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    12.
    发明专利
    未知

    公开(公告)号：AT503280T

    公开(公告)日：2011-04-15

    申请号：AT10002472

    申请日：2010-03-10

    Applicant: PLANSEE SE

    Inventor： BRANDNER MARCO ,  KRAUSSLER WOLFGANG ,  LEICHTFRIED GERHARD ,  VENSKUTONIS ANDREAS

    IPC: H01M8/02 ,  H01M50/529

    Abstract: An interconnector (A1) for a high-temperature solid electrolyte fuel cell comprises: sintered chromium alloy formed with sintering pores, where the chromium alloy contains chromium (Cr) (greater than 90 wt.%), iron (Fe) (3-8 wt.%), aluminum (Al) (0.1-2 wt.%), optional at least one element (0.001-2 wt.%) selected from rare earth metals; and the sintering pores are at least partly filled with an oxidic compound containing Al and Cr. Independent claims are included for the following: (1) high-temperature solid electrolyte fuel cell comprising: ceramic solid electrolyte formed of stabilized zirconium oxide; and the interconnector (A1); (2) producing interconnector (A1) involving producing a powder mix from at least one of a mixed powder, partly pre-alloyed powder, and a fully pre-alloyed powder, shaping by die pressing at a pressing pressure set to 500-1000 MPa, optionally presintering at a temperature set to 700-1200[deg] C in a reducing atmosphere and optionally calibration pressing at a pressing pressure set to 500-1000 MPa, sintering at a temperature set to 1200[deg] C to solidus temperature in a reducing atmosphere, and oxidatively treating for producing the interconnector (A1).

    INTERCONNECTOR FOR A HIGH-TEMPERATURE SOLID ELECTROLYTE FUEL CELL
    13.
    发明专利
    INTERCONNECTOR FOR A HIGH-TEMPERATURE SOLID ELECTROLYTE FUEL CELL 未知

    公开(公告)号：HK1144735A1

    公开(公告)日：2011-03-04

    申请号：HK10111201

    申请日：2010-12-01

    Applicant: PLANSEE SE

    Inventor： BRANDNER MARCO ,  KRAUSSLER WOLFSGANG ,  LEICHTFRIED GERHARD ,  VENSKUTONIS ANDREAS

    IPC: H01M50/529

    Abstract: An interconnector (A1) for a high-temperature solid electrolyte fuel cell comprises: sintered chromium alloy formed with sintering pores, where the chromium alloy contains chromium (Cr) (greater than 90 wt.%), iron (Fe) (3-8 wt.%), aluminum (Al) (0.1-2 wt.%), optional at least one element (0.001-2 wt.%) selected from rare earth metals; and the sintering pores are at least partly filled with an oxidic compound containing Al and Cr. Independent claims are included for the following: (1) high-temperature solid electrolyte fuel cell comprising: ceramic solid electrolyte formed of stabilized zirconium oxide; and the interconnector (A1); (2) producing interconnector (A1) involving producing a powder mix from at least one of a mixed powder, partly pre-alloyed powder, and a fully pre-alloyed powder, shaping by die pressing at a pressing pressure set to 500-1000 MPa, optionally presintering at a temperature set to 700-1200[deg] C in a reducing atmosphere and optionally calibration pressing at a pressing pressure set to 500-1000 MPa, sintering at a temperature set to 1200[deg] C to solidus temperature in a reducing atmosphere, and oxidatively treating for producing the interconnector (A1).

    SHAPED PART
    16.
    发明专利
    SHAPED PART 未知

    公开(公告)号：CA2724350C

    公开(公告)日：2015-04-28

    申请号：CA2724350

    申请日：2010-12-08

    Applicant: PLANSEE SE

    Inventor： BRANDNER MARCO ,  GERZOSKOVITZ STEFAN ,  KRAUSSLER WOLFGANG ,  LEUPRECHT ALEXANDER ,  VENSKUTONIS ANDREAS

    IPC: B22F3/12 ,  B22F5/00 ,  H01M4/70 ,  H01M8/02

    Abstract: The invention describes a shaped part, in particular an interconnector or an end plate for a fuel cell stack, which is produced by pressing and sintering a pulverulent starting material. The shaped part consists of a disc-shaped or plate-shaped basic body -1- having a multiplicity of knob-like and/or ridge-like elevations -2- with a height h. In cross section, each elevation -2- has two inclined side flanks which lead, proceeding from an end contour -3- of the elevation -2-, via rounded corner portions -4-, -4'- with a radius r or r' directly or via intermediate rectilinear portions -5-, -5'- into curved portions -6-, -6'- with a radius R or R', which in turn merge into the surface contour -7-, -7'- of the basic body -1-. The rectilinear portions -5-, -5'- or, in the case of a direct transition of the rounded corner portions -4-, -4'- into the curved portions -6-, -6'-, the tangents at the point of the transition, have an angle of inclination a or a' with respect to the surface contour -7-, -7'- in the range of 95° to 135°. According to the invention, the radius R or R' is in the range of 0.15 to 1 mm and the height h is dimensioned such that the ratio R: h or R' : h is in a range of 0.25 to 1.

    ANODE FOR A HIGH-TEMPERATURE FUEL CELL AND PRODUCTION THEREOF
    18.
    发明专利
    ANODE FOR A HIGH-TEMPERATURE FUEL CELL AND PRODUCTION THEREOF 未知

    公开(公告)号：CA2781176A1

    公开(公告)日：2011-05-26

    申请号：CA2781176

    申请日：2010-11-04

    Applicant: FORSCHUNGSZENTRUM JUELICH GMBH ,  PLANSEE SE

    Inventor： MUCKE ROBERT ,  MENZLER NORBERT H ,  BUCHKREMER HANS PETER ,  RUTTINGER MATTHIAS ,  BRANDNER MARCO ,  FRANCO THOMAS ,  VENSKUTONIS ANDREAS

    IPC: H01M4/90 ,  H01M4/86 ,  H01M4/88 ,  H01M8/12

    Abstract: The invention relates to a substrate-supported anode for a high-temperature fuel cell, comprising an at least 3-layer anode laminate (A1, A2, A3) on a metal substrate. The individual layers of the anode laminate each comprise yttrium-oxide-stabilized zirconium dioxide (YSZ) and nickel, wherein the average grain size of the nickel decreases from layer to layer with increasing distance from the substrate. The last layer of the anode laminate, which is intended for contact with the electrolyte, has a root-mean-square roughness R q , also described as average surface roughness in the context of the invention, of less than 4 µm. The overall average pore size of said layer is generally between 0.3 and 1.5 µm. In the method for producing such a substrate-supported anode for a high-temperature fuel cell, starting powders having a bimodal grain size distribution of yttrium-oxide-stabilized zirconium dioxide (YSZ) and nickel-containing powder are used at least for the first and second layers of the anode laminate. The average grain size of the nickel-containing powder used is reduced from layer to layer so that the average grain size in the last layer of the anode laminate is advantageously no greater than 0.5 µm.

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