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ZnO nanostructures – Future frontiers in photocatalysis, solar cells, sensing, supercapacitor, fingerprint technologies, toxicity, and clinical diagnostics

Coordination Chemistry Reviews, ISSN: 0010-8545, Vol: 515, Page: 215942
2024
  • 22
    Citations
  • 0
    Usage
  • 54
    Captures
  • 1
    Mentions
  • 0
    Social Media
Metric Options:   Counts1 Year3 Year

Metrics Details

  • Citations
    22
  • Captures
    54
  • Mentions
    1
    • News Mentions
      1
      • News
        1

Most Recent News

Studies from King Saud University Add New Findings in the Area of Nanostructures (Zno Nanostructures - Future Frontiers In Photocatalysis, Solar Cells, Sensing, Supercapacitor, Fingerprint Technologies, Toxicity, and Clinical Diagnostics)

2024 NOV 25 (NewsRx) -- By a News Reporter-Staff News Editor at Middle East Daily -- A new study on Nanotechnology - Nanostructures is now

Review Description

Zinc is the most abundant and broadly studied metal oxide semiconductor. Its photophysical properties include optical, electrical, magnetic, catalytic, sensing, energy storage, antibacterial, anti-oxidant, and drug delivery applications have been extensively explored. Tunable morphology, high specific surface volume, optically active, and large excitonic energy distinguished from the respective semiconductor metal oxides. Therefore, novel characteristics of ZnO NPs were applied in a broad variety of uses in technology development as well as clinical diagnostics. Morphology, size, surface charge, surface functionalization, and doping cations/anions in the ZnO crystal lattice have been explored which play a significant impact on their functionality. Formation of hybrid heterojunction of ZnO with lower bandgap energy materials to accelerate the photo-generating electron-hole pairs. The production of reactive oxygen species (ROS) is crucial for catalytic and antibacterial/anticancer processes. Toxicity of the ZnO NPs also discussed, in which 1D nanostructured ZnO NPs have large specific surface areas resulting in greater interaction with cell membranes producing higher mobile Zn 2+ species or free radicals facilitating apoptosis reaction. An appropriate configuration between ZnO and lower bandgap semiconductors to form (p-n or n-n) heterojunction reduces losses of electrons during the irradiation and enhances the absorption of light which is necessary for the outstanding performance of ZnO photocatalyst. More research is needed to improve the migration of photogenerated carriers of charge throughout the excitation stage, which will increase the amount of heterogeneous photocatalysis under UV, visible, and solar irradiation. We also discussed the impact of the various bacterial, microbial, viruses, and fungal threats, toxic potentiality, and anti-oxidant mechanisms against ZnO NPs were extensively highlighted.

Bibliographic Details

Anees A Ansari; Ruichan Lv; Shili Gai; Abdul K. Parchur; Pratima R. Solanki; null Archana; Z.A. Ansari; Marshal Dhayal; Piaoping Yang; M.K. Nazeeruddin; Mohammad Mahdi Tavakoli

Elsevier BV

Chemistry; Materials Science

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