Conductive metal porous sheet production
    1.
    发明授权
    Conductive metal porous sheet production 失效
    导电金属多孔板生产

    公开(公告)号:US5738907A

    公开(公告)日:1998-04-14

    申请号:US511270

    申请日:1995-08-04

    摘要: A porous product, typically a metal foam sheet, is produced as a tailored, engineered product. The porous product can have enhanced strength, as well as more desirable electrical and mechanical properties. The product which first exists typically as a flexible, generally polymeric foam sheet in strip form, which strip is produced in the longitudinal direction, is stretched in a direction other than its direction of production. The porous product can have pores which would be anisotropic in form in usual production, which are stretched to at least substantially isotropic form. The product can even be tailored to have pores which are anisotropic in the direction of the stretch. Thus, an engineered product can be produced which, for example, as an open-cell metal foam prepared from a polymeric foam can have conductivity, both thermal and electrical, as well as strength and ductility, tailored for greater uniformity and performance.

    摘要翻译: 通常是金属泡沫片材的多孔产品被生产为定制的工程产品。 多孔产品可以具有增强的强度,以及更理想的电气和机械性能。 首先通过沿纵向方向产生的条带形式的柔性的,通常是带状的聚合物泡沫片材,沿其生产方向以外的方向拉伸。 多孔产品可以具有在通常的生产中形成各向异性的孔,其被拉伸至至少基本上各向同性的形式。 该产品甚至可以被定制成具有在拉伸方向上各向异性的孔。 因此,可以生产工程产品,其例如作为由聚合物泡沫制备的开孔金属泡沫可以具有导热性,包括热和电,以及强度和延展性,适合于更大的均匀性和性能。

    Reserve battery
    2.
    发明授权
    Reserve battery 失效
    储备电池

    公开(公告)号:US5196276A

    公开(公告)日:1993-03-23

    申请号:US701899

    申请日:1991-05-17

    摘要: A compact reserve battery is disclosed comprising a cell housing, an expandable cell stack contained within a first portion of the housing, and an electrolyte reservoir contained within a second portion of the housing. The cell stack is expandable into the housing second portion, expansion of the cell stack displacing electrolyte from the electrolyte reservoir into the cell stack, thereby activating the battery.

    摘要翻译: 公开了一种紧凑的备用电池,其包括电池壳体,容纳在壳体的第一部分内的可膨胀电池组,以及容纳在壳体的第二部分内的电解质储存器。 电池堆可膨胀到壳体第二部分中,电池堆的膨胀将电解质从电解质储存器移位到电池堆中,从而启动电池。