van den Cn Chantal Broek
Eindhoven University of Technology
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by van den Cn Chantal Broek.
Biorheology | 2008
van den Cn Chantal Broek; Raa Rolf Pullens; O Frøbert; Mcm Marcel Rutten; Den Wf Hartog; van de Fn Frans Vosse
Physiological wall shear rates and stresses in vessel culture or tissue engineering are relevant for maintaining endothelial cell (EC) integrity. To this end, the culture medium should have an appropriate viscosity. The viscosity of a standard culture medium was increased using xanthan gum (XG) and compared with literature data on whole blood, resulting in a medium with blood-analog shear-thinning behavior (XG-medium). The measured osmolality of the XG-medium was 285+/-2 mOsm kg(-1), which is within a physiologically acceptable range. The XG-medium was compared to standard medium to verify whether XG alters vascular cell function. First, the effect of XG on the growth of human EC monolayers was determined. In addition, to study whether XG changes drug-induced vasoconstriction or endothelium-dependent vasodilation, different drugs were administered to porcine coronary artery rings in a solution with or without XG, measuring the isometric force developed. XG did not influence EC growth, nor did it change drug-induced vascular tone. Moreover, the ECs aligned in the direction of flow after 24 h of physiological shearing with XG-medium. We conclude that, unlike standard culture media, XG-medium as a blood-analog culture medium has rheological properties suitable for use in vessel culture and tissue engineering to induce physiological wall shear stresses at physiological flow rates.
ASME 2007 Summer Bioengineering Conference | 2007
van den Cn Chantal Broek; Mcm Marcel Rutten; O Frøbert; van de Fn Frans Vosse
Culture of arteries has become increasingly important in studying atherosclerosis and the effect of clinical interventions [1]. Ideally, arterial culturing should imitate in vivo conditions within an ex vivo environment. Physiological wall shear stresses are important as they induce an atheroprotective endothelial phenotype [2], which is relevant for maintaining arterial wall integrity. The arteries in such ex vivo studies, however, are perfused with culture medium, which has a viscosity lower than blood. Previously, the culture medium has been supplemented with dextran to obtain physiological fluid viscosity and wall shear stresses. However, several researchers [3,4] reported side effects of dextran on the cells in the arterial wall independent of its effect on medium viscosity. Also, dextran increases medium osmolality to supraphysiological levels [5]. This suggests that dextran may not be the optimal substance to increase medium viscosity.© 2007 ASME
Mechatronics | 2010
van den Cn Chantal Broek; J Nieuwenhuijzen; Mcm Marcel Rutten; van de Fn Frans Vosse
Archive | 2009
van der A Arjen Horst; van den Cn Chantal Broek; Mcm Marcel Rutten; van de Fn Frans Vosse
Archive | 2009
van den Cn Chantal Broek; van der A Arjen Horst; Mcm Marcel Rutten; van de Fn Frans Vosse
Journal of Physics D | 2009
van den Cn Chantal Broek; van S Sjoerd Tuijl; de J Jürgen Hart; Mcm Marcel Rutten; van de Fn Frans Vosse
Archive | 2008
van der A Arjen Horst; van den Cn Chantal Broek; Mcm Marcel Rutten; van de Fn Frans Vosse
Phytochemistry | 2007
van den Cn Chantal Broek; Mcm Marcel Rutten; van de Fn Frans Vosse
Archive | 2007
van den Cn Chantal Broek; van S Sjoerd Tuijl; Jma Marco Stijnen; Mcm Marcel Rutten; van de Fn Frans Vosse
1st Dutch Biomedical Engineering Conference | 2007
van den Cn Chantal Broek; Mcm Marcel Rutten; van de Fn Frans Vosse