Unique Electronic Structure Induced High Photoreactivity of Sulfur-Doped Graphitic C 3 N 4
Chinese Academy of Sciences · University of Queensland
Abstract
Electronic structure intrinsically controls the light absorbance, redox potential, charge-carrier mobility, and consequently, photoreactivity of semiconductor photocatalysts. The conventional approach of modifying the electronic structure of a semiconductor photocatalyst for a wider absorption range by anion doping operates at the cost of reduced redox potentials and/or charge-carrier mobility, so that its photoreactivity is usually limited and some important reactions may not occur at all. Here, we report sulfur-doped graphitic C(3)N(4) (C(3)N(4-x)S(x)) with a unique electronic structure that displays an increased valence bandwidth in combination with an elevated conduction band minimum and a slightly reduced…
Citation impact
- FWCI
- 28.06
- Percentile
- 100%
- References
- 47
Authors
7- GLGang LiuCorresponding
Chinese Academy of Sciences, University of Queensland
- PNPing Niu
Chinese Academy of Sciences, University of Queensland
- CSChenghua Sun
University of Queensland, Chinese Academy of Sciences
- SCSean C. Smith
Chinese Academy of Sciences, University of Queensland
- ZCZhigang Chen
Chinese Academy of Sciences, University of Queensland
Topics & keywords
- Chemistry
- Doping
- Redox
- Electronic structure
- Valence (chemistry)
- Sulfur
- Semiconductor
- Charge carrier
- Clean water and sanitation