Electrical engineering (EE) plays a key role in our society and global economy. It is directly connected to nine out of twelve potentially disruptive technologies listed by McKinsey in 2013: the mobile internet, the internet of things, advanced robotics, autonomous and near-autonomous vehicles, next generation genomics, energy storage, 3D printing, advanced oil and gas exploration and recovery, renewable energy. EE has become increasingly intertwined with other disciplines such as physics, material science, computer science and mechanical engineering, blending in application areas such as energy, healthcare, mobility and transport, safety and security, vitality and sports.
EE DISCIPLINE

Based on the core disciplines in the inner circle, EE is about ‘information and signal processing’ (in the information domain) and power (in the physical domain), and the interaction of these two (yellow circle). The blue circle indicates the basic disciplines of EE. Outside the circles a selection of the many domains of application of EE is provided. Read more about the domains which our departments contribute to.
T-shaped Engineers
The need for electrical engineers in our society is high and will continue to grow in the decades to come. Technologies stemming from electrical engineering will be key to coping with many of the major societal challenges we are facing: providing energy in a sustainable way, securing healthy ageing, and improving living standards for the world’s population. Since these technological innovations are only becoming more complex, it is vital to have people with expert knowledge in the whole area covered by Electrical Engineering. For this reason, our departments educate so-called T-shaped engineers who not only have in-depth knowledge of the discipline, but also have a general knowledge of neighbouring disciplines, who can work in multi-disciplinary teams, and who are also able to communicate and interact with people in a broad range of other disciplines. It is quite a challenge to do this in as little as five years. Read also about our state of the art lab facilities.
where bits meet nature
Right at the intersection of the research institutes MESA+, CTIT and MIRA, we envision the field of electrical engineering as the place where ‘bits meet nature’. In this context ‘nature’ is the real world we live in with physical activity and information. The virtual world of ‘bits’ is related to pure information. From this vision EE takes a central role in almost every modern digital system. You can read more about our impact. Curious to meet our researchers? Read more in the People section. We are proud to work with many research partners in a number of domains.
Research groups
Research in the department is divided into 12 research groups, all contributing to one or more focal areas of the department.
ICD - Integrated Circuit Design
ICD focuses on the design of analogue and RF interfacing circuits with a main application currently in wireless communication. ICD uses industrial available IC technologies, enabling excellent transfer of know-how to industry.
IDS - Integrated Devices and systems
IDS conducts research on materials and devices for upcoming generations of microelectronics, including integration and reliability aspects. This is done in close collaboration with semiconductor equipment industry and integrated circuit manufacturers
NE - NanoElectronics
The NE group studies electronic and magnetic properties of systems with critical dimensions in the nanoregime. The research focus is on brain-inspired and quantum electronics.
RaM - Robotics and Mechatronics
The RaM group is active on both fundamental and application-driven topics in the field of robotics. Modelling, dynamical systems, control, sensors, actuators, real-time (embedded) software, computer vision, and systems design are the research topics.
BSS - Biomedical Signals and Systems
The BSS group headed by Jan Buitenweg and Monique Tabak, performs research (in a home or clinical set-ting) on smart sensing, selective actuation, neuromodulation and persuasive coaching technologies.
BIOS - Lab on a chip
The BIOS bridges the gap between users from physical, chemical, medical and life-science fields and demonstrates the potential of ‘Lab on a Chip’ in biomedical and process industry, environmental applications and organs on chips.
AMBER - Applied Microfluidics for BioEngineering Research
The AMBER group aims at the development of functional devices for pharmaceutical, biological and medical applications through the exploitation of micro- and nanotechnologies, and their combination with biological materials.
PE - Power Electronics
The research in PE focuses on battery electronics, conducted and radiated electromagnetic interference and power electronic packaging as well as on physical layer of communication systems.
RS - Radio Systems
The RS group covers a wide range of topics from designing physical layer for wireless communication systems to signal processing algorithms, radio propagation, channel modelling and antenna design.
DMB - Data Management & Biometrics
The DMB group develops machine learning for Computer Vision, Biometrics, Data Engineering and other fields. This includes autmated understanding of visual information, person recognition and obtaining high quality data for AI.
CAES - Computer Architecture for Embedded Systems
The CAES group conducts research and education in computer architecture and computing systems with a particular emphasis on embedded systems.
DACS - Design and Analysis of Communication Systems
The DACS mission is to contribute to the development of the trusted and resilient Internet that is needed by our society.