(DE19547700-A1)      Fuel cell electrode has two layers (5, 6), one (6) being self-supporting and being several times thicker than the other layer(5) which has catalytic properties. Preferably, the self-supporting layer (6) is porous, consists of metal oxides such as Cr2O3, Al2O3, Fe2O3 or UO2, preferably mixed with nickel, and may have internal gas channels for gas supply to the catalytically active layer. Also claimed is a fuel cell stack with the above electrode.    USE -   Used for a high temperature fuel cell (SOFC).    ADVANTAGE -   Separation of the supporting function from the catalytic function of the electrode allows use of less expensive materials to achieve mechanical stability.    (DE19547700-C2)      Fuel cell electrode has two layers (5, 6), one (6) being self-supporting and being several times thicker than the other layer(5) which has catalytic properties. Preferably, the self-supporting layer (6) is porous, consists of metal oxides such as Cr2O3, Al2O3, Fe2O3 or UO2, preferably mixed with nickel, and may have internal gas channels for gas supply to the catalytically active layer. Also claimed is a fuel cell stack with the above electrode.    USE -   Used for a high temperature fuel cell (SOFC).    ADVANTAGE -   Separation of the supporting function from the catalytic function of the electrode allows use of less expensive materials to achieve mechanical stability.    (EP868761-A2)      Fuel cell electrode has two layers (5, 6), one (6) being self-supporting and being several times thicker than the other layer(5) which has catalytic properties. Preferably, the self-supporting layer (6) is porous, consists of metal oxides such as Cr2O3, Al2O3, Fe2O3 or UO2, preferably mixed with nickel, and may have internal gas channels for gas supply to the catalytically active layer. Also claimed is a fuel cell stack with the above electrode.    USE -   Used for a high temperature fuel cell (SOFC).    ADVANTAGE -   Separation of the supporting function from the catalytic function of the electrode allows use of less expensive materials to achieve mechanical stability.    (EP868761-B1)      Fuel cell electrode has two layers (5, 6), one (6) being self-supporting and being several times thicker than the other layer(5) which has catalytic properties. Preferably, the self-supporting layer (6) is porous, consists of metal oxides such as Cr2O3, Al2O3, Fe2O3 or UO2, preferably mixed with nickel, and may have internal gas channels for gas supply to the catalytically active layer. Also claimed is a fuel cell stack with the above electrode.    USE -   Used for a high temperature fuel cell (SOFC).    ADVANTAGE -   Separation of the supporting function from the catalytic function of the electrode allows use of less expensive materials to achieve mechanical stability.    (JP2000501879-W)      Fuel cell electrode has two layers (5, 6), one (6) being self-supporting and being several times thicker than the other layer(5) which has catalytic properties. Preferably, the self-supporting layer (6) is porous, consists of metal oxides such as Cr2O3, Al2O3, Fe2O3 or UO2, preferably mixed with nickel, and may have internal gas channels for gas supply to the catalytically active layer. Also claimed is a fuel cell stack with the above electrode.    USE -   Used for a high temperature fuel cell (SOFC).    ADVANTAGE -   Separation of the supporting function from the catalytic function of the electrode allows use of less expensive materials to achieve mechanical stability.    (US6048636-A)      Fuel cell electrode has two layers (5, 6), one (6) being self-supporting and being several times thicker than the other layer(5) which has catalytic properties. Preferably, the self-supporting layer (6) is porous, consists of metal oxides such as Cr2O3, Al2O3, Fe2O3 or UO2, preferably mixed with nickel, and may have internal gas channels for gas supply to the catalytically active layer. Also claimed is a fuel cell stack with the above electrode.    USE -   Used for a high temperature fuel cell (SOFC).    ADVANTAGE -   Separation of the supporting function from the catalytic function of the electrode allows use of less expensive materials to achieve mechanical stability.