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    • 3. 发明授权
    • Hydrocarbon reforming catalyst material and configuration of the same
    • 烃重整催化剂材料及其构造
    • US5527631A
    • 1996-06-18
    • US539814
    • 1995-10-04
    • Prabhakar SinghLarry A. ShocklingRaymond A. GeorgeRichard A. Basel
    • Prabhakar SinghLarry A. ShocklingRaymond A. GeorgeRichard A. Basel
    • F02M27/02B01J23/78B01J23/89B01J35/02B01J35/04C01B3/40H01M8/06H01M8/18H01M8/10
    • C01B3/40B01J35/02B01J35/04H01M8/0625C01B2203/1041C01B2203/1052C01B2203/107C01B2203/1082Y02P20/52
    • A hydrocarbon reforming catalyst material comprising a catalyst support impregnated with catalyst is provided for reforming hydrocarbon fuel gases in an electrochemical generator. Elongated electrochemical cells convert the fuel to electrical power in the presence of an oxidant, after which the spent fuel is recirculated and combined with a fresh hydrocarbon feed fuel forming the reformable gas mixture which is fed to a reforming chamber containing a reforming catalyst material, where the reforming catalyst material includes discrete passageways integrally formed along the length of the catalyst support in the direction of reformable gas flow. The spent fuel and/or combusted exhaust gases discharged from the generator chamber transfer heat to the catalyst support, which in turn transfers heat to the reformable gas and to the catalyst, preferably via a number of discrete passageways disposed adjacent one another in the reforming catalyst support. The passageways can be slots extending inwardly from an outer surface of the support body, which slots are partly defined by an exterior confining wall. According to a preferred embodiment, the catalyst support is non-rigid, porous, fibrous alumina, wherein the fibers are substantially unsintered and compressible, and the reforming catalyst support is impregnated, at least in the discrete passageways with Ni and MgO, and has a number of internal slot passageways for reformable gas, the slot passageways being partly closed by a containing outer wall.
    • 提供了一种包含浸渍有催化剂的催化剂载体的烃重整催化剂材料,用于在电化学发生器中重整碳氢化合物燃料气体。 细长的电化学电池在氧化剂存在下将燃料转化为电力,之后废燃料再循环并与形成可重整气体混合物的新鲜烃进料燃料组合,该可重整气体混合物被供给到含有重整催化剂材料的重整室,其中 重整催化剂材料包括沿可催化气体流动方向沿催化剂载体的长度一体形成的离散通道。 从发生器室排放的乏燃料和/或燃烧的废气将热量转移到催化剂载体,催化剂载体又将热量转移到可重整气体和催化剂,优选通过在重整催化剂中彼此相邻设置的多个离散通道 支持。 通道可以是从支撑体的外表面向内延伸的槽,该狭缝部分地由外部限制壁限定。 根据优选的实施方案,催化剂载体是非刚性多孔的纤维状氧化铝,其中纤维基本上是未烧结和可压缩的,并且重整催化剂载体至少在具有Ni和MgO的离散通道中浸渍,并且具有 用于可重整气体的内槽通道的数量,槽通道由容纳的外壁部分地封闭。
    • 5. 发明授权
    • Tubular polymeric membrane fuel cell system
    • 管状聚合物膜燃料电池系统
    • US06376116B1
    • 2002-04-23
    • US09570247
    • 2000-05-12
    • Prabhakar SinghPam H. DawsonVijay K. Garg
    • Prabhakar SinghPam H. DawsonVijay K. Garg
    • H01M802
    • H01M8/2484H01M8/0271H01M8/04089H01M8/04156H01M8/0612H01M8/2415H01M8/249
    • A tubular polymeric membrane fuel cell mechanically integrated through upper and lower manifolds that also acts as power leads to the fuel cell. The fuel cell of the present invention can be stacked and multiple fuel cell stacks can be arranged in a series and parallel format. According to the manifold design of the present invention, the dual-purpose manifolds allow the fuel cell system to operate under low parasitic power loss conditions, thereby simplifying and improving the system. In addition, the mechanically integrated fuel cell structure of the present invention does not require external clamping. The manifold design of the present invention mechanically integrates the fuel cells and the fuel cell stacks without the need for external clamping.
    • 机械地通过上歧管和下歧管机械地集成的管状聚合物膜燃料电池也用作电力通向燃料电池。 本发明的燃料电池可以堆叠,并且多个燃料电池堆可以以串联和并联的形式布置。 根据本发明的歧管设计,两用歧管允许燃料电池系统在低的寄生功率损耗条件下工作,从而简化和改进系统。 此外,本发明的机械一体化的燃料电池结构不需要外部夹紧。 本发明的歧管设计机械地将燃料电池和燃料电池堆集成在一起,而不需要外部夹紧。
    • 10. 发明授权
    • Method of manufacturing thin metal alloy foils
    • 薄金属合金箔的制造方法
    • US06315820B1
    • 2001-11-13
    • US09420620
    • 1999-10-19
    • George Steve SalokaMujeeb Ismael IjazPrabhakar Singh
    • George Steve SalokaMujeeb Ismael IjazPrabhakar Singh
    • B01D5322
    • C01B3/505B32B15/01C22C1/00C23C14/0005Y10S55/05Y10T428/12438Y10T428/12875Y10T428/12903
    • A method of manufacturing thin foil alloys through a series of steps. A carrier having a polished carrier surface is placed within a deposition chamber. The carrier surface is generally polished to a mirrored surface finish. A sacrificial layer is applied atop the carrier surface. The sacrificial layer is made of a material that may be easily dissolved or separated from the carrier surface to remove the metal foil. The carrier surface and sacrificial layer are placed within the deposition chamber. The sacrificial layer is exposed to an evaporated first metal which becomes deposited upon the sacrificial layer. An evaporated second metal is then applied concurrently or sequentially with the first metal. The first and second evaporated metals solidify on the sacrificial layer to form a multilayer foil. At this point, the multilayer foil includes discrete layers or areas of the evaporated metals.
    • 通过一系列步骤制造薄箔合金的方法。 具有抛光载体表面的载体被放置在沉积室内。 载体表面通常被抛光成镜面表面光洁度。 在载体表面上施加牺牲层。 牺牲层由可容易地从载体表面溶解或分离以除去金属箔的材料制成。 载体表面和牺牲层被放置在沉积室内。 牺牲层暴露于沉积在牺牲层上的蒸发的第一金属。 然后与第一金属同时或顺序地施加蒸发的第二金属。 第一和第二蒸发金属在牺牲层上固化以形成多层箔。 在这一点上,多层箔包括离散的层或蒸发的金属的区域。