PhD projectCells constantly adapt their properties and behavior to their physical environment. At the same time, the extracellular matrix around the cells also adapts to accommodate cell activity. This highly dynamic feedback has been increasingly recognized to play a key role not only in tissue morphogenesis and function, but also a variety of diseases, from cardiomyopathies to cancer. However, attempts to study cell-matrix interactions have so far focused on static experiments. In this project, you will challenge this
status quo by exploring ways to dynamically manipulate the biophysical and biomechanical properties of cells and the matrix on demand.
In the project, the successful candidate will develop innovative approaches to manipulate and monitor cell contractility as well as the physical features of the substrate materials (e.g., ligand distribution, topography) in 2D and 3D environments. You will work at the interface between biophysics, mechanics, smart materials, and bioengineering, by combining quantitative experiments and numerical simulations. Research conducted by the successful candidate will be part of greater and exciting effort aimed at developing a growing in-vitro toolbox for functional tissue engineering, organ regeneration, and disease models.
RequirementsWe are looking for enthusiastic and talented candidates to join our growing and ambitious research team.
- The candidates should have a background in (bio)physics, (bio)chemistry, materials engineering, mechanical engineering, cell biology, or a related field.
- Demonstrable experience with cell and tissue culture, or computational simulations, or cross-disciplinary research is a plus.
- The candidate should be able to effectively communicate scientific ideas, foster collaborations, and have a capability for independent thinking. Moreover, the candidate should be able to work independently within a dynamic team and be proficient in written and spoken English.