Hao Zeng

Mr. Hao Zeng

orcid

Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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27 November 2024 in ACS Applied Nano Materials
Verified
Journal Article
Closed access
XRXiaoli Ran
Xiaoli Ran
YBYang Bai
Yang Bai
HZHao Zeng
Hao Zeng
JZJunhao Zhang
Junhao Zhang
HFHaitao Fu
Haitao Fu
XYXiaohong Yang
Xiaohong Yang

28 November 2025 in ACS Applied Nano Materials
Verified
Journal Article
Closed access
HZHao Zeng
Hao Zeng
SLSijie Li
Sijie Li
CZCaiyi Zhang
Caiyi Zhang
XYXiaohong Yang
Xiaohong Yang
Xizhong AnXizhong An
Xizhong An
HFHaitao Fu
Haitao Fu

17 April 2025 in Preprints.org
Verified
Preprint
Open access
PDF file
SLSijie Li
Sijie Li
HZHao Zeng
Hao Zeng
JFJiaqi Fan
Jiaqi Fan
MZMei Zhu
Mei Zhu
CZCaiyi Zhang
Caiyi Zhang
XYXiaohong Yang
Xiaohong Yang
This study focuses on enhancing the photoelectro - catalytic (PEC) performance of LaFeO₃ photocathodes by incorporating Ag nanocrystals. LaFeO₃, a perovskite - type metal oxide semiconductor, has potential in PEC water splitting but suffers from fast charge carrier recombination. Ag nanoparticles are introduced due to their surface plasmon resonance (SPR) property and ability to form Schottky junctions with LaFeO₃. A series of Ag/LaFeO₃ materials are prepared using the molten salt method for LaFeO₃ synthesis and the direct reduction method for Ag loading. The results show that Ag nanoparticles are uniformly dispersed on LaFeO₃. The 3 mol% Ag loading significantly enhances the photocurrent density, about 9 - fold higher than that of pure LaFeO₃. Ag loading improves light absorption, reduces the band gap, and optimizes charge kinetics. EIS and Mott - Schottky analysis reveal that 3 mol% Ag/LaFeO₃ has the lowest charge transfer impedance and the highest carrier concentration. This work provides valuable insights into the interaction between Ag and LaFeO₃, and offers experimental and theoretical support for developing efficient photocatalytic materials for PEC water splitting.