In this work we have analyzed the effects of Ti doping on structural and electrical properties of α-Fe2O3. When the amount of added Ti (5 wt.%TiO2) was within the solubility degree and XRD, SEM and EDS analysis revealed a homogenous hematite structure, with lattice parameters a= 5.03719(3) Å, c=13.7484(1) Å slightly increased due to incorporation of Ti into the rhombohedral hematite lattice. Higher amounts of Ti (10 wt.%TiO2) resulted in the formation of pseudobrookite, besides hematite, confirmed by SEM and EDS analysis. Studies of electric properties in the temperature range 25-225oC at different frequencies (100 - 1Mz) showed that Ti doping improved electrical conductivity. Impedance analysis was performed using an equivalent circuit, sh...
The low electronic conductivity of hematite (α-Fe2O3) limits its best performance in many applicatio...
Starting nanopowders of TiO2 (anatase 99.7%) and a-Fe2O3 (hematite) were mixed in the weight ratio 6...
Hematite (α−Fe2O3) is known for poor electronic transport properties, which are the main drawback of...
In this work we have analyzed the effects of Ti doping on structural and electrical properties of α-...
In this work we have analyzed the effects of Ti doping on structural and electrical properties of al...
In this work we have analyzed the effects of Ti doping on structural and electrical properties of α-...
International audienceThe growth, crystal and electronic structures, and photo-electrochemical prope...
The effects of Zn-doping on the dielectric behavior and electrical properties of bulk α-Fe2O3 have b...
Solid-state transport and electrochemical properties of Ti-doped hematite (α-(Ti_xFe_(1-x))_2O_3 (00...
The effects of Zn-doping on the dielectric behavior and electrical properties of bulk alpha-Fe2O3 ha...
In this work we have investigated changes in dielectric properties, electrical conductivity and comp...
Hematite (α-Fe<sub>2</sub>O<sub>3</sub>)-based photoanode for photoelectrochemical water oxidation h...
In this study, we report a strong correlation between the formation energy related with the crystal ...
Using hydrogen as an energy carrier for solar energy storage and/or fuel alternative to oil is very ...
Hematite (α-Fe2O3) is recognized as a promising photoelectrode material for photoelectrochemical (PE...
The low electronic conductivity of hematite (α-Fe2O3) limits its best performance in many applicatio...
Starting nanopowders of TiO2 (anatase 99.7%) and a-Fe2O3 (hematite) were mixed in the weight ratio 6...
Hematite (α−Fe2O3) is known for poor electronic transport properties, which are the main drawback of...
In this work we have analyzed the effects of Ti doping on structural and electrical properties of α-...
In this work we have analyzed the effects of Ti doping on structural and electrical properties of al...
In this work we have analyzed the effects of Ti doping on structural and electrical properties of α-...
International audienceThe growth, crystal and electronic structures, and photo-electrochemical prope...
The effects of Zn-doping on the dielectric behavior and electrical properties of bulk α-Fe2O3 have b...
Solid-state transport and electrochemical properties of Ti-doped hematite (α-(Ti_xFe_(1-x))_2O_3 (00...
The effects of Zn-doping on the dielectric behavior and electrical properties of bulk alpha-Fe2O3 ha...
In this work we have investigated changes in dielectric properties, electrical conductivity and comp...
Hematite (α-Fe<sub>2</sub>O<sub>3</sub>)-based photoanode for photoelectrochemical water oxidation h...
In this study, we report a strong correlation between the formation energy related with the crystal ...
Using hydrogen as an energy carrier for solar energy storage and/or fuel alternative to oil is very ...
Hematite (α-Fe2O3) is recognized as a promising photoelectrode material for photoelectrochemical (PE...
The low electronic conductivity of hematite (α-Fe2O3) limits its best performance in many applicatio...
Starting nanopowders of TiO2 (anatase 99.7%) and a-Fe2O3 (hematite) were mixed in the weight ratio 6...
Hematite (α−Fe2O3) is known for poor electronic transport properties, which are the main drawback of...