Artificial Organs · 2002 · 99 citations · 16 references
EngineeringBioengineeringBiomedical EngineeringBiocompatibilityBioreactor DesignTissue EngineeringBiofluid MechanicsBiomaterials For Tissue EngineeringCardiac Tissue EngineeringCardiovascular BiomechanicsCell Culture BioreactorsHemodynamicsAortic BiomechanicsAortic Tissue BiomechanicsBiomechanical LoadingBiomechanical ResponseMaterial BiocompatibilityPulsatile FlowValve MechanicsValves
Evidence has been gathered that biomechanical factors have a significant impact on cell differentiation and behavior in in vitro cell cultures. The aim of this bioreactor is to create a physiological environment in which tissue engineered (TE) aortic valves seeded with human cells can be cultivated during a period of several days. The bioreactor consists of 2 major parts: the left ventricle (LV) and the afterload consisting of a compliance, representing the elastic function of the large arteries, and in series a resistance, mimicking the arterioles and capillaries. The TE aortic valve is placed between the LV and the compliance. With controllable resistance, compliance, stroke volume and frequency, and hydrodynamic conditions can be changed over a wide physiological range. This study resulted in a prototype of a compact pulsatile flow system for the creation of TE aortic valves. In addition a biocompatibility study of the used materials is performed.
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Functional Arteries Grown in Vitro
Laura E. Niklason, Jinming Gao, William M. Abbott et al. · Science · 1999 · 1.8K citations
A completely biological tissue-engineered human blood vessel
Nicolas L’Heureux, Stéphanie Pâquet, Raymond Labbé et al. · The FASEB Journal · 1998 · 1.3K citations
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Simon P. Hoerstrup, Ralf Sodian, Sabine Daebritz et al. · Circulation · 2000 · 591 citations
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Medicine, Bioengineering, Cardiology +10