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    • 11. 发明申请
    • ELECTRICALLY BALANCED FLUID MANIFOLD ASSEMBLY FOR AN ELECTROCHEMICAL FUEL CELL SYSTEM
    • 用于电化学燃料电池系统的电动平衡流体组件
    • WO2006071991A1
    • 2006-07-06
    • PCT/US2005/047450
    • 2005-12-27
    • BALLARD POWER SYSTEMS INC.BALLARD POWER SYSTEMS CORPORATIONHARTWELL, RaeLIM, ThianREIMER, Mark, E.ARTIBISE, Robert, H.
    • HARTWELL, RaeLIM, ThianREIMER, Mark, E.ARTIBISE, Robert, H.
    • H01M8/04H01M8/24C25B9/18C25B15/06
    • H01M8/2484H01M8/04007H01M8/2485
    • An electrically balanced fluid manifold assembly for supplying a fluid to an electrochemicall fuel cell system comprising at least two fuel cell stasks electrically connected in series, each fuel cell stack comprising an inlet fluid port and an outlet fluid port, the manifold assembly comprising: a primary inlet fluid line; a primary outlet fluid line; at least two branch inlet fluid lines, fluidly connecting the primary inlet fluid line to each inlet fluid port of of the at least two fuel cell stacks; and at least two branch outlet fluid lines, fluidly connecting each outlet fluid port of the at least two fuel cell stacks to the primary outlet fluid line, wherein the branch inlet fluid lines and the branch outlet fluid lines are configured such that the electrical resistance is essentially the same between (a) each inlet fluid port of the at least two fuel cell stacks and the primary inlet fluid line, and (b) each outlet fluid port of the at least two fuel cell stacks and the primary outlet fluid line.
    • 一种电气平衡的流体歧管组件,用于将流体供应到电化学燃料电池系统,其包括串联电连接的至少两个燃料电池单元,每个燃料电池堆包括入口流体端口和出口流体端口,所述歧管组件包括: 入口流体管线; 主出口流体管线; 至少两个分支入口流体管线,其将所述主入口流体管线流体连接到所述至少两个燃料电池堆的每个入口流体端口; 以及至少两个分支出口流体管线,其将所述至少两个燃料电池组的每个出口流体端口流体连接到所述主出口流体管线,其中所述分支入口流体管线和所述分支出口流体管线被配置为使得所述电阻为 (a)至少两个燃料电池堆的每个入口流体端口和主入口流体管线之间基本相同,以及(b)至少两个燃料电池堆和主出口流体管线的每个出口流体端口。
    • 16. 发明申请
    • FUEL CELL SYSTEM WITH FLUID STREAM RECIRCULATION
    • 具有流体循环的燃料电池系统
    • WO2005029627A2
    • 2005-03-31
    • PCT/US2004/030707
    • 2004-09-17
    • BALLARD POWER SYSTEMS INC.BALLARD POWER SYSTEMS CORPORATIONBLASZCZYK, JanuszSCHMIDT, RainerFLECK, WolframPATERSON, Paul, L.
    • BLASZCZYK, JanuszSCHMIDT, RainerFLECK, WolframPATERSON, Paul, L.
    • H01M8/04
    • F04F5/466H01M8/04097H01M8/04104H01M2250/20Y02T90/32
    • An electric power generation system has a multiple jet ejector assembly for recirculating an exhaust stream. The system includes a fuel cell stack having a reactant stream inlet, a reactant stream outlet and at least one fuel cell. A pressurized reactant supply provides a reactant to the multiple jet ejector assembly. The multiple jet ejector assembly includes two motive flow inlets, one suction inlet, fluidly connected to the reactant stream outlet to receive a recirculated flow from the fuel cell stack, and one discharge outlet, fluidly connected to the reactant stream inlet to provide an inlet stream to the fuel cell stack. A pressure regulator is interposed between the pressurized reactant supply and the two motive flow inlets of the multiple jet ejector assembly. A first solenoid valve is interposed between the first motive flow inlet and the regulator. A second solenoid valve is interposed between the second motive flow inlet and the regulator. A by-pass line connects the pressurized reactant supply to the second motive flow inlet. A by-pass solenoid valve is interposed in the bypass line between the pressurized reactant supply and the second motive flow inlet. During low-load operating conditions, the second solenoid valve is open and the first and by-pass solenoid valves are closed, so that pressurized reactant, controlled by the regulator, is directed to the second motive flow inlet. During high-load operating conditions, the second solenoid valve is closed and the first and by-pass solenoid valves are open, so that pressurized reactant, controlled by the regulator, is directed to the first motive flow inlet and pressurized reactant, not controlled by the regulator, is directed to the second motive flow inlet.
    • 发电系统具有用于再循环排气流的多喷射喷射器组件。 该系统包括具有反应物流入口,反应物流出口和至少一个燃料电池的燃料电池堆。 加压的反应物供应源为多喷射喷射器组件提供反应物。 多个喷射器组件包括两个动力流入口,一个吸入口,流体连接到反应物流出口以接收来自燃料电池堆的再循环流,以及一个排放出口,流体连接到反应物流入口以提供入口流 到燃料电池堆。 压力调节器介于加压反应物料和多喷射器组件的两个动力流入口之间。 第一电磁阀介于第一动力流入口和调节器之间。 第二电磁阀介于第二动力流入口和调节器之间。 旁路管线将加压的反应物源连接到第二动力流入口。 旁通电磁阀插入在加压反应物供应与第二动力流入口之间的旁通管路中。 在低负载运行条件下,第二电磁阀打开,第一和旁路电磁阀关闭,由调节器控制的加压反应物被引导到第二动力流入口。 在高负载运行条件下,第二电磁阀关闭,第一和旁通电磁阀打开,由调节器控制的加压反应物被引导到第一动力流入口和加压反应物,不受 调节器被引导到第二动力流入口。
    • 18. 发明申请
    • SEAL FOR FUEL CELL
    • 燃料电池密封
    • WO2007022464A2
    • 2007-02-22
    • PCT/US2006/032490
    • 2006-08-18
    • BALLARD POWER SYSTEMS INC.BALLARD POWER SYSTEMS CORPORATIONJUNG, SeungsooARTIBISE, Robert, H.
    • JUNG, SeungsooARTIBISE, Robert, H.
    • H01M8/02H01M8/24H01M8/10
    • H01M8/0271H01M8/0273H01M8/0276H01M8/0284H01M8/0286H01M8/04104H01M8/242H01M2008/1095Y10T29/4911
    • A membrane electrode assembly comprises an edge seal member, the edge seal member having a first compressive surface and an opposing second compressive surface wherein the first compressive surface comprises a seal protrusion and the opposing second compressive comprises an inner and outer seal protrusion. The seal protrusion on the first compressive surface is positioned asymmetrically in relation to the inner and outer seal protrusions on the second compressive surface such that the centerline of the seal protrusion on the first compressive surface is positioned between the centerline of the inner seal protrusion and the centerline of the outer seal protrusion on the second compressive surface. The seal protrusions may be shaped such that the base is wide and narrows toward a contacting end thereof, wherein the contacting end is in contact with a surface of a flow field plate. The geometry and positions of the seal protrusions can be adjusted to optimize the contact pressure on the edge seal member and contacting points thereof.
    • 膜电极组件包括边缘密封构件,边缘密封构件具有第一压缩表面和相对的第二压缩表面,其中第一压缩表面包括密封突起,并且相对的第二压缩包括内部 和外部密封突起。 第一压缩表面上的密封突出部相对于第二压缩表面上的内部密封突出部和外部密封突出部非对称地定位,使得密封突出部在第一压缩表面上的中心线位于内部密封突出部的中心线与 在第二压缩表面上的外密封突起的中心线。 密封突起可以被成形为使得基部宽且朝向其接触端变窄,其中接触端与流场板的表面接触。 可以调节密封突起的几何形状和位置,以优化边缘密封构件和其接触点上的接触压力。