Lee-Thedieck, C., Rauch, N., Fiammengo, R., Klein, G. & Spatz, J. P. Impact of substrate elasticity on human hematopoietic stem and progenitor cell adhesion and motility.
Petersen, A., Joly, P., Bergmann, C., Korus, G. & Duda, G. N. The Impact of Substrate Stiffness and Mechanical Loading on Fibroblast-Induced Scaffold Remodeling.
The combined feeding strategy can effectively reduce the impact of substrate inhibition and improve MPA productivity.
The impact of substrate impurities, especially S content, was significantly reduced for β-NiPtAl coatings at all temperatures.
The physical cues that guide functional cell alignment in vitro and the impact of substrate-imposed alignment on cell phenotype, however, are only partially understood.
The present work evaluated the impact of substrate properties, in particular morphology, chemical surface composition and mechanical properties, on muscle cell fate.
Soil microcosms were constructed and monitored to evaluate the impact of substrate addition and transient aerobic and anaerobic conditions on TNT, RDX and HMX biodegradation in grenade range soils.
While the impact of substrate topographies at nano- and microscale on bone cell behavior has been particularly well documented, very few studies have analyzed the role of substrate closure at a tissular level.
Our work aims at knowing the impact of substrate mechanical properties on those adhesion and motility mechanisms by modifying bulk rigidity, surface energy and composition of a bio-compatible poly-di-methyl-siloxane (PDMS) substrate.
Moreover, at fixed catalyst formulation, the impact of substrate morphology and thermal conductivity was addressed by direct comparison of honeycombs with several cell densities (cordierite 200 1200 cpsi) and two solid materials (cordierite vs. SiC).
