Specialisations
The Master's Programme in Life Science Technologies offers five majors. You can choose any of these if you have the necessary background in mathematics, natural sciences and computational sciences. You’ll select your major when you create your personal study plan at the beginning of your studies.
Life Science Technologies majors
Bioinformatics and Digital Health
The major covers a wide range of topics in bioinformatics and data science. This major, which requires a strong background in mathematics and computer science (incl. programming), provides you with a comprehensive knowledge of probabilistic modelling, machine learning, data science, and modern artificial intelligence. You will graduate from this major with the skills to develop new computational methods and models and apply them to real-world biomolecular and health data.
The major is designed to build strong competencies in:
- data science and machine learning,
- skills for developing new computational methods and models, and
- applying them to real-world biomolecular data.
Browse the curriculum and courses included in Bioinformatics and Digital Health.
Biomedical Engineering
The major builds physics, data science, and technology to understand, measure, model, and influence biological and physiological systems. The major gives students a foundation in the physical principles of living systems, biomedical measurement technologies, signal and data analysis, modelling, and scientific inference. Students learn to connect biological mechanisms with engineering methods and to develop, evaluate, and translate biomedical technologies for research, healthcare, diagnostics, treatment, monitoring, rehabilitation, and digital health.
The major prepares students for diverse career paths in research, medical technology, health technology industry, product development, and further doctoral studies. It emphasizes both strong quantitative foundations and the ability to apply them responsibly in multidisciplinary settings where engineering solutions must meet scientific, clinical, user, and societal needs.
After completing the major in Biomedical Engineering, you will be able to:
- characterize biological and biophysical systems using conceptual, quantitative, and computational models
- explain how physical principles enable and constrain the structure, function, measurement, and modulation of biological systems
- acquire, analyse, and interpret biomedical signals and data using appropriate methods of signal analysis, modelling, and scientific inference
- evaluate biomedical engineering methods and technologies in relation to scientific evidence, usability, and healthcare needs
- deepen your expertise in selected areas of biomedical engineering, such as biomedical imaging, biosignals, neurotechnology, medical devices, digital health, or computational modelling
- apply biomedical engineering knowledge in research, development, and innovation in academic, clinical, and industrial settings
- contribute to the translation of research findings into biomedical technologies, products, services, or clinical workflows.
Browse the curriculum and courses included in Biomedical Engineering.
Biosensing and Bioelectronics
The major will make you an engineering expert in the detection, processing and analyses of biosignals – and you’ll be taught the knowledge you need to develop innovations in the field of biosensors and bioelectronics.
Students in the Biosensing and Bioelectronics major are introduced to:
- nanoscale phenomena,
- microfabrication techniques,
- biomaterials science,
- biochemical recognition of biomolecules,
- physical transducers,
- sensor technologies, and
- clinical equipment like medical imaging.
Browse the curriculum and courses included in Biosensing and Bioelectronics.
Complex Systems
The major is a transdisciplinary research area that builds on statistical physics, computer science, data science, and applied mathematics. The major in Complex Systems provides you with the tools to understand systems with large numbers of interacting elements – from the human brain to social networks, and from living to technological systems. Studies in Complex Systems provide you with a systems-level understanding together with hands-on experience in data-intensive research. This interdisciplinary major is suitable for students from different backgrounds (like physics, bioinformatics, or computer science), and you can choose to emphasise computational data analysis, theory, or application areas according to your interests and career aspirations.
The set of tools in the curriculum includes:
- network science,
- nonlinear dynamics,
- statistics and stochastics, and
- machine learning, together with
- the fundamentals of dealing with empirical data and computational data analysis.
Browse the curriculum and courses included in Complex Systems.
Human Neuroscience and Technology
The major will educate you in the structure and function of our most complex organ – the brain – as well as in the methods to measure and influence brain activity on multiple spatial and temporal scales. The teaching draws from the world-class research conducted at the Department of Neuroscience and Biomedical Engineering on electrophysiology, systems-level neuroscience, cognitive neuroscience and neurotechnologies such as brain imaging and brain stimulation. The bridge towards clinical applications is an integral part of this major.
The curriculum emphasises experimental science. Although regular lecture and course work is also required, some of your studies will take place in small groups under the guidance of senior scientists. The teaching faculty consists of recognised scientists that study e.g. human sensory functions, cognitive functions, brain–computer interfacing and develop brain imaging and stimulation technologies. The curriculum reflects their research.
The aim of the Human Neuroscience and Technology major is to provide you with:
- a profound understanding of the structure and functions of human brain,
- a deep insight into brain research methods and instrumentation, and
- an overview of other neurotechnologies.
Browse the curriculum and courses included in Human Neuroscience and Technology.
Teaching methods
Gaining practical expertise in the latest life science technologies is essential for preparing to work at the forefront of life science related research and technology development, therefore practical exercises and group work will make up a significant part of your studies.
All the majors combine lectures, seminars, visits, multidisciplinary projects, peer working and individual projects. Teaching varies from contact sessions and face-to-face meetings to e-learning.
You’ll build a strong methodological foundation that will remain relevant despite the continuous evolution of existing technologies and the emergence of new ones. You’ll graduate with in-depth knowledge and expertise in the major of your choice, along with a broad view of the topics covered by the whole programme in the joint studies.
More information on the programme content and curriculum can be found in the Student Guide.