Open image in new window Fig. 2 Surficial morphology of a, b raw bentonite and c, d Mn2+-modified bentonite.
Fig. 9 Polyaniline with different morphology (a granular b nanotubes) [156].
Figure 5 The microstructure of the optimized varistor morphology, (a) SEM (b) distribution of ZnO grain size.
Figure 1 SEM morphologies of the (a, b) SP and (c, d) MP surfaces.
The surface morphologies of samples A, B, C, and D were measured by PSIA X-100 atomic force microscope (AFM).
The photocatalytic properties of TiO2 and Sn/TiO2 nanorods with different morphology, (a) photoconversion density, (b) photoconversion efficiency.
Morphology (a) and phase (b) maps and two representative linescans taken in the direction orthogonal (c) and parallel (d) to the steps.
As an example, Figure 3 shows two representative linescans taken in the direction orthogonal (c) and parallel (d) to the steps obtained from on the morphology (a) and phase (b) maps for the sample annealed at 1700°C.
Fig. 2 The surface morphology a, modulus mapping b, and adhesion force mapping c of PS-PMMA blends at 298 K; the surface morphology d, g, modulus mapping e, h, and adhesion force mapping f, i of PS-PMMA blends at 548 K; AFM topography of the thickness for PS-PMMA blends under different temperatures: 298 K j and 548 K k.
Open image in new window Fig. 2 Lipase degradation effect on mechanical properties of graft a tensile strength, b modulus of elasticity, c strain, and d mass loss Open image in new window Fig. 3 Lipase degradation effect on the fibers' morphology a before and b after 4 weeks in lipase solution.
