Do you want to use a microscope to study cells, but also understand how the microscope itself works? Do you want to design and synthesize molecules that can target specific molecules, cells or organs? What chemical reactions happen in the body when taking medication? Are you looking for a diversity in courses and a multidisciplinary approach to scientific questions?
In this degree programme in Life Science and Technology (LST) you will learn how to find answers to questions like these. This degree programme combines elements from a variety of disciplines, including chemistry, physics, biology, mathematics/computing sciences and pharmacology. You will learn how to use this knowledge so you can look at problems from different scientific angles.
Our lecturers study the intricate details of living organisms, each with their own perspective. If we want to understand signaling through our nervous system, we must understand electricity and charge differences across biological membranes. If we want to make more effective drugs, we have to understand the chemistry involved in creating drugs – and what happens to those drugs in the body.
These are just a few examples of the things we explore. By the
time you start this programme, numerous other new research projects
will undoubtedly have started up. You're bound to find something
that arouses your interest.
CoursesCourse Catalog > |
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Biochemistry for LST |
Biophysics |
Calculus for LST |
Mammalian Cell Biology |
Optics |
Organic Chemistry for Life Science 1 |
Pharmaceutical Analysis A |
Practical Course Optics and Cell Biology |
Principles of Physiology |
Programming for Life Sciences |
Scientific Reading and Communication Skills |
Thermodynamics |
The first year covers basic topics that are essential to the fields of biology, chemistry and physics. You will gain a solid foundation in the principles underlying a wide range of state-of-the-art technologies used in the life sciences and their applications.
The first year starts with courses such as Optics, Biochemistry,
Mammalian Cell Biology and practical courses. In the second year
you continue with courses covering the breadth of the natural
sciences, such as Bioinorganic Chemistry, Spectroscopic Tools, and
Applied Microbiology. During the third year, students can choose
courses from a variety of disciplines to prepare for a Master's
degree programme. These disciplines include pharmaceutical
sciences, biology, chemistry, and physics. You will complete your
Bachelor's programme with a research project in the speciality of
your choice. Outstanding students can deepen and broaden their
knowledge with an additional programme offered by the University of
Groningen Honours College.
You can find a complete overview of all courses on:
https://ocasys.rug.nl/current/catalog/programme/56286
A Bachelor's degree consists of 180 ECTS in total. Credits per
year: 60 ECTS; most courses are 5 ECTS.
wiskunde B + natuurkunde
wiskunde B + natuurkunde + scheikunde
wiskunde B + natuurkunde + scheikunde
Specific requirements | More information |
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language test |
Language proficiency certificate for English (except for applicants with a Dutch pre-university education (VWO) as well as the exemptions listed on the language exemptions webpage). More info: https://www.rug.nl/fse/programme/admissions/bsc/language |
other admission requirements |
Before you apply! When you cannot fulfil the vwo requirement, due to deficient profile or if you want to be admitted on the basis of a successfully passed first year of HBO or colloquium doctum, you need to submit an additional admission request via the Admission Board Bachelor programmes. Please go to this website for more information. Participation in the matching process is a mandatory step within the application procedure. More information about matching can be found via this link. |
The degree programme will organize a matching procedure. Although the advice is not binding participation is compulsory. More information about matching: https://www.rug.nl/fse/education/matching
Type of student | Deadline | Start course |
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Dutch students | 01 May 2025 | 01 September 2025 |
EU/EEA students | 01 May 2025 | 01 September 2025 |
non-EU/EEA students | 01 May 2025 | 01 September 2025 |
More information about matching: https://www.rug.nl/fse/education/matching
Specific requirements | More information |
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previous education |
Secondary education equivalent to Dutch pre-university education (vwo) is required. A list of qualifications that are considered equivalent to pre-university education in the Netherlands can be found here: https://www.rug.nl/education/application-enrolment-tuition-fees/admission/procedures/application-informatie/with-non-dutch-diploma/entry-requirements/bachelor-entry-requirements/vwo-equivalent-qualifications If you have any questions concerning admission to the programme, please contact our Admissions Office: https://www.rug.nl/education/application-enrolment-tuition-fees/contact/ |
additional subject |
Sufficient background knowledge in Mathematics, Chemistry and Physics is required. The Admissions Board will determine whether your background knowledge in these subjects is sufficient to start the Bachelor's degree programme of your choice. |
language test |
You will need to submit proof of English proficiency in accordance with the requirements of the Faculty of Science and Engineering. Please find our English language requirements (exemptions, IELTS, TOEFL, Cambridge and more) on this page: https://www.rug.nl/fse/programme/admissions/bsc/language |
other admission requirements |
Please note! The admissions procedure is independent of the matching procedure. Information about the matching procedure can be found here . |
The Admissions Board will decide whether you can be admitted to the Bachelor's degree programme. Applications are evaluated on a continuous basis. You do not have to wait until the application deadline to apply.
Type of student | Deadline | Start course |
---|---|---|
Dutch students | 01 May 2025 | 01 September 2025 |
EU/EEA students | 01 May 2025 | 01 September 2025 |
non-EU/EEA students | 01 May 2025 | 01 September 2025 |
Nationality | Year | Fee | Programme form |
---|---|---|---|
EU/EEA | 2024-2025 | € 2530 | full-time |
non-EU/EEA | 2024-2025 | € 19300 | full-time |
Practical information for:
During the Life Science & Technology programme, you will develop a scientific way of thinking that you will use to solve practical problems. This analytical perspective is useful in all kinds of work, so you will have plenty of career options after graduating.
After the Bachelor's programme you can move on to one of the Master's programmes in Chemistry, Biomolecular Sciences, Physics, Medical Pharmaceutical Sciences or Energy and Environmental Sciences. Within these Master's degree programmes, you can do research projects or internships in fields that interest you. For better examples of job prospects, check the information offered by Master's degree programmes at FSE.
Academic research
A lot of graduates become researchers, either for a short while or as a long-term career. The type of research will depend on the discipline you specialize in. You can ask lecturers about their own research. They all love what they do and will be happy to help students who are interested in their particular discipline. The research you end up doing will depend on what themes are topical at that moment, and of course what interests you!
Business, Policy, or Education
There are many other options in addition to becoming a researcher. Several Master’s degree programmes can help you prepare for a job outside of academic research. The Science Business & Policy track trains you for a job in a company or a governmental organization. With Science Education and Communication, you can become a teacher or a science journalist.
Both technology and society change rapidly in ways we can’t predict. Chances are that by the time you graduate with a Master’s degree programme, you end up with a job that doesn’t even exist yet.
GBB - Groningen Biomolecular Sciences and Biotechnology Institute
GBB is a center for top-noted research and teaching in biomolecular sciences, hosting the subdisciplines biochemistry, bioinformatics, biophysical chemistry, cell biology, chemical biology, enzymology, genetics, microbiology and systems biology.
The vision of GBB is to conduct transformative fundamental research on biomolecules and cellular systems to allow engineering of genetic circuits, metabolites, proteins/enzymes and cells for discovery and application. Theirresearch impacts upon mankind by providing solutions to urgent societal challenges in (microbial) biotechnology and health.
The twelve research groups in the institute currently center on the two focal areas ‘Molecular Mechanisms of Biological Processes’ and ‘Physiology and Systems Biology’. While the first focuses on generating molecular understanding of biomolecules (genes, metabolites, lipids, proteins) and complex machineries, the second area aims at attaining understanding of microbial (prokaryotic and eukaryotic) and mammalian cells at the systems level. Together they lay the foundation for the understanding of a living cell as well as the engineering of complex molecular and cellular systems or even synthetic cells.
Stratingh Institute for Chemistry
The mission of the Stratingh Institute for Chemistry is to perform excellent research and teaching in molecular and supramolecular chemistry. Core activities in the chemical sciences such as bioorganic chemistry, organic chemistry, molecular inorganic chemistry and molecular materials chemistry are embedded in the institute. The research programme is focussed on synthesis, catalysis, functional materials, bio-organic chemistry/chemical biology and systems chemistry/complex molecular systems.
Zernike Institute for Advanced Materials
The core mission of the Zernike institute for Advanced Materials is to combine physics, chemistry and biology approaches to study how biological and functional materials "work". Several groups focus on biophysical topics: studying how life "works" on the molecular level, but also how things go wrong in the case of disease. Their main driving force is the desire to understand what happens at the microscopic level, down to the molecular and atomic scale (nanoscience). Research topics include the creation of "green" and biomaterials, spectroscopic analysis of the structure and motion of biological molecules, molecular and cellular imaging methods, computer modeling of (disordered) proteins, and studies of self-assembly and aggregation in biology.
GRIP – Groningen Research Institute of Pharmacy
Researchers at GRIP strive to find new and innovative drugs and therapies and wish to improve the use of existing drugs. GRIP’s research ambition is to contribute to the entire field of the pharmaceutical sciences, from basic areas such as chemical analysis and synthesis to pharmaceutical practice and patient-oriented research. Bridging the gap between the fundamental natural sciences (such as chemistry and physics) and the medical/clinical sciences in the field of medicinal products is one of the core activities of the institute. Knowledge from different research disciplines is combined in the design and evaluation of optimal drugs, products and therapies that are being made available to society. Our research is of high societal impact with several drugs or related products developed in-house on the market or in clinical trials, several spin-offs, a strong portfolio of patents and research that contributes directly to healthcare policy making.
The programme combines courses and aspects from the complete range of natural disciplines
I decided to study Life Science and Technology, because of its interdisciplinary character. This entails basically that it combines courses and aspects from the complete range of natural disciplines. So, you will follow in your first two years courses covering all kinds of topics, where one may be more biology focused while another course may be chemistry oriented. For me this was ideal at the time since I did not yet fully know what fields I liked most and wanted to pursue. The first two years allowed me to figure out my own interests.
Currently, I am in my third year and doing the specialization Molecular Life Science which mostly combines chemistry and biology. I am really interested in all the chemical processes going on in the human body that allow it to function as it does. So, really focusing on the molecular interactions that occur between proteins and ligands. Before I started my specialization, I followed an introductory minor in Philosophy. Compared to LS&T this was something completely different, yet I found it a very interesting and inspirational half-year. So, I decided to also continue with the Bsc. Philosophy of the Life Sciences, which hopefully will allow me to apply a philosophical perspective to issues in the life sciences.
After my specialization, I am planning to continue my studies in the masters Biomolecular Sciences and Biology. In the Msc. Biology, I will follow the Science, Business and Policy track which among other things includes a half-year internship at a biotechnological consultancy company. In this way, I hope to be able – after my studies - to combine my academic skills and enthusiasm in a more business-focused environment.
The variety in courses prevents boredom and creates diversity
I decided to study Life Science & Technology because I’m interested in the world of science. I think it’s super cool and fascinating how our body is composed of cells and even smaller; molecules that can form such a complex organism which can move, think and feel. I enjoyed math and chemistry in high school, biology was interesting most of the time and physics I either hated or loved depending on the subject. Now that I am in my second year of LST I know better where my interests lie, although I am still unsure what master’s I want to pursue after my degree. Luckily there are still many directions I can choose from since LST is so broad and interdisciplinary!
This year we started with a biology- and chemistry-related course (applied microbiology and bioinorganic chemistry) and also followed a three-week lab course, which was super fun! The second block consisted of more physics-/math-related courses. The variety in courses prevents boredom and creates diversity. Every student in our degree has different specialities and qualities which creates this great opportunity to work together and learn from each other. Besides the scientific knowledge I have acquired so far, I’ve also learnt to step out of my comfort zone, to not be afraid to speak up and to actively participate in class (which I am still struggling with sometimes, to be honest).
Nobel prize-winner Ben Feringa recently mentioned in an interview he started studying again from a biomedical book, just like first years, so he better understands ‘the language’ of researchers in the medical field*. This felt like a confirmation to me of the value of our interdisciplinary bachelor. At the interface of different scientific fields, many awesome discoveries are still yet to be made!
*[ https://www.npostart.nl/het-wetenschappelijk-jaaroverzicht-2022/23-12-2022/BV_101408971 ] (at 40:55)
Life Science and Technology perfectly intertwines vast theoretical knowledge with valuable practical laboratory work and scientific writing skills.
Science has played a key part in my life for as long as I can remember, however it was only in high school that I actually found a true passion for Mathematics, Chemistry and Biology. I knew I wanted to help people further on in my career, but I was not inclined towards becoming a doctor or going into one scientific field in particular. This is why, for me, studying Life Science and Technology at the University of Groningen felt like a perfect fit, since it is such a broad English taught bachelor's programme that perfectly intertwines vast theoretical knowledge with valuable practical laboratory work and scientific writing skills.
Considering LS&T encompasses courses from all the fields of science, I was expecting it to challenge me at times and was concerned about adapting to a more self-study approach and to cultural factors related to the Dutch higher education system. Luckily, despite the hardships I’ve encountered, I've also been greatly surprised by how everyone in university, from staff to fellow students, has always happily helped me understand and apply concepts we use in Organic Chemistry or Microbiology or even Quantum Mechanics.
After graduation, I'm thinking of doing a masters in a field that combines drug development with either neuroscience, immunology or genetics. They are all fields I'm passionate about and good entry points for the research I want to pursue in the field of neurodegenerative or autoimmune diseases.
Besides my studies, I'm active in the life sciences’ study association, GLV Idun, chairing the Career Committee in organizing various events throughout the year. I'm also working a couple of jobs part time and desperately trying to make time to go to the gym.
Overall, I consider student life to be a great and challenging time of one’s life, and doing Life Science and Technology at the University of Groningen has certainly helped me grow as both a (future) professional, but also as a person who can be independent, manage their time right, study efficiently and have fun with my friends.
You can design your own experiments
There is still so much to discover
I currently work as a PhD student in the Molecular Microbiology group, under the supervision of Dr Billerbeck (billerbecklab.com). During my undergraduate studies, I followed course units in general subjects such as ecology, maths, biochemistry and genetics, plus a Minor in medicine, and I found myself intrigued by immunology and microbiology.
I took part in the IGEM competition and started to develop an interest in synthetic biology and biotechnology. I really enjoyed all the research internships during my Master’s degree programme Medical and Pharmaceutical Drug Innovation, so I knew I wanted to continue in that direction.
We work with killer toxins. These proteins are produced by yeast, which likely helps to compete for nutrients by killing other yeast and fungi in its environment. Killer toxins are interesting for many reasons, one particular reason being the rise in antimicrobial resistance, which urges the need for novel effective antimicrobial compounds. Some killer toxins can kill important human pathogens, such as Candida glabrata, and may be helpful in fighting these infections in the future. We isolate yeast from the environment to find novel killer toxins, investigate the properties, activity and function of these toxins, and use directed evolution to engineer them.
When I arrive at work in the morning, I usually check whether the yeast or bacteria for my experiment have grown, or I analyse the results of experiments carried out the day before. We meet weekly to discuss our results and to help each other solve any problems we may have come across. I spend part of the day in the lab, doing experiments, and part in the office, analysing the data on the computer or planning new experiments.
It is amazing to see how life works at the molecular level, and there is still so much to discover about the world that we live in! Hopefully, what we learn will help us to build a better and more sustainable world. We have the freedom to follow our curiosity, to come up with hypotheses and to try them out in the lab. I like how my work is both theoretical and practical. Sometimes, when you encounter problems during experiments, it takes some time to figure things out – but with a little patience and perseverance, we are usually able to solve any challenges together.
Questions that intrigue me
I chose this degree programme because I am interested in how life works. How did we develop? How will we continue to evolve? These are the questions that intrigue me. In addition, I really enjoyed studying biology in secondary school, especially the internal processes of cells and animals. By following this degree programme, I was able to continue to learn about bodies and evolution whilst also gaining all the skills required to become a successful scientist and researcher.
The objective of the Life Science and Technology degree programme is to understand life. An interest in all living things can take you far. Since this programme comprises course units from many different disciplines, there will always be at least one course unit per semester that you will really like.
LST is a very, very technical take on the natural sciences. It
is much more than just biology, chemistry, or physics. Most of the
course units that are taught in the programme are organized by
other degree programmes at the Faculty of Science and Engineering,
but are then modified to some extent. This means that the cell
biology course unit that you might follow might be mostly similar
to the one taught to biology students, but the course unit on
optics will lay more focus on practical applications (microscopes)
than an average physics student might ever need. Most often, the
course units will be intertwined and combined to create something
with a practical outcome.
General impressions aside: this degree programme is very
interesting. In my opinion, it is definitely one of the harder
programmes offered at the moment. Not because the course units are
too difficult or the lecturers do not provide proper explanations,
but because you have to be good at everything.
Being a student can mean so much more than just studying
Hello! My name is Thomas Westerhuis, I am a 22-year-old student and I have been living in Groningen for four and a half years. I started studying at the Hanze University of Applied Sciences, where I did the Bachelor's programme in Biology and Medical Laboratory Research.
During those years, I developed a love for the complexity that life has to offer. The unlimited processes that need to work together flawlessly to keep the biological cell functioning have always inspired my awe and wonder. Based on these interests, it was only natural to start the Life Science and Technology programme at the University of Groningen.
Besides studying, Groningen has a lot of different aspects to offer to give you a full student life. During your studies, you can embark on various social, sport, or other activities which allow you to meet a lot of different people. As for me, I became enthused by GLV Idun, the study association for the Biology, Biomedical Engineering, and Life Science and Technology programmes. This year I became part of the board as chair of the association. As chairman, it is my job to manage the association and the board. My main occupation is making sure that the day-to-day tasks are fulfilled, but I also ensure that we reach the goals set in our policy, and make sure that we keep track of our long-term vision.
I would recommend that you become active during your time at the University, as being a student can mean so much more than just studying. Whether you join a committee, a board, or a student assistantship at the University. Judging from my own experience, such positions can greatly benefit your personal, social, and organizational skills. Above all, I want to emphasize that it is also a lot of fun to take these kinds of responsibilities.
Aan het einde van je eerste studiejaar krijg je een bindend studieadvies. Je krijgt een positief studieadvies als je minimaal 45 ECTS hebt gehaald (op een totaal van 60 ECTS; de meeste vakken zijn 5 ECTS). Bij een negatief studieadvies (minder dan 45 ECTS) mag je helaas niet doorgaan met de opleiding.
Om ervoor te zorgen dat je precies weet waar je staat, krijg je al in december een voorlopig studieadvies. Heb je vragen over het bindend studieadvies of over je studievoortgang, neem dan zo snel mogelijk contact op met je studieadviseur.