AbstractHematite is recognized as an excellent photocatalyst for photoelectrochemical photoanodes for water oxidation because of its favorable band gap, excellent anti-photocorrosion and structural stability in alkaline solution. However, slow charge transport and fast carrier recombination in the bulk and at the hematite photoanode/electrolyte interface, have limited its applications for water splitting. Herein, we report a highly efficient hematite/ferrhydrite (Fh) core–shell photoanode system, consisting of hematite (α-Fe2O3) semiconductor nanorods which dramatically enhance light harvesting, and ferrhydrite as the hole-storage shell. Our integrated hematite/ferrhydrite core–shell photoanode shows 2.7 times increased photo-current densit...
Ultrahigh-efficiency photoelectrochemical water oxidation using modified hematite (alpha-Fe2O3) nano...
The production of solar fuels, i.e. energy-rich molecules obtained from sunlight-driven processes, r...
In this paper, we report a novel strategy for surface treatment of hematite nanorods for efficient p...
Hematite is recognized as an excellent photocatalyst for photoelectrochemical photoanodes for water ...
Charge separation plays a crucial role in determining the solar energy conversion efficiency of semi...
A hematite photoanode showing a stable, record-breaking performance of 4.32 mA/cm(2) photoelectroche...
Solar assisted water splitting in a PEC is an attractive concept to store solar energy as hydrogen f...
DoctorHydrogen is very promising fuel that may become one of the important energy carrier to meet ou...
Solar water splitting is an environmentally friendly reaction of producing hydrogen gas. Since Honda...
The last few decades??? extensive research on the photoelectrochemical (PEC) water splitting has pro...
DoctorHematite (-Fe2O3) is a photoactive material which is widely investigated in the research field...
International audienceThe perfomance of hematite and Ti-substituted hematite nanorods as photoanodes...
Although the field of solar water splitting is now forty years old, in recent years there has been a...
AbstractDue to the band gap of hematite (α-Fe2O3, Eg = 2.1 eV) in visible light region, it was regar...
Department of Energy Engineering (Energy Engineering)Due to the declining fossil fuel and growing en...
Ultrahigh-efficiency photoelectrochemical water oxidation using modified hematite (alpha-Fe2O3) nano...
The production of solar fuels, i.e. energy-rich molecules obtained from sunlight-driven processes, r...
In this paper, we report a novel strategy for surface treatment of hematite nanorods for efficient p...
Hematite is recognized as an excellent photocatalyst for photoelectrochemical photoanodes for water ...
Charge separation plays a crucial role in determining the solar energy conversion efficiency of semi...
A hematite photoanode showing a stable, record-breaking performance of 4.32 mA/cm(2) photoelectroche...
Solar assisted water splitting in a PEC is an attractive concept to store solar energy as hydrogen f...
DoctorHydrogen is very promising fuel that may become one of the important energy carrier to meet ou...
Solar water splitting is an environmentally friendly reaction of producing hydrogen gas. Since Honda...
The last few decades??? extensive research on the photoelectrochemical (PEC) water splitting has pro...
DoctorHematite (-Fe2O3) is a photoactive material which is widely investigated in the research field...
International audienceThe perfomance of hematite and Ti-substituted hematite nanorods as photoanodes...
Although the field of solar water splitting is now forty years old, in recent years there has been a...
AbstractDue to the band gap of hematite (α-Fe2O3, Eg = 2.1 eV) in visible light region, it was regar...
Department of Energy Engineering (Energy Engineering)Due to the declining fossil fuel and growing en...
Ultrahigh-efficiency photoelectrochemical water oxidation using modified hematite (alpha-Fe2O3) nano...
The production of solar fuels, i.e. energy-rich molecules obtained from sunlight-driven processes, r...
In this paper, we report a novel strategy for surface treatment of hematite nanorods for efficient p...