Sentence examples for engineering facets from inspiring English sources
The specific shear strengths of the reinforced core are more than twice than those of the unreinforced polypropylene cores, increasing the scope of such panels as structural members in various engineering facets.
Engineering crystal facets to enhance their functionalities often require complex processing routes to suppress the growth of surfaces with the lowest thermodynamic energies.
Engineerings of facet exposure, nonstoichiometric defects and morphology are the key parameters affecting the SnO2 performance.
The synergistic effect of crystal facet engineering and the selective deposition of silver nanoparticles on {1 0 1} facets largely enhanced the separation of photogenerated carriers and enriched the presence of photo-generated electrons onto the surface of TiO2 to a net negative-charged surface.
For water reduction, the facet engineering of anatase, rutile, and brookite TiO2 is introduced, as well as some other faceted photocatalysts, Cu2O and CdS; For water oxidation, three most popular photocatalysts, Ag3PO4, BiVO4, and WO3, and their developments in facet control are reviewed, and for overall water splitting, perovskite-type oxides, NaTaO3, and SrTiO3 are briefly summarized.
3D graphene/α-Fe2O3 nanocrystal composites have been inspired by the combination of facet engineering and composite construction.
Crystal facet engineering of semiconductors is proven to be an effective strategy to increase photocatalytic performances.
The synergetic effect of the heterojunction and facet engineering was systematically investigated.
The work demonstrates the importance of crystal facet engineering in nanocatalysis.
Crystal facet engineering and defect engineering are both critical strategies to improve the catalytic hydrogenation performance of catalyst.
The synergetic crystal-facet engineering between mesocrystals and incubated nanocrystals will significantly improve the efficiencies and selectivities of semiconductor photocatalysts.
