Electrode for electrolytic capacitor and process of producing the same
    2.
    发明公开
    Electrode for electrolytic capacitor and process of producing the same 有权
    ElektrodefürElektrolytkondensator und Herstellungsverfahren

    公开(公告)号:EP1045410A3

    公开(公告)日:2004-11-24

    申请号:EP00107863.3

    申请日:2000-04-12

    CPC classification number: H01G9/052 Y10T29/417

    Abstract: This invention provides an anodic electrode for an electrolytic capacitor having high capacitance with low-resistance properties at high frequencies and is capable of carrying large current, and a process of producing the same. Such an anodic electrode for electrolytic capacitor includes a porous body that have micropores to be formed with dielectric layer therein and to be filled with electrolyte therein, wherein the porous body includes a laminate of a plurality of sinter layers having the micropores formed from valve metal particles. The laminate includes multilaminarly smaller micropore-size regions and larger micropore-size regions to form electric conductive passages between the smaller micropore-size regions and side surfaces of the porous body to reduce resistance of the capacitor and also increase capacitance by utilizing the smaller micropores-size regions for capacitor effectively. The porous body is formed by stacking a plurality of porous preforms such as sheets preformed of valve metal powder into a laminate, and then sintering the laminate. The porous body may be joined with a valve metal substrate during sintering, thereby completing the anodic electrode for an electrolytic capacitor. Particularly, the porous body may be a laminate including large micropore-size sinter layers and small micropore size sinter layers, by alternatively laminating two types of preforms different in its density.

    Abstract translation: 本发明提供了一种用于电解电容器的阳极电极,其具有高电容性,并且能够承受大电流的低电阻特性,以及制造该电极的方法。 这种用于电解电容器的阳极电极包括多孔体,其具有在其中形成有电介质层的微孔并且在其中填充电解质,其中多孔体包括具有由阀金属颗粒形成的微孔的多个烧结层的层压体 。 层压体包括多层较小的微孔尺寸区域和较大的微孔尺寸区域,以在多孔体的较小的微孔尺寸区域和侧表面之间形成导电通道,以降低电容器的电阻并且还通过利用较小的微孔尺寸区域增加电容, 电容器的大小区域有效。 多孔体通过将预先形成有阀金属粉末的多个多孔预成型体叠层在层叠体中而形成,然后烧结层叠体。 多孔体可以在烧结时与阀金属基板接合,从而完成电解电容器的阳极电极。 特别地,多孔体可以是通过交替层压两种类型的密度不同的预成型体的层叠体,其包括大的微孔尺寸的烧结层和小的微孔烧结层。

    Angular velocity sensor
    3.
    发明公开
    Angular velocity sensor 失效
    Winkelgeschwindigkeitssensor。

    公开(公告)号:EP0406891A1

    公开(公告)日:1991-01-09

    申请号:EP90112947.8

    申请日:1990-07-06

    CPC classification number: G01C19/5607 G01P1/006

    Abstract: An angular velocity sensor (10) includes a pair of vibratory piezoelectric detecting elements (11a, 11b) whose detecting planes (D1, D2) are disposed in symmetry about a plane (S) containing the sense axis (18) and out of right-­angled orientation with respect to this plane (S). The detecting elements thus arranged assume a widely spread or flattened V-shaped configuration as viewed from above. Output signals of opposite polarities received from the respective detecting elements are weighted respectively and added together so as to cancel out unwanted leak component signals. Thus, leak component signals resulting from assem­bling tolerances can be canceled can be offset. In this instance, if the characteristics of two sensor elements (17a, 17b) each including one of the detecting element are fully equivalent, a leak component signal dependent on a disturbing inertial force can simultaneously be canceled out. With this construction, the variation of the offset voltage can be reduced even when the sensor is subjected a great change in environmental conditions including tempera­ture.

    Abstract translation: 角速度传感器(10)包括一对振动压电检测元件(11a,11b),其检测平面(D1,D2)围绕包含感测轴线(18)的平面(S)对称地设置, 相对于该平面(S)的倾斜取向。 如此布置的检测元件呈现从上方观察到的广泛扩展或扁平的V形构造。 从相应的检测元件接收到的相反极性的输出信号被分别加权并相加在一起以消除不想要的泄漏分量信号。 因此,可以抵消由组装公差产生的泄漏分量信号。 在这种情况下,如果每个包括检测元件中的一个的两个传感器元件(17a,17b)的特性完全等效,则可以同时消除取决于干扰惯性力的泄漏分量信号。 通过这种结构,即使当传感器经受包括温度在内的环境条件的巨大变化时,偏移电压的变化也可以减小。

    Electrode for electrolytic capacitor and process of producing the same
    4.
    发明公开
    Electrode for electrolytic capacitor and process of producing the same 有权
    Anodische ElektrodefürElektrolytkondensator und Verfahren zu ihrer Herstellung

    公开(公告)号:EP1045410A2

    公开(公告)日:2000-10-18

    申请号:EP00107863.3

    申请日:2000-04-12

    CPC classification number: H01G9/052 Y10T29/417

    Abstract: This invention provides an anodic electrode for an electrolytic capacitor having high capacitance with low-resistance properties at high frequencies and is capable of carrying large current, and a process of producing the same. Such an anodic electrode for electrolytic capacitor includes a porous body that have micropores to be formed with dielectric layer therein and to be filled with electrolyte therein, wherein the porous body includes a laminate of a plurality of sinter layers having the micropores formed from valve metal particles. The laminate includes multilaminarly smaller micropore-size regions and larger micropore-size regions to form electric conductive passages between the smaller micropore-size regions and side surfaces of the porous body to reduce resistance of the capacitor and also increase capacitance by utilizing the smaller micropores-size regions for capacitor effectively. The porous body is formed by stacking a plurality of porous preforms such as sheets preformed of valve metal powder into a laminate, and then sintering the laminate. The porous body may be joined with a valve metal substrate during sintering, thereby completing the anodic electrode for an electrolytic capacitor. Particularly, the porous body may be a laminate including large micropore-size sinter layers and small micropore size sinter layers, by alternatively laminating two types of preforms different in its density.

    Abstract translation: 本发明提供了一种用于电解电容器的阳极电极,其具有高电容性,并且能够承受大电流的低电阻特性,以及制造该电极的方法。 这种用于电解电容器的阳极电极包括多孔体,其具有在其中形成有电介质层的微孔并且在其中填充电解质,其中多孔体包括具有由阀金属颗粒形成的微孔的多个烧结层的层压体 。 层压体包括多层较小的微孔尺寸区域和较大的微孔尺寸区域,以在多孔体的较小的微孔尺寸区域和侧表面之间形成导电通道,以降低电容器的电阻并且还通过利用较小的微孔尺寸区域增加电容, 电容器的大小区域有效。 多孔体通过将预先形成有阀金属粉末的多个多孔预成型体叠层在层叠体中而形成,然后烧结层叠体。 多孔体可以在烧结时与阀金属基板接合,从而完成电解电容器的阳极电极。 特别地,多孔体可以是通过交替层压两种类型的密度不同的预成型体的层叠体,其包括大的微孔尺寸的烧结层和小的微孔烧结层。

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