI, as well as data-driven systems, with machine learning components.

This is a two-year programme (120 ECTS credits) in English. Graduates are awarded a Master of Science Degree. The programme is given mainly at the KTH Campus in Stockholm by the School of Electrical Engineering and Computer Science (at KTH).

Master degree project

All students complete a degree project, typically during the second half of the second year, upon completing the necessary programme credits. The project may involve work in a relevant industry or a department at KTH, and may be combined with course work. For students who wish to pursue a career in research, the degree project offers an excellent opportunity to develop contacts and the skills necessary to work within a research group. For those students wishing to enter industry, it serves as an important introduction and practical foundation for a career with a prospective employer.

Courses in the programme

The courses in the programme cover topics such as robotics, control theory, artificial intelligence, machine learning and dynamical systems.

Courses in the master's programme in Systems, Control and Robotics

Meet students from the programme

Karen

"When considering KTH, embrace the local culture and the differences you will feel being away from home. KTH is a great place to pursue your passion for robotics as it opens opportunities to dive into many fields. "

Karen from UAE

Magnus

"I was happy to discover that the university offers a wide variety of courses, many of which are practice oriented. After reading about other students' experiences, I was convinced this would be the right university and programme for me."

Magnus from Germany

Webinars for future students

Subject webinar

Watch the recording of our webinar from 14 November to get an overview of all 20 master's programmes within Electrical Engineering and Computer Science.

Future and career

A two-year master's degree in Systems, Control and Robotics rests on a core set of courses in systems, control and robotics and related subjects. It provides the opportunity to utilise a unique cross-section of courses from different disciplines – integrating, for example, Artificial Intelligence, Machine Learning and Control Theory – in order to create a comprehensive education. As systems, control and robotics engineers require extensive training in designing and analysing complex technical systems, this master's programme provides a strong foundation in theory and practice.

After graduation you can expect to take on roles such as control and automation specialist, robotic navigation and perception specialist, AI and machine learning specialist or robotics engineer. Graduates from the programme often end up in the robotic and autonomous vehicle industry, such as ABB and Scania, or as PhD students at KTH and other universities.

Sustainable development

Graduates from KTH have the knowledge and tools for moving society in a more sustainable direction, as sustainable development is an integral part of all programmes. The three key sustainable development goals addressed by the master's programme in Systems, Control and Robotics are:

Sustainable development goal 3. Good Health and Well-Being
Sustainable development goal 8: Decent Work and Economic Growth
Sustainable development goal 9. Industry, Innovation and Infrastructure

It is the strong development in the area of Systems, Control and Robotics that is currently making cars more autonomous, robotic production lines more efficient and safe for human workers, and older adults more independent by providing adaptive robotic assistants. Thus, goal #3 (Good Health and Well-being) is addressed by safer factories and better care. Goal #8 (Decent Work and Economic Growth) is addressed by safer and more efficient factories, and goal #9 (Industry, Innovation and Infrastructure) by a combination of autonomous transport and automated production lines.

Faculty and research

The programme in System, Control and Robotics is given by the School of Electrical Engineering and Computer Science at KTH. The field of Electrical and Electronic Engineering at KTH is currently ranked 23rd in the world by QS. The area of Automation and Control at KTH is ranked 23rd in the world by Academic Ranking of World Universities (ARWU), also known as the Shanghai Ranking. Most courses in the programme are taught by the Division of Decision and Control Systems and the Division of Robotics, Perception and Learning (RPL).

The research projects at the Division of Decision and Control Systems focus on modelling, identification and control of industrial systems and applications in communication, autonomous systems, and system biology.

At the Division of Robotics, Perception and Learning, the research projects focus on topics such as mobile robotics, robotic manipulation and grasping, machine learning, computer vision, mapping and scene understanding, artificial intelligence, robotic planning, robotic control and decision making.

Faculty involved in the programme

Dimos Dimarogonas
Dimos Dimarogonas professor, avdelningschef
Elling W Jacobsen
Elling W Jacobsen professor
Patric Jensfelt
Patric Jensfelt Professor
Jana Tumova
Jana Tumova universitetslektor

Research at the Department of Robotics, Perception and Learning

While there are plenty of robots inside our lab, none is quite like Rosie, who mingles freely with people in the lab’s offices, hallways and kitchen. Built by MetraLabs Robotics, the Scitos G5 model robot is the centerpiece of an international project to create intelligent robots for human environments.

The Smart Mobility Lab

In the Smart Mobility Lab researchers and students develop and test intelligent transportation solutions in simulated traffic situations with remote-controlled model cars. By connecting vehicles with each other and the surrounding traffic system, the research aims at making transportation more energy-efficient and secure. This means for example that trucks can save fuel by decreasing air resistance through platooning or use GPS data to enable goods traffic to take the shortest route to the destination.

​​​​​​​Read more about Smart Mobility Lab

Next step

Apply now!

The current admission round for the programme is for studies starting autumn 2025. Apply before 15 January.

Apply now