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A Bioreactor to Apply Multimodal Physical Stimuli to Cultured Cells
Author(s) -
Jan-Christoph Edelmann,
L.D. Jones,
Rémi Peyronnet,
Liang Lü,
Peter Köhl,
Ursula Ravens
Publication year - 2016
Publication title -
methods in molecular biology
Language(s) - English
Resource type - Book series
SCImago Journal Rank - 0.711
H-Index - 152
eISSN - 1940-6029
pISSN - 1064-3745
DOI - 10.1007/7651_2016_336
Subject(s) - stimulation , microbiology and biotechnology , cardiac muscle , contractility , myocyte , extracellular matrix , tissue engineering , bioreactor , chemistry , biomedical engineering , neuroscience , biophysics , biology , anatomy , medicine , endocrinology , organic chemistry
Cells residing in the cardiac niche are constantly experiencing physical stimuli, including electrical pulses and cyclic mechanical stretch. These physical signals are known to influence a variety of cell functions, including the secretion of growth factors and extracellular matrix proteins by cardiac fibroblasts, calcium handling and contractility in cardiomyocytes, or stretch-activated ion channels in muscle and non-muscle cells of the cardiovascular system. Recent progress in cardiac tissue engineering suggests that controlled physical stimulation can lead to functional improvements in multicellular cardiac tissue constructs. To study these effects, aspects of the physical environment of the myocardium have to be mimicked in vitro. Applying continuous live imaging, this protocol demonstrates how a specifically designed bioreactor system allows controlled exposure of cultured cells to cyclic stretch, rhythmic electrical stimulation, and controlled fluid perfusion, at user-defined temperatures.

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