In contrast, the molecular mobility increases with the temperature and reduces the dynamic stiffness [16].
Today's challenge lies in obtaining information about the molecular mobility, in particular, in thin organic structured or unstructured films.
In this way it is possible to compare the molecular mobility in both states.
It is found that the conformations of the PS chains in the ⊖ (C6H12) and good (CCl4) solvents affect the structures of adsorbed PS on the silica surface and the molecular mobility decreases with increasing PS-silica interaction.
In these cases, the coordination bonds were absent and, contrary to DEG, the molecular mobility of the polymer chains increases.
Glucose starvation resulted in a reduction in the biofilm molecular mobility.
Increase of viscosity in the noncrystalline phase results in the decrease of molecular mobility.
Considerable decrease of molecular mobility in the filled systems is detected above 235 K as a result of the decreased entropy of the adsorbed segments.
As molecular mobility increases, the thermodynamic driving force decreases, and the increase in molecular mobility leads to crystallization.
An accompanying decrease in the electrophoretic mobility and smear towards higher molecular size ranges from 65 to 98 kDa was noted, indicating a higher level of glycoaldehyde-mediated modifications.
