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Recent advances in organolead halide crystalline materials for photocatalytic H 2 evolution and CO 2 reduction applications.

Xueling SongXiaoman LiYuxuan SongJingyi BiLei WangJigao WangJunjie LiuYanyan LiHui Wang
Published in: Dalton transactions (Cambridge, England : 2003) (2024)
The photocatalytic technique has been widely recognized as a feasible technological route for sustainable energy conversion of solar energy into chemical energy. Photocatalysts play a vital role in the whole catalytic process. In particular, organolead halide perovskites have become emerging photocatalysts, owing to their precisely tunable light absorption range, high carrier diffusion mobility, and longer carrier lifetime and diffusion length. Nevertheless, their intrinsic structural instability and high carrier recombination rate are the major bottlenecks for further development in photocatalytic applications. This Frontier is focused on the recent research about the instability mechanism of organolead halide perovskites. Then, we summarize the recently developed strategies to improve the structural stability and photocatalytic activity of organolead halide materials, with an emphasis on the construction of organolead halide crystalline catalysts with high intrinsic structural stability. Finally, an outlook and challenges of organometal halide photocatalysts are presented, demonstrating the irreplaceable role of this class of emergent materials in the field of photo-energy conversion.
Keyphrases
  • visible light
  • solar cells
  • perovskite solar cells
  • highly efficient
  • reduced graphene oxide
  • room temperature
  • dna damage
  • dna repair
  • crystal structure