This research project is devoted to understanding how mechanical force is transmitted through intracellular structures (cytoskeleton) and how the intracellular biochemical signal elicited mechanically can be efficiently modified. More
This research project investigates novel stent designs for the treatement of atherosclerosis. The goal is to develop drug-eluting stents that allow for re-endothelialization while effectively prevent re-stenosis. More
An increasing body of evidence suggests that the immune system actively participates in the initiation, progression and persistence of atherosclerosis. Much conjecture exists about how monocytes are recruited specifically to the sites of perturbed flow. Here we study the influence of shear stress on the adhesion between immune cells and the endothelium. More
A particularly promising idea to treat atherosclerosis is the use of nanoparticles as cargo vehicles for targeted delivery of anti-inflammatory agents. We aim to understand interactions of nanoparticles with cellular surfaces, and how flow modulates these interactions. More