Synthesis, structural and optical properties of ZnS–ZnO nanocomposites

Highly responsive and selective ozone sensor based on Ga doped ZnS–ZnO composite sprayed films

“…This indicates that the gallium doping improves the crystal structure of the lms, resulting in an increase in the diffraction peak intensity. As consequence, these ndings suggest that the samples have polycrystalline character and can be identied as ZnO-ZnS composite, which is in agreement with the work of Ali et al 9 Structural parameters such as crystallite size D, dislocation density d and microstrain 3 were estimated from the XRD proles for the preferred orientation (002).…”

“…5 With a wide bandgap ranging from 3.54 to 3.91 eV and from 3.37 to 3.72 eV for ZnS and ZnO respectively, heterostructures of these compounds are candidates for ultraviolet lasers and detectors. 6,7 In the literature, ZnS/ZnO compounds have been reported to be fabricated by different methods, such as: ZnS/ZnO heterostructures synthesized via a simple thermal evaporation method, 6,8 ZnS-ZnO nanocomposites through the hydrothermal route, 9 coaxial nanowires and hierarchical nanowires by chemical bath deposition and chemical etching processes, respectively, 10 and ZnS/ZnO lms via pulsed laser deposition. 11 In another study, 12 ZnS/ZnO:Mn layers were prepared by thermal suldation of ZnO:Mn lms deposited on a Si substrate with an RF magnetron sputtering technique.…”

Design of 3‐aminophenol‐grafted polymer‐modified zinc sulphide nanoparticles as drug delivery system

“…The XRD data of 3‐aminophenol‐grafted AGE/ZnS nanoparticles exhibit the zinc blende structure with cubic phase. The crystal planes of (111), (220), and (311) of zinc blende structure were obtained at three broad bands with 2θ values of (28.75), (48.17), and (56.69), respectively [ 1 , 27 ].…”

Plasmonic Solar Energy Harvesting by ZnO Nanostructures and Their Composite Interfaces: A Review on Fundamentals, Recent Advances, and Applications

“…Figure 11 illustrates how the formation of an n-p heterojunction modifies the charge transfer mechanism in ZnO nanorods when ZnS is deposited on the surface of ZnO. [128][129][130] The ZnO@ZnS composite is observed to be one of the most effective composite photocatalysts for H 2 production. However, due to fast recombination of charge carriers, it has achieved limited photocatalytic efficiency till now.…”