Metal oxide semiconductors are promising photoelectrode materials for solar water splitting due to their robustness in aqueous solutions and low cost. Yet, their solar-to-hydrogen conversion efficiencies are still not high enough for practical applications. Here we present a strategy to enhance the efficiency of metal oxides, hetero-type dual photoelectrodes, in which two photoanodes of different bandgaps are connected in parallel for extended light harvesting. Thus, a photoelectrochemical device made of modified BiVO4 and alpha-Fe2O3 as dual photoanodes utilizes visible light up to 610nm for water splitting, and shows stable photocurrents of 7.0 +/- 0.2 mA cm(-2) at 1.23 V-RHE under 1 sun irradiation. A tandem cell composed with the dual p...
The development of an efficient photoanode remains the primary materials challenge in the establishm...
Reliable utilization of solar power on a large scale requires affordable energy storage technology, ...
Few metal oxide photoanodes are able to reduce protons to hydrogen because their conduction band min...
Metal oxide semiconductors are promising photoelectrode materials for solar water splitting due to t...
The development of an efficient conversion system to transform solar energy into chemical energy, su...
Given the limitations of the materials available for photoelectrochemical water splitting, a multiph...
In this paper, we demonstrate a new benchmark for a large area photoelectrochemical photovoltaic PE...
We demonstrate highly efficient solar hydrogen generation via water splitting by photovoltaicphotoel...
Photoelectrochemical water splitting using semiconductor materials has emerged as a promising approa...
Photoelectrochemical water splitting with metal oxide semiconductors offers a cost-competitive alter...
Photoelectrochemical (PEC) water splitting is a promising route for solar energy conversion to hydro...
Efficient unassisted solar water splitting, a pathway to storable renewable energy in the form of ch...
Tandem photoelectrochemical cells, formed by two photoelectrodes with complementary light absorption...
Photoelectrochemical cells employing organic semiconductors (OS) are promising for solar-to-fuel con...
The conversion of solar energy into hydrogen fuel by splitting water into photoelectrochemical cells...
The development of an efficient photoanode remains the primary materials challenge in the establishm...
Reliable utilization of solar power on a large scale requires affordable energy storage technology, ...
Few metal oxide photoanodes are able to reduce protons to hydrogen because their conduction band min...
Metal oxide semiconductors are promising photoelectrode materials for solar water splitting due to t...
The development of an efficient conversion system to transform solar energy into chemical energy, su...
Given the limitations of the materials available for photoelectrochemical water splitting, a multiph...
In this paper, we demonstrate a new benchmark for a large area photoelectrochemical photovoltaic PE...
We demonstrate highly efficient solar hydrogen generation via water splitting by photovoltaicphotoel...
Photoelectrochemical water splitting using semiconductor materials has emerged as a promising approa...
Photoelectrochemical water splitting with metal oxide semiconductors offers a cost-competitive alter...
Photoelectrochemical (PEC) water splitting is a promising route for solar energy conversion to hydro...
Efficient unassisted solar water splitting, a pathway to storable renewable energy in the form of ch...
Tandem photoelectrochemical cells, formed by two photoelectrodes with complementary light absorption...
Photoelectrochemical cells employing organic semiconductors (OS) are promising for solar-to-fuel con...
The conversion of solar energy into hydrogen fuel by splitting water into photoelectrochemical cells...
The development of an efficient photoanode remains the primary materials challenge in the establishm...
Reliable utilization of solar power on a large scale requires affordable energy storage technology, ...
Few metal oxide photoanodes are able to reduce protons to hydrogen because their conduction band min...