pH-responsive behavior was verified by in vitro Dox release from hydrogels in PBS solutions with different pH values.
A parametric finite element model of the CCAFP was created to analyze the force-deflection and strain-deflection relationships and the predicted behavior was verified by experiment.
The pH-responsive behavior was verified by drug release from hydrogels in PBS solutions with different pH values (pH = 7.4 or 5.5) in an in vitro model.
This possible explanation for this behavior was verified by Andronic et al. [38] who reported that, for increasing initial dye concentrations, more organic substances are adsorbed on the surface of TiO2, while fewer photons are available to reach the TiO2 surface and, therefore, less hydroxyl radicals are formed, causing a decrease of the degradation efficiency.
At the phenotypic level, correlative links between worker ovary size and foraging division of labor were confirmed repeatedly in wild type and selected pollen-hoarding strains (see above, [7]), and effects of Vg on foraging behavior was verified by Vg knockdown [11].
The flexural behaviors were verified by comparing with predictions from a proposed model considering the confinement effects.
This behavior is verified in Fig. 8.
The potential ability of different hyperelastic constitutive equations (Neo-Hookean, Yeoh, and Mooney Rivlin) to define the nonlinear mechanical behavior of hydrogels is verified by finite element (FE) simulations.
