International audienceHematite materials are of crucial interest since they are involved in many physico-chemical applications. However, the alpha-Fe2O3 surface state depends on temperature and surrounding gas composition and pressure. The hydrogen, oxygen and water coverage, the structure and thermodynamic stability of (0001) alpha-Fe2O3 surfaces have been investigated in the DFT + U framework as a function of temperature and partial pressures taking into account the spin effect. In the 300-900 K temperature range, it is mandatory to take into account water adsorption: the outermost iron atoms will be almost fully hydroxylated decreasing the acidic (Lewis) character of the surface. The chemistry of the surface will be dominated by hydrogen...
Computer modelling techniques were used to elucidate the hydration behaviour of three iron (hydr)oxi...
The interaction of water with the basal plane (0001) of α-Fe2O3 (hematite) is a fundamental and chal...
International audienceIn-plane strain-engineered water adsorption on Fe-and O 3-terminated-Fe 2 O 3 ...
International audienceHematite materials are of crucial interest since they are involved in many phy...
Hematite (α-Fe2O3) is the most stable and abundant iron oxide in nature, and is used in many importa...
The stability and reactivity of the hematite, Fe2O3(0001) surface are studied by density functional ...
Interaction between water and oxide surfaces plays an important role in many applications. In the pr...
The surface structure of magnetite Fe3O4(111) in contact with oxygen and water is investigated using...
The interaction of water with iron oxide surfaces is relevant for several processes of practical int...
International audienceWe provide an experimental surface phase diagram (surface termination versus c...
The interaction of water with the Fe3O4(001) surface was investigated in a combined ambient pressure...
The surface structure of magnetite Fe3O4(111) in contact with oxygen and water is investigated using...
Computer modelling techniques were used to elucidate the hydration behaviour of three iron (hydr)oxi...
The interaction of water with the basal plane (0001) of α-Fe2O3 (hematite) is a fundamental and chal...
International audienceIn-plane strain-engineered water adsorption on Fe-and O 3-terminated-Fe 2 O 3 ...
International audienceHematite materials are of crucial interest since they are involved in many phy...
Hematite (α-Fe2O3) is the most stable and abundant iron oxide in nature, and is used in many importa...
The stability and reactivity of the hematite, Fe2O3(0001) surface are studied by density functional ...
Interaction between water and oxide surfaces plays an important role in many applications. In the pr...
The surface structure of magnetite Fe3O4(111) in contact with oxygen and water is investigated using...
The interaction of water with iron oxide surfaces is relevant for several processes of practical int...
International audienceWe provide an experimental surface phase diagram (surface termination versus c...
The interaction of water with the Fe3O4(001) surface was investigated in a combined ambient pressure...
The surface structure of magnetite Fe3O4(111) in contact with oxygen and water is investigated using...
Computer modelling techniques were used to elucidate the hydration behaviour of three iron (hydr)oxi...
The interaction of water with the basal plane (0001) of α-Fe2O3 (hematite) is a fundamental and chal...
International audienceIn-plane strain-engineered water adsorption on Fe-and O 3-terminated-Fe 2 O 3 ...