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April 1, 2026ChemCatChem1 citations

Boosting BiVO 4 Photoanode With Sulfur Doped Carbon Quantum Dots for Efficient Solar‐Driven Water Oxidation

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KLKun LiHLHongyan LiTWTengfei Wang

Key Points

  • The aim is to enhance the efficiency of BiVO4 photoanodes in solar-driven water oxidation by integrating sulfur doped carbon quantum dots.
  • Integrated sulfur doped carbon quantum dots as a hole transport layer on BiVO4.
  • Measured photocurrent density under solar irradiation.
  • Further optimized the composite with surface-deposited FeOOH.
  • The BiVO4/S-CQD composite achieved a photocurrent density of 1.66 mA cm−2.
  • This was 1.71 times higher than the pristine BiVO4 photoanode's performance.
  • The BiVO4/S-CQD/FeOOH composite reached a photocurrent density of 2.88 mA cm−2, 2.96 times that of pristine BiVO4.

Abstract

ABSTRACT With the in‐depth research on efficient hole‐transport materials in the field of photoelectrochemical (PEC) water splitting, their rational integration with photoanodes is crucial for enhancing solar energy conversion efficiency. This study reports the loading of sulfur doped carbon quantum dots (S‐CQD) as a hole transport layer onto a BiVO 4 photoanode. The results indicates that the S‐CQD effectively promotes hole extraction and transport from BiVO 4 , the optimized BiVO 4 /S‐CQD composite photoanode achieves a photocurrent density of 1.66 mA cm −2 (1.23 V RHE ), corresponding to 1.71 times that of pristine BiVO 4 photoanode. Furthermore, the surface‐deposited FeOOH accelerates water oxidation kinetics, the optimized BiVO 4 /S‐CQD/FeOOH composite photoanode achieves a photocurrent density of 2.88 mA cm −2 (1.23 V RHE ), which is 2.96 times that of pristine BiVO 4 . This work provides an effective quantum dot‐based strategy for designing high‐performance BiVO 4 photoanodes.

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Cite This Study

Li et al. (2026) studied this question.

synapsesocial.com/papers/69cd7ac55652765b073a8386https://doi.org/10.1002/cctc.202501812
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