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    • 83. 发明授权
    • Method of manufacturing lithium secondary cell
    • 锂二次电池的制造方法
    • US06610109B2
    • 2003-08-26
    • US09852843
    • 2001-05-11
    • Hyung-gon Noh
    • Hyung-gon Noh
    • H01M1004
    • H01M10/052H01M2/1653H01M2/1686H01M4/04H01M4/139H01M4/525H01M4/587H01M6/181H01M6/40H01M10/04H01M10/0525H01M10/0565H01M10/058Y10T29/49112Y10T29/49115
    • A method of manufacturing a lithium secondary cell includes preparing an anode precursor and a cathode precursor by coating current collectors with electrode compositions, each not containing a plasticizer, preparing a separator precursor by coating both sides of a porous polymer film which is not gelled by an electrolytic solution with slurry containing an ion conductive polymer and the plasticizer, laminating the anode and cathode precursors and the separator precursor to prepare a cell precursor, and activating the cell precursor by injecting the electrolytic solution into the cell precursor. In the method of manufacturing method of the lithium secondary cell, the lithium secondary cell can be manufactured without a process of extracting a plasticizer using an organic solvent. Thus, environmental contamination due to plasticizer extraction can be prevented, thereby reducing the manufacturing cost of batteries.
    • 锂二次电池的制造方法包括:通过用不含增塑剂的电极组合物涂布集电体来制备阳极前体和阴极前体,通过涂布未凝胶化的多孔聚合物膜的两面来制备隔膜前体 含有离子导电聚合物和增塑剂的浆料的电解溶液,层压阳极和阴极前体和隔离物前体以制备细胞前体,并通过将电解质溶液注入细胞前体来活化细胞前体。 在锂二次电池的制造方法中,可以在不使用有机溶剂萃取增塑剂的方法的情况下制造锂二次电池。 因此,可以防止由于增塑剂提取引起的环境污染,从而降低电池的制造成本。
    • 89. 发明申请
    • Method of forming a package for mems-based fuel cell
    • 形成基于mems的燃料电池封装的方法
    • US20030064275A1
    • 2003-04-03
    • US09967145
    • 2001-09-28
    • The Regents of the University of California
    • Jeffrey D. MorseAlan F. Jankowski
    • H01M008/02H01M008/04B32B031/00
    • H01M8/247H01M8/04007H01M8/2404H01M8/241Y10T29/49108Y10T29/4911Y10T29/49112Y10T29/49114Y10T29/53135Y10T156/1057
    • A MEMS-based fuel cell package and method thereof is disclosed. The fuel cell package comprises seven layers: (1) a sub-package fuel reservoir interface layer, (2) an anode manifold support layer, (3) a fuel/anode manifold and resistive heater layer, (4) a Thick Film Microporous Flow Host Structure layer containing a fuel cell, (5) an air manifold layer, (6) a cathode manifold support structure layer, and (7) a cap. Fuel cell packages with more than one fuel cell are formed by positioning stacks of these layers in series and/or parallel. The fuel cell package materials such as a molded plastic or a ceramic green tape material can be patterned, aligned and stacked to form three dimensional microfluidic channels that provide electrical feedthroughs from various layers which are bonded together and mechanically support a MEMS-based miniature fuel cell. The package incorporates resistive heating elements to control the temperature of the fuel cell stack. The package is fired to form a bond between the layers and one or more microporous flow host structures containing fuel cells are inserted within the Thick Film Microporous Flow Host Structure layer of the package.
    • 公开了一种基于MEMS的燃料电池组件及其方法。 燃料电池组件包括七层:(1)一个子包装燃料储存器界面层,(2)一个阳极歧管支撑层,(3)燃料/阳极歧管和电阻加热器层,(4)厚膜微孔流 包含燃料电池的主体结构层,(5)空气歧管层,(6)阴极歧管支撑结构层,和(7)盖。 具有多于一个燃料电池的燃料电池组件通过将这些层的堆叠定位成串联和/或平行而形成。 诸如模制塑料或陶瓷生胶带材料的燃料电池封装材料可以被图案化,对准和堆叠以形成三维微流体通道,其提供来自各种层的电馈通,这些层通过粘合在一起并机械地支撑基于MEMS的微型燃料电池 。 该封装包含电阻加热元件以控制燃料电池堆的温度。 烧结包装以形成层之间的结合,并且将一个或多个含有燃料电池的微孔流动主体结构插入到包装的厚膜微孔流动主体结构层内。