A computational study has been performed for several different surface morphologies for a glass/polyethylene material system.
The development of nanoscale morphologies for a molten compressible polymeric surfactant is investigated by using a recently formulated self-consistent field theory.
The study on the synthetic mechanism of IPCNs provides an important guidance for designing superb porous carbon materials possessing desirable pore structures and particle morphologies for a variety of applications.
Since morphologies with a higher fraction of the electrodes in contact with the desirable material show higher short circuit current, we conclude that designing morphologies for a high short circuit current will necessarily lead to reasonably high fill factors.
Figure 2 Indentation morphologies for (a) case 1, (b) case 2, (c) case 3, and (d) case 4. As shown in Figure 3, the evolutions of indentation force with respect to tool penetration distance under wet and dry indentations are compared for the two indentation speeds of 10 and 100 m/s, respectively.
The observation of various morphologies for a single bulk concentration during slow drying indicates that the bulk concentration does not play a major role in the surface-mediated self-assembly of these peptides.
