The sensitivity of the surface orientation on photoelectrochemical water oxidation has recently been reported by experimental studies. However, a detailed theoretical understanding is still missing. Density functional theory + Hubbard U (DFT + U) calculations are therefore carried out in order to investigate the oxygen evolution reaction (OER) on hematite (Fe2O3) surfaces for five surface orientations, namely (100), (210), (101), (021), and (211). The free energies of four proton-coupled electron transfer steps and the OER overpotential were calculated, and the trend in activity was analyzed. For the (100) orientation, two adsorbate–adsorbate distances were studied. Interestingly, a very low overpotential of 0.52 V was found for the (100) s...
The performance of a photoelectrochemical (PEC) system is highly dependent on the charge separation,...
Hematite (α-Fe2O3) is the most stable and abundant iron oxide in nature, and is used in many importa...
Water oxidation is the key kinetic bottleneck of photoelectrochemical devices for fuel synthesis. De...
The sensitivity of the surface orientation on photoelectrochemical water oxidation has recently been...
The sensitivity of the surface orientation on photoelectrochemical water oxidation has recently been...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
\u3cp\u3eSimulations of the oxygen evolution reaction (OER) are essential for understanding the limi...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Hematite (alpha-Fe2O3) is an extensively investigated semiconductor for photoelectrochemical (PEC) w...
Hematite (alpha-Fe2O3) is an extensively investigated semiconductor for photoelectrochemical (PEC) w...
The structures of transition metal surfaces and metal oxides are commonly believed to have a signifi...
The performance of a photoelectrochemical (PEC) system is highly dependent on the charge separation,...
Hematite (α-Fe2O3) is the most stable and abundant iron oxide in nature, and is used in many importa...
Water oxidation is the key kinetic bottleneck of photoelectrochemical devices for fuel synthesis. De...
The sensitivity of the surface orientation on photoelectrochemical water oxidation has recently been...
The sensitivity of the surface orientation on photoelectrochemical water oxidation has recently been...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
\u3cp\u3eSimulations of the oxygen evolution reaction (OER) are essential for understanding the limi...
Simulations of the oxygen evolution reaction (OER) are essential for understanding the limitations o...
Hematite (alpha-Fe2O3) is an extensively investigated semiconductor for photoelectrochemical (PEC) w...
Hematite (alpha-Fe2O3) is an extensively investigated semiconductor for photoelectrochemical (PEC) w...
The structures of transition metal surfaces and metal oxides are commonly believed to have a signifi...
The performance of a photoelectrochemical (PEC) system is highly dependent on the charge separation,...
Hematite (α-Fe2O3) is the most stable and abundant iron oxide in nature, and is used in many importa...
Water oxidation is the key kinetic bottleneck of photoelectrochemical devices for fuel synthesis. De...