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    • 1. 发明申请
    • Control of a fluid flow in an electrochemical cell
    • 控制电化学电池中的流体流动
    • US20110097648A1
    • 2011-04-28
    • US10524224
    • 2003-08-04
    • Felix Blank
    • Felix Blank
    • H01M8/04
    • H01M8/0265C25B9/00C25B15/08H01M8/0202H01M8/0258H01M8/0267H01M8/0438
    • The invention relates to an electrochemical cell, especially a proton exchange membrane fuel cell (PEM fuel cell) or an electrolysis cell which displays improved efficiency as a result of improved temperature or moisture distribution and/or reactant distribution inside said cell. The invention is characterized in that in an electrochemical cell, comprising a channel structure for feeding, circulating and discharging fluids necessary for the operation of said cell, at least one element (4, 7, 8, 9-14, 22, 23, 29, 40, 48, 49) modifying the flow cross-section is integrated into at least one channel (2, 15, 26, 27, 37) of the channel structure for automatic control of at least one fluid flow (5, 24, 33, 34).
    • 本发明涉及一种电化学电池,特别是质子交换膜燃料电池(PEM燃料电池)或电解电池,其由于温度或水分分布和/或反应物分布在所述电池内部而改善效率。 本发明的特征在于,在电化学电池中,包括用于供给,循环和排出所述电池操作所必需的流体的通道结构,至少一个元件(4,7,8,9-14,22,23,29 ,40,48,49)将所述流动横截面改变为所述通道结构的至少一个通道(2,15,26,27,37),用于自动控制至少一个流体流(5,24,33) ,34)。
    • 2. 发明授权
    • Matching of the local area-specific gas flows in PEM fuel cells
    • 在PEM燃料电池中匹配局部特定气体流量
    • US07465513B2
    • 2008-12-16
    • US10852658
    • 2004-05-25
    • Felix BlankCosmas Heller
    • Felix BlankCosmas Heller
    • H01M8/00
    • H01M8/04179H01M8/0263H01M8/0265H01M8/04291H01M2008/1095
    • A passage structure for PEM fuel cells is configured locally differently in order to adapt the flow of gas on the membrane electrode assembly (MEA). Starting from the cathode entry port, the active gas volumetric flow per unit area on the MEA is locally varied by changing the number and/or cross section of the gas-carrying passages, so that the flow decreases toward the cathode exit port. Suitable configuration of the passage structure according to the invention allows the steam partial pressure to be optimally matched to the local conditions. The mass conversion is improved in these regions as a result without the electrolyte's drying out. At locations in the flowfield with a low gas humidity, the measures according to the invention (increased number of passages or passage width) significantly reduce the flow velocity. As a result, the transfer of water from the MEA to the gas flow is reduced and drying of the MEA is diminished.
    • 用于PEM燃料电池的通道结构被局部地配置以便适应膜电极组件(MEA)上的气体流。 从阴极入口开始,MEA上每单位面积的活性气体体积流量通过改变气体输送通道的数量和/或横截面而局部变化,使得流向阴极出口减少。 根据本发明的通道结构的合适构造允许蒸汽分压与局部条件最佳地匹配。 结果,在这些区域中质量转化率得到改善,没有电解质干燥。 在具有低气体湿度的流场中的位置处,根据本发明的措施(增加的通道数或通道宽度)显着降低了流速。 结果,水从MEA向气流的转移减少,MEA的干燥减弱。
    • 5. 发明授权
    • Method for managing interrupt signals in a real-time computer system
    • 用于管理实时计算机系统中的中断信号的方法
    • US5875341A
    • 1999-02-23
    • US719413
    • 1996-09-24
    • Felix BlankPeter SchicklinskiBettina SterrUrsula Wiesinger
    • Felix BlankPeter SchicklinskiBettina SterrUrsula Wiesinger
    • G06F9/48G06F13/24G06F13/00
    • G06F9/4812G06F13/24
    • A method for the operation of a computer system controlled by a real-time operating system, which computer system processes interrupt signals. Upon the occurrence of an interrupt signal, the computer system interrupts a program that is to be processed at that time. The acceptance of further interrupt signals is blocked, and an interrupt routine belonging to this interrupt signal is called. During the processing of this interrupt routine, a first part of the program parameters of the program that is interrupted upon the occurrence of the interrupt signal is intermediately stored, and at least one datum concerning the interrupt signal is stored in an interrupt memory. A branching takes place from the interrupt routine to an interrupt management routine (IVR), whereby the acceptance of further interrupt signals is again cleared during the processing of the IVR. During the processing of the IVR, the datum belonging to the interrupt signal is erased; the remaining part of the program parameters of the program that is interrupted upon the occurrence of the interrupt signal is intermediately stored. Dependent on the datum concerning the interrupt signal, at least one reaction routine belonging to this interrupt signal is activated. After the processing of the IVR, the operating system branches back to the program that was interrupted upon the occurrence of the interrupt signal, using the intermediately stored program parameters.
    • 一种用于由实时操作系统控制的计算机系统的操作的方法,该计算机系统处理中断信号。 当发生中断信号时,计算机系统中断当时要处理的程序。 阻止进一步中断信号的接受,并且调用属于该中断信号的中断程序。 在处理该中断程序期间,中断信号中断的程序的程序参数的第一部分被中间存储,并且关于中断信号的至少一个数据被存储在中断存储器中。 从中断程序发生到中断管理程序(IVR)的分支,从而在IVR处理期间再次清除进一步中断信号的接受。 在处理IVR期间,属于中断信号的数据被擦除; 中断信号中断的程序的程序参数的剩余部分被中间存储。 根据有关中断信号的数据,至少有一个属于该中断信号的反应程序被激活。 在处理IVR之后,操作系统使用中间存储的程序参数分支回中断信号发生中断的程序。
    • 7. 发明授权
    • Separator plate unit with inclined separating wall having at least one metering point and fuel cell having separator plate unit thereof
    • 具有至少一个计量点的倾斜分隔壁和具有分隔板单元的燃料电池的分离板单元
    • US08173321B2
    • 2012-05-08
    • US12303301
    • 2007-05-04
    • Felix Blank
    • Felix Blank
    • H01M2/38H01M2/40H01M8/24H01M8/10H01M8/04H01M4/02H01M4/36
    • H01M8/0265H01M8/0232H01M8/0245H01M8/0256H01M8/04104H01M8/04126H01M8/1007
    • The invention relates to a fuel cell having a membrane electrode arrangement (16) arranged between two separator plate units (44), a first fluid area (12) for distribution of a first fluid which is adjacent to one side of the membrane-electrode arrangement (16), a second fluid area (14) for distribution of a second fluid which is adjacent to a side of the membrane-electrode arrangement (16) opposite this side, with a separating wall (36) being arranged in at least one fluid area (12) and subdividing the fluid area (12) into at least one metering area (32) and one fluid subarea (34), with the at least one metering area (32) having a fluid connection to the adjacent fluid subarea (34) at at least one metering point (38), such that the first fluid can be metered from the metering area (32) through the metering point (38) into the adjacent fluid subarea (34). According to the invention, starting from an input point (24), at the edge, for the first fluid into the fluid area (12), a cross section of the fluid subarea (34) increases in the flow direction (40) of the first fluid towards an output port (26).
    • 本发明涉及一种具有布置在两个隔板单元(44)之间的膜电极装置(16)的燃料电池,用于分配第一流体的第一流体区域(12),该第一流体区域邻近膜 - 电极装置 (16),用于分配第二流体的第二流体区域(14),所述第二流体区域与所述膜 - 电极装置(16)的与该侧面相对的一侧相邻,分隔壁(36)布置在至少一个流体 区域(12)并且将流体区域(12)细分成至少一个计量区域(32)和一个流体分区域(34),其中所述至少一个计量区域(32)具有与相邻流体子区域(34)的流体连接 )在至少一个计量点(38)处,使得第一流体可以从计量区域(32)通过计量点(38)计量到相邻的流体分区域(34)中。 根据本发明,从输入点(24)开始,在边缘处,对于第一流体进入流体区域(12),流体分区域(34)的横截面在流体方向(40)上增加 第一流体朝向输出端口(26)。
    • 8. 发明授权
    • Internally gas regulated fuel cell
    • 内部气体调节燃料电池
    • US08039170B2
    • 2011-10-18
    • US13068750
    • 2011-05-19
    • Felix BlankCosmas Heller
    • Felix BlankCosmas Heller
    • H01M8/04H01M2/40H01M8/06
    • H01M8/0258H01M8/0267H01M8/04029H01M8/04089
    • A fuel cell includes a membrane electrode assembly (MEA) and at least one bipolar plate having an anode-side gas distributor structure for distributing anode reactants, a cathode-side gas distributor structure for distributing cathode reactants, and a guide passage structure for distributing a cooling medium. At least one of the anode-side gas distributor structure and the cathode-side gas distributor structure is divided into at least a first field and a second field, each of the first and second fields having an entry port and an exit port for the reactants. In addition, a method for such a fuel cell includes passing a reactant into an entry port of the first field and out of an exit port of the first field, mixing the reactant with a fresh reactant so as to form a mixture, and passing the mixture into the entry port of the second field.
    • 燃料电池包括膜电极组件(MEA)和至少一个具有用于分配阳极反应物的阳极侧气体分配器结构的双极板,用于分配阴极反应物的阴极侧气体分配器结构和用于分配阴极反应物的引导通道结构 冷却介质。 阳极侧气体分配器结构和阴极侧气体分配器结构中的至少一个被分成至少第一场和第二场,第一和第二场中的每一个具有用于反应物的入口和出口 。 此外,这种燃料电池的方法包括使反应物进入第一场的入口并离开第一场的出口,将反应物与新鲜的反应物混合以形成混合物,并使 混合进入第二场的入口。
    • 9. 发明申请
    • Internally gas regulated fuel cell
    • 内部气体调节燃料电池
    • US20060014071A1
    • 2006-01-19
    • US10523067
    • 2003-07-02
    • Felix BlankCosmas Heller
    • Felix BlankCosmas Heller
    • H01M8/02H01M8/04
    • H01M8/0258H01M8/0267H01M8/04029H01M8/04089
    • A fuel cell includes a membrane electrode assembly (MEA) and at least one bipolar plate having an anode-side gas distributor structure for distributing anode reactants, a cathode-side gas distributor structure for distributing cathode reactants, and a guide passage structure for distributing a cooling medium. At least one of the anode-side gas distributor structure and the cathode-side gas distributor structure is divided into at least a first field and a second field, each of the first and second fields having an entry port and an exit port for the reactants. In addition, a method for such a fuel cell includes passing a reactant into an entry port of the first field and out of an exit port of the first field, mixing the reactant with a fresh reactant so as to form a mixture, and passing the mixture into the entry port of the second field.
    • 燃料电池包括膜电极组件(MEA)和至少一个具有用于分配阳极反应物的阳极侧气体分配器结构的双极板,用于分配阴极反应物的阴极侧气体分配器结构和用于分配阴极反应物的引导通道结构 冷却介质。 阳极侧气体分配器结构和阴极侧气体分配器结构中的至少一个被分成至少第一场和第二场,第一和第二场中的每一个具有用于反应物的入口和出口 。 此外,这种燃料电池的方法包括使反应物进入第一场的入口并离开第一场的出口,将反应物与新鲜的反应物混合以形成混合物,并使 混合进入第二场的入口。
    • 10. 发明申请
    • Matching of the local area-specific gas flows in PEM fuel cells
    • 在PEM燃料电池中匹配局部特定气体流量
    • US20050019647A1
    • 2005-01-27
    • US10852658
    • 2004-05-25
    • Felix BlankCosmas Heller
    • Felix BlankCosmas Heller
    • H01M2/00H01M2/02H01M2/14H01M8/00H01M8/02H01M8/04H01M8/10
    • H01M8/04179H01M8/0263H01M8/0265H01M8/04291H01M2008/1095
    • A passage structure for PEM fuel cells is configured locally differently in order to adapt the flow of gas on the membrane electrode assembly (MEA). Starting from the cathode entry port, the active gas volumetric flow per unit area on the MEA is locally varied by changing the number and/or cross section of the gas-carrying passages, so that the flow decreases toward the cathode exit port. Suitable configuration of the passage structure according to the invention allows the steam partial pressure to be optimally matched to the local conditions. The mass conversion is improved in these regions as a result without the electrolyte's drying out. At locations in the flowfield with a low gas humidity, the measures according to the invention (increased number of passages or passage width) significantly reduce the flow velocity. As a result, the transfer of water from the MEA to the gas flow is reduced and drying of the MEA is diminished.
    • 用于PEM燃料电池的通道结构被局部地配置以便适应膜电极组件(MEA)上的气体流。 从阴极入口开始,MEA上每单位面积的活性气体体积流量通过改变气体输送通道的数量和/或横截面而局部变化,使得流向阴极出口减少。 根据本发明的通道结构的合适构造允许蒸汽分压与局部条件最佳地匹配。 结果,在这些区域中质量转化率得到改善,没有电解质干燥。 在具有低气体湿度的流场中的位置处,根据本发明的措施(增加的通道数或通道宽度)显着降低了流速。 结果,水从MEA向气流的转移减少,MEA的干燥减弱。