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    • 1. 发明授权
    • High molecular weight direct antifreeze cooled fuel cell
    • 高分子量直接防冻冷却燃料电池
    • US06911275B2
    • 2005-06-28
    • US10194122
    • 2002-07-12
    • H. Harvey MichelsRichard D. Breault
    • H. Harvey MichelsRichard D. Breault
    • H01M8/10H01M8/04
    • H01M8/0267H01M8/0258H01M8/04029H01M8/04223H01M8/04225
    • A high molecular weight direct antifreeze cooled fuel cell 10 includes an electrolyte 52 secured between an anode catalyst 54 and a cathode catalyst 56; a porous anode substrate 58 secured in direct fluid communication with and supporting the anode catalyst 54; a porous wetproofed cathode substrate 62 secured in direct fluid communication with and supporting the cathode catalyst 56; a porous water transport plate 64 secured in direct fluid communication with the porous cathode substrate 62; and, a high molecular weight direct antifreeze solution passing through the porous water transport plate 64 to cool and remove product water from the fuel cell 10. The high molecular weight direct antifreeze solution preferably includes polyethylene glycol having a molecular weight ranging from 200 to 8,000 AMU. The direct antifreeze solution does not leave the water transport plate 64 in significant quantities to poison the catalysts.
    • 高分子量直接防冻冷却燃料电池10包括固定在阳极催化剂54和阴极催化剂56之间的电解质52; 与阳极催化剂54直接流体连通并支撑阳极催化剂54的多孔阳极基板58; 与阴极催化剂56直接流体连通并支撑阴极催化剂56的多孔耐湿阴极基板62; 与多孔阴极基板62直接流体连通地固定的多孔水输送板64; 以及通过多孔水传输板64的高分子量直接防冻溶液,以冷却和从燃料电池10中除去产物水。高分子量直接防冻溶液优选包括分子量范围为200至8,000AMU的聚乙二醇 。 直接防冻溶液不会使水输送板64大量离开以使催化剂中毒。
    • 3. 发明申请
    • HEAT TREAT CONFIGURATION FOR POROUS CARBON-CARBON COMPOSITES
    • 多孔碳复合材料的热处理配置
    • US20100230031A1
    • 2010-09-16
    • US12739205
    • 2007-12-17
    • Richard D. Breault
    • Richard D. Breault
    • H01M4/88B29C65/02
    • B65G57/00C04B35/64C04B35/83C04B2235/9623H01M8/0234H01M8/0245H01M8/086H01M2008/1095Y02E60/50
    • A method of heat treating a substrate for a fuel cell includes stacking substrates to form a group. A dimension is determined for a plate corresponding to a resulting mass that is less than a predetermined mass. The plate is arranged above the group to apply a weight of the plate to the group. The resulting masses for spacer plates and intermediate lifting plates, for example, are minimized to reduce the pressure differential between the bottom and top substrates in the heat treat assembly. In another disclosed method, a dimension for a plate, such as a top plate, is determined that corresponds to a resulting mass that is greater than a predetermined mass. The plate is arranged above the group to apply a weight of the plate to the group. The top plate resulting mass is selected to minimize a variation in the average pressure of the substrates throughout the heat treat assembly.
    • 一种用于燃料电池的基板的热处理方法包括堆叠基板以形成一组。 对于对应于小于预定质量的所得质量的板来确定尺寸。 板被布置在组上方以将板的重量施加到组。 例如,用于间隔板和中间提升板的所得质量被最小化以减少热处理组件中的底部和顶部基底之间的压力差。 在另一公开的方法中,确定板的尺寸,例如顶板,其对应于大于预定质量的所得质量。 板被布置在组上方以将板的重量施加到组。 选择顶板产生的质量以最小化整个热处理组件中的基底的平均压力的变化。
    • 5. 发明授权
    • Passive water management system for a fuel cell power plant
    • 燃料电池发电厂被动水管理系统
    • US07063907B2
    • 2006-06-20
    • US10612688
    • 2003-07-02
    • Richard D. Breault
    • Richard D. Breault
    • H01M8/04
    • H01M8/04029H01M8/04134H01M8/04156
    • The invention includes an anode fuel flow field (100) adjacent a fuel cell (12) electrolyte (18) that defines a fuel path (102) between a fuel inlet (108) and a fuel outlet (110) and includes a cooler plate (118) in heat exchange relationship with the anode fuel flow field (100) that defines a coolant path (120) between a coolant inlet (126) and a coolant outlet (128). The fuel path (102) has a width (132) that is about the same as a width (134) of the coolant path (120) where the fuel path (102) and the coolant path (120) are closest to each other, and the fuel path (102) substantially overlies the coolant path (120) to minimize evaporation of water from water management flow fields (20) (22) and/or the electrolyte (18) into the fuel within the fuel path (102).
    • 本发明包括邻近燃料电池(12)电解质(18)的阳极燃料流场(100),其限定燃料入口(108)和燃料出口(110)之间的燃料路径(102),并包括冷却器板 118)与限定冷却剂入口(126)和冷却剂出口(128)之间的冷却剂路径(120)的阳极燃料流场(100)的热交换关系。 燃料路径(102)具有与燃料路径(102)和冷却剂路径(120)彼此最接近的冷却剂路径(120)的宽度(134)大致相同的宽度(132) 并且燃料路径(102)基本上覆盖在冷却剂路径(120)上,以使来自水管理流场(20)(22)和/或电解质(18)的水的蒸发最小化到燃料路径(102)内的燃料中。
    • 9. 发明授权
    • Fuel cell power plant having a reduced free water volume
    • 具有减少的自由水体积的燃料电池发电厂
    • US06699612B2
    • 2004-03-02
    • US10034739
    • 2001-12-26
    • Richard D. BreaultLeslie L. Van Dine
    • Richard D. BreaultLeslie L. Van Dine
    • H01M0804
    • H01M8/04225H01M8/0267H01M8/04022H01M8/04029H01M8/04156H01M8/04223H01M8/04302H01M8/0662
    • The invention reduces free water volume in a fuel cell power plant so support systems of the plant are freeze tolerant. The fuel cell power plant includes a coolant system having a sealed cooler plate that circulates an antifreeze coolant in heat exchange with a fuel cell and that collects fuel cell water; a water vapor removal system that removes water vapor from the antifreeze coolant to regulate the antifreeze concentration; and a start-up system having a start-up heat exchanger and a start-up valve that selectively direct heated antifreeze coolant into the cooler plate for a start-up procedure. The plant may also include a fuel processing system that utilizes the removed water vapor, and that is in heat exchange with the start-up heat exchanger. The antifreeze coolant is a low vapor pressure solution, such as an alkanetriol or polyethylene glycol.
    • 本发明减少燃料电池发电厂中的自由水体积,因此该设备的支撑系统是耐冻的。 燃料电池发电厂包括冷却剂系统,该冷却剂系统具有密封的冷却器板,其与防燃剂冷却剂循环,与燃料电池进行热交换并且收集燃料电池水; 水蒸气去除系统,其从防冻剂冷却剂中去除水蒸气以调节防冻液浓度; 以及具有启动热交换器和启动阀的启动系统,其将加热的防冻冷却剂选择性地引导到用于启动程序的冷却器板中。 该设备还可以包括利用去除的水蒸气并与起动热交换器进行热交换的燃料处理系统。 防冻剂冷却剂是低蒸气压溶液,例如烷三醇或聚乙二醇。