Biomedical engineering student conducts an experiment in the lab using pipettes and laboratory equipment.

Bioengineering Technologies

Learn to use living tissues and cells in the development of technologies that can mimic or restore the function of diseased organs or damaged tissues.

How can you develop a heart-on-a-chip that can mimic an actual human heart, paving the way for more effective drug development and (animal-free) testing?  And what about regenerating cartilage for arthritis patients with injectable hydrogels? The specialisation in Bioengineering Technologies focuses on the development of technologies that mimic or restore the function of diseased organs and damaged tissues, such as the heart, the kidney, cartilage and/or blood vessels.

The other specialisations usually focus on developing technologies to analyse or treat tissues or cells, or other parts of the human anatomy. But what’s special about this specialisation, is that those tissues or cells are actually a part of the technological solutions we develop.

Andries van der Meer, associate professor in the Bioengineering Technologies cluster

What is Bioengineering Technologies?

This specialisation is centred on the development and improvement of technologies such as organs-on-chips or tumours-on-chips, implants based on biomaterials and living tissue, and moreover, analysing and testing these technologies to see whether they’re fit for purpose. These technologies can serve to directly promote the recovery or restoration of human cells, tissues or organs, but they can also be used indirectly for innovative medicine development. You will dive deeper into subjects such as applied (stem) cell biology, biomaterials engineering, molecular biology, biomedical science, and tissue engineering.

Examples of courses you will follow during this specialisation:

  • During the course Tissue Engineering, you will engineer liver, skeletal or heart tissue, using a 3D-printed designer construct.
  • The course Biomedical Membranes & Artificial Organs teaches you how to translate clinical needs in bio-artificial kidneys into design criteria for synthetic membranes.
  • Knowledge of cell signalling is essential when it comes to controlling cell behaviour. The course Applied Cell Biology teaches you to design and carry out hands-on experiments on signal transduction in cells, using knowledge from literature and computer models.

Thanks to the close ties with the MedTech industry (including UT’s innovative TechMed Centre) and many of your professors working partially in the clinical field, you will be sure to gain hands-on experience and work on real-life, relevant challenges. You might develop a heart-on-a-chip out of stem cells to model the cardiac side effects of novel cancer medicine, or you could focus on developing bioactive materials that can be integrated into the human body, in order to heal tissues and organs that are damaged (due to age, disease or trauma, for example). And what about contributing to the development of a wearable artificial kidney, enabling patients to undergo dialysis anytime and anywhere? There’s a great variety of challenges you might learn to solve!

Background knowlegde

For the specialisation in Bioengineering Technologies, a strong foundation in cell biology, molecular biology, organic chemistry, and biochemistry is essential. These examples provide insight into the types of background knowledge we typically expect from applicants. They are for illustrative purposes only and do not constitute a formal admission requirement or a guarantee of acceptance.

What will you learn?

In this specialisation, you focus on engineering approaches to living systems. You learn how molecular, cellular, and tissue-level processes can be understood and used to develop new biomedical therapies and regenerative solutions.

Knowledge

After completing this Master’s specialisation, you:

  • understand molecular and cellular processes underlying healthy and diseased tissues;
  • understand biomaterials, tissue–cell interactions, and tissue engineering principles;
  • understand approaches for regenerating, replacing, or engineering biological tissues and functions;
  • can design systems for modeling or replacing human tissue function, including organoids, organs-on-chips and bioartificial organs.
Skills

After successfully finishing this Master’s specialisation, you:

  • can analyse complex biomedical challenges and translate them into engineering solutions;
  • can design, conduct, and critically evaluate experimental and/or computational research;
  • can integrate engineering, biomedical, and clinical knowledge in the development of healthcare technologies;
  • can communicate scientific and technical results to researchers, clinicians, and other stakeholders;
  • can work independently and collaboratively in multidisciplinary and international teams.
Values

After completing this Master’s specialisation, you:

  • are driven to improve healthcare and patient outcomes through engineering innovation;
  • consider ethical, societal, regulatory, and sustainability aspects in your work;
  • adopt a patient- and user-centred perspective in the development of technology;
  • demonstrate scientific curiosity, critical thinking, and commitment to lifelong learning.

Other master’s and specialisations

Is this specialisation not exactly what you’re looking for? Maybe one of the other specialisations suits you better. Or find out more about related Master’s:

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