Abstract
Hydrogen is produced when Wuestite (Fe{sub 1-y}O) is oxidised by water. This reaction is part of a two-step thermochemical metal oxide cycle for the storage of solar energy in the form of chemical energy carriers, characterised by a high chemical potential. The reaction was studied in a tubular furnace with on-line gas analysis and further characterised in detail by DTA und high-temperature X-ray powder diffraction. The influence of non-stoichiometry, morphology and temperature on the mechanism and kinetics of the water-splitting reaction was determined. (author) 3 figs., tabs., 3 refs.
Weidenkaff, A;
Nueesch, P;
Wokaun, A;
[1]
Reller, A
[2]
- Paul Scherrer Inst. (PSI), Villigen (Switzerland)
- Hamburg Univ., Hamburg (Germany)
Citation Formats
Weidenkaff, A, Nueesch, P, Wokaun, A, and Reller, A.
Wuestite - a solar energy carrier.
Switzerland: N. p.,
1997.
Web.
Weidenkaff, A, Nueesch, P, Wokaun, A, & Reller, A.
Wuestite - a solar energy carrier.
Switzerland.
Weidenkaff, A, Nueesch, P, Wokaun, A, and Reller, A.
1997.
"Wuestite - a solar energy carrier."
Switzerland.
@misc{etde_492023,
title = {Wuestite - a solar energy carrier}
author = {Weidenkaff, A, Nueesch, P, Wokaun, A, and Reller, A}
abstractNote = {Hydrogen is produced when Wuestite (Fe{sub 1-y}O) is oxidised by water. This reaction is part of a two-step thermochemical metal oxide cycle for the storage of solar energy in the form of chemical energy carriers, characterised by a high chemical potential. The reaction was studied in a tubular furnace with on-line gas analysis and further characterised in detail by DTA und high-temperature X-ray powder diffraction. The influence of non-stoichiometry, morphology and temperature on the mechanism and kinetics of the water-splitting reaction was determined. (author) 3 figs., tabs., 3 refs.}
place = {Switzerland}
year = {1997}
month = {Jun}
}
title = {Wuestite - a solar energy carrier}
author = {Weidenkaff, A, Nueesch, P, Wokaun, A, and Reller, A}
abstractNote = {Hydrogen is produced when Wuestite (Fe{sub 1-y}O) is oxidised by water. This reaction is part of a two-step thermochemical metal oxide cycle for the storage of solar energy in the form of chemical energy carriers, characterised by a high chemical potential. The reaction was studied in a tubular furnace with on-line gas analysis and further characterised in detail by DTA und high-temperature X-ray powder diffraction. The influence of non-stoichiometry, morphology and temperature on the mechanism and kinetics of the water-splitting reaction was determined. (author) 3 figs., tabs., 3 refs.}
place = {Switzerland}
year = {1997}
month = {Jun}
}