Biomechanical modelling used to simulate functional performance of skeleton and muscle systems in vertebrates. For studying how tissues respond to mechanical loading during movement, we apply finite element modelling. For studying how muscles interact with skeletal elements, and how they make

Loss of acinar differentiation drives pancreatic cancer. An established human in vitro experimental model is used in our lab to study this process. Pancreatic exocrine cells from human donors are placed in suspension culture in Advanced RPMI medium supplemented with 5% heat-inactivated fetal

The lab routinely use C. elegans culture as genetic model. We explore the development and the ageing of the neuromuscular system. The methods used regularly in our lab include molecular biology, generation of transgenic animals or mutants, crossings, genetic screen, calcium imaging, fluorescence

The Vectra® Polaris™ Automated Quantitative Pathology Imaging System integrates both multispectral imaging and automated slide scanning to better visualize, analyze, quantify, and phenotype immune cells in situ in FFPE tissue sections and TMAs.

In the skillslab, dummy models and simulators are used for teaching various clinical skills such as sutures, injections, … The veterinarians in training start with practising basic skills such as handling animals, and progress over the years to perform more complex procedures on simulators such

Functional cardiomyocytes can be efficiently derived from human pluripotent stem cells, which collectively include embryonic and induced pluripotent stem cells (iPSC). Specific affected biological pathways involved in disease can be functionally studied in differentiated cells at a single patient

The scope of our research ranges from the study of flow and transport processes in blood and biological fluids in the cardiovascular system and artificial organs to biomechanical aspects of the cardiovascular and the skeleto-muscular system and medical devices. All research tracks explored by our

This method describes the steps to go from a liver to a decellularized matrix. It uses mild and strong detergents to destroy cells and keep the extracellular matrix intact. This matrix can then be used for a variety of purposes, including (but not limited to) repopulation, basis for coating and

This method describes the steps from a living rat to a single cell solution of primary hepatocytes. This requires surgery on the lab animal, a perfusion with buffer solution, a digestion with collagenase and a filtration step to obtain primary hepatocytes.

Rat liver epithelial cells (rLEC) can be isolated from 8-day old male Sprague-Dawley rats. Briefly, small fragments of neonatal rat livers are incubated for 15 minutes with 4-(2-hydroxyethyl)-1-piperazine-ethanesulfonic acid (HEPES) buffered trypsin solution [0.25 % (v/v)] and washed twice with