Fe2TiO5 was synthesized via the solvothermal method and adopted as co-catalyst to improve the photoelectrochemical (PEC) water splitting performance of BiVO4 photoanode. After surface modification by Fe2TiO5, the BiVO4/Fe2TiO5 photoanode shows a 300 mV cathodic shift in onset potential and 3 times enhancement in photocurrent, which delivers a photocurrent density of 3.2 mA/cm2 at 1.23 V vs reverse hydrogen electrode. Systematic optical, electrochemical, and intensity-modulated photocurrent spectroscopy characterizations were performed to explore the role of Fe2TiO5 and reveal that the enhanced PEC performance is mainly caused by the surface passivation effect of Fe2TiO5
International audienceBiVO4 is a promising n‐type semiconductor for water‐splitting photoelectrochem...
A thin Fe<sub>2</sub>TiO<sub>5</sub> layer was produced on hematite either by evaporating a TiCl<sub...
Photoelectrochemical water splitting with metal oxide semiconductors offers a cost-competitive alter...
Photocharging is a novel and effective photoanode treatment for improving the photoelectrochemical w...
International audienceWe discuss here for the first time how to combine iron and titanium metal ions...
Owing to the sluggish kinetics for water oxidation, severe surface charge recombination is a major e...
Owing to the sluggish kinetics for water oxidation, severe surface charge recombination is a major e...
<i>n</i>-BiVO<sub>4</sub> is a promising semiconductor material for photoelectrochemical water oxida...
BiVO<sub>4</sub> films were prepared by a simple electrodeposition and annealing procedure and studi...
Photoelectrochemical solar water splitting has become a potential approach for producing clean hydro...
Abundant materials, cheap synthesis methods and high efficiencies are required for photoelectrodes m...
The efficient transfer of photogenerated carriers and improved stability against corrosion are essen...
Our recent works on the photoelectrochemistry and fabrication of the water-splitting photocatalyst f...
7 pags., 4 figs.Hematite (α-Fe2O3) is an ideal oxide semiconductor candidate for photoelectrochemica...
Designing an efficient photoanode is of great importance for photoassisted solar water splitting. He...
International audienceBiVO4 is a promising n‐type semiconductor for water‐splitting photoelectrochem...
A thin Fe<sub>2</sub>TiO<sub>5</sub> layer was produced on hematite either by evaporating a TiCl<sub...
Photoelectrochemical water splitting with metal oxide semiconductors offers a cost-competitive alter...
Photocharging is a novel and effective photoanode treatment for improving the photoelectrochemical w...
International audienceWe discuss here for the first time how to combine iron and titanium metal ions...
Owing to the sluggish kinetics for water oxidation, severe surface charge recombination is a major e...
Owing to the sluggish kinetics for water oxidation, severe surface charge recombination is a major e...
<i>n</i>-BiVO<sub>4</sub> is a promising semiconductor material for photoelectrochemical water oxida...
BiVO<sub>4</sub> films were prepared by a simple electrodeposition and annealing procedure and studi...
Photoelectrochemical solar water splitting has become a potential approach for producing clean hydro...
Abundant materials, cheap synthesis methods and high efficiencies are required for photoelectrodes m...
The efficient transfer of photogenerated carriers and improved stability against corrosion are essen...
Our recent works on the photoelectrochemistry and fabrication of the water-splitting photocatalyst f...
7 pags., 4 figs.Hematite (α-Fe2O3) is an ideal oxide semiconductor candidate for photoelectrochemica...
Designing an efficient photoanode is of great importance for photoassisted solar water splitting. He...
International audienceBiVO4 is a promising n‐type semiconductor for water‐splitting photoelectrochem...
A thin Fe<sub>2</sub>TiO<sub>5</sub> layer was produced on hematite either by evaporating a TiCl<sub...
Photoelectrochemical water splitting with metal oxide semiconductors offers a cost-competitive alter...