However, as shown in Fig. 3d, the flower-like architectures of SbBiS3 have a highly regular sphere-like morphology, which is obviously different from that of Sb1.6Bi0.4S3.
It is seen that all the samples present regular sphere-like particles without any adhesive behavior, and the average particle size is ~85 nm.
SEM images in Fig. 7c shows that the UHMWPE/GO-SiO2 composite granules have uniform size, good dispersion, and regular sphere-like shape.
Morphologic investigation demonstrated that the microcapsules presented regular spheres with a well-defined core shell structure.
For regular spheres, the saturation concentration corresponds theoretically to a random packing.
The resultant microcapsules showed the regular spheres with a well-defined core-shell structure and a silver outer layer.
The scanning electron microscopic investigation indicated that the resultant microcapsules presented the regular spheres with a smooth surface and a uniform size distribution, while the transmission electron microscopy showed a well-defined core shell structure for these microcapsules.
Although the Al2O3 powder has a broad size distribution covering ~0.5-1μm ~0.5-1μm3 pandicles Al2O3ot regular sparticleshis trend follows the generarebehavior expected from Mie theory; notely, that the regular spheresing coefficienthis proportrendl to scatterer concentration.
The average porosity is in agreement with the theoretical porosity for rhombohedral and cubic packing of regular-sphere grains, which is 25.96 and 47.64 %, respectively.
Finite element results well predicted deformation mechanism of structures and plastic properties of regular hollow sphere samples especially for plateau stress with less than 12% relative error.
