電池加熱器システムおよび方法
    14.
    发明专利
    電池加熱器システムおよび方法 审中-公开
    电池加热器系统和方法

    公开(公告)号:JP2015043315A

    公开(公告)日:2015-03-05

    申请号:JP2014149347

    申请日:2014-07-23

    Abstract: 【課題】1つまたは複数の電池モジュールにおける電池加熱器に電力を供給するためのシステムおよび方法を提供する。【解決手段】加熱器電力供給回路130は、ACグリッド140から引き出された第1のDC電気信号またはDCバス150から引き出された第2のDC電気信号が、第2のDC電気信号の電圧レベルに対する第1のDC電気信号に関連する電圧レベルに応じて、1つまたは複数の加熱器を有する電池モジュール110の電池加熱器に電力を供給する。【選択図】図1

    Abstract translation: 要解决的问题:提供用于向一个或多个电池模块中的电池加热器供电的系统和方法。解决方案:在加热器电源电路130中,从AC电网140或第二DC电源得到的第一DC电信号 来自DC总线150的信号用于根据与第一DC电信号相关联的电压电平相对于第二DC电信号的电压电平为具有加热器的一个或多个电池模块110的电池加热器供电。

    Battery module
    16.
    发明专利
    Battery module 审中-公开
    电池模块

    公开(公告)号:JP2013025948A

    公开(公告)日:2013-02-04

    申请号:JP2011158202

    申请日:2011-07-19

    CPC classification number: H01M10/613 H01M10/6551 H01M10/657

    Abstract: PROBLEM TO BE SOLVED: To provide a battery module in which the number of components can be decreased while saving the space, in a configuration housing a plurality of batteries in a plurality of places.SOLUTION: The battery module 10 comprises a plurality of battery housing ducts 11, secondary batteries 13 housed in the battery housing ducts 11, and a duct 12 for temperature control of thermoelectric conversion element provided contiguously to the battery housing ducts 11 while being sandwiched by two battery housing ducts 11. A thermoelectric conversion element 15 is provided on the partition 14 of the battery housing duct 11 and the duct 12 for temperature control of thermoelectric conversion element. The thermoelectric conversion element 15 has a first face 15a and a second face 15b performing actions contrary to each other, i.e., heat dissipation and heat suction, depending on the polarity of electrification. The first face 15a is provided so as to correspond with the battery housing duct 11, and the second face 15b is provided so as to correspond with the duct 12 for temperature control of thermoelectric conversion element.

    Abstract translation: 要解决的问题:提供一种电池模块,其中可以在节省空间的同时减少部件数量,在多个地方容纳多个电池的结构中。 解决方案:电池模块10包括多个电池容纳管道11,容纳在电池容纳管道11中的二次电池13和用于温度控制的热电转换元件的管道12,其与电池容纳管道11连续设置,同时 夹在两个电池容纳管道11之间。热电转换元件15设置在电池容纳管道11的隔板14和用于热电转换元件的温度控制的管道12上。 热电转换元件15具有取决于通电极性的第一面15a和第二面15b,其执行相反的动作,即散热和热吸附。 第一面15a设置成与电池容纳管道11对应,并且第二面15b设置成与用于热电转换元件的温度控制的管道12相对应。 版权所有(C)2013,JPO&INPIT

    Thin heater module
    17.
    发明专利
    Thin heater module 有权
    加热器模块

    公开(公告)号:JP2012190689A

    公开(公告)日:2012-10-04

    申请号:JP2011054084

    申请日:2011-03-11

    Abstract: PROBLEM TO BE SOLVED: To provide a thin heater module capable of efficiently heating a battery module, and preventing direct contact with the battery module even when the thin heater module is vibrated or inclined.SOLUTION: A thin heater module 22L standing near and opposite to a heating face 13CLa of a battery module 13CL comprises an insulation holder 31, and a plate-like heater body 34 formed by adhering a plate-like heating element 32 and a uniform heat plate 33. The plate-like heater body 34 is provided along one side of the insulation holder 31. At that time, the plate-like heating element 32 is positioned near the insulation holder 31, and the uniform heat plate 33 is positioned near the battery module heating face 13CLa. The insulation holder 31 is provided with a heater body locking part 31a on its peripheral edge, and the plate-like heater body 34 is locked with the insulation holder 31 by the locking part 31a, and the heater body locking part 31a extends nearer the battery module heating face 13CLa than the plate-like heater body 34.

    Abstract translation: 要解决的问题:提供一种能够有效地加热电池模块的薄型加热器模块,并且即使当薄型加热器模块振动或倾斜时也防止与电池模块的直接接触。 解决方案:电池模块13CL的加热面13CLa的靠近且相对的薄的加热器模块22L包括绝缘支架31和板状加热器主体34,该板状加热器主体34通过将板状加热元件32和 平板状加热板33.沿绝缘支架31的一侧设置板状加热体34.此时,板状加热元件32位于绝缘支架31的附近,均匀的加热板33被定位 靠近电池模块加热面13CLa。 绝缘支架31在其周缘设置有加热器主体锁定部31a,并且板状加热器主体34通过锁定部31a与绝缘保持器31锁定,并且加热器主体锁定部31a延伸得更靠近电池 模块加热面13CLa比板状加热器主体34.版权所有:(C)2013,JPO&INPIT

    Battery with a conductor equipment
    18.
    发明专利

    公开(公告)号:JP2012518873A

    公开(公告)日:2012-08-16

    申请号:JP2011550459

    申请日:2010-02-12

    Abstract: The electrochemical energy accumulator apparatus (1) comprises a galvanic cell (2), a diverting device (3) assigned to the galvanic cell, a connecting device assigned to the diverting device, and a heat exchanger device (5) assigned to the connecting device and designed to exchange thermal energy with the connecting device. The heat exchanger device has first and second surface areas, where the first surface area is partially designed for thermal conductive contact of the connecting device. The area of the first surface area is smaller than the area of the second surface area. The electrochemical energy accumulator apparatus (1) comprises a galvanic cell (2), a diverting device (3) assigned to the galvanic cell, a connecting device assigned to the diverting device, and a heat exchanger device (5) assigned to the connecting device and designed to exchange thermal energy with the connecting device. The heat exchanger device has first and second surface areas, where the first surface area is partially designed for thermal conductive contact of the connecting device. The area of the first surface area is smaller than the area of the second surface area. A temperature measuring device is assigned to the heat exchanger device. The second surface area of the heat exchanger device is to be flowed by a first fluid. The heat exchanger device has a fluid channel, which is flowed through by the first fluid. A conveying device is assigned to the electrochemical energy accumulator apparatus for conveying the first fluid. The heat exchanger device has a material to pass a phase transition at predetermined conditions. The temperature of the phase transition of the first material is adapted to an operating temperature of the heat exchanger device. The heat exchanger device is to be electrically heated or cooled. The electrochemical energy accumulator has an electrode such as cathode, which has a compound with lithium-orthophosphate oxides (LiMPO 4), where M is a transition metal cation of the first row of the periodic system of the elements. The compound has superior olivine structure. The electrochemical energy accumulator has a separator, which is not electron conductive or only poor electron conductive and consists of partially material-permeable carrier that is coated with an inorganic material on one side. An organic material is used as partially material-permeable carrier, is designed as non-interweaved non-woven, and is coated with an inorganic ion-conductive material, which is ion-conducted at -40[deg] C to 200[deg] C. The inorganic ion-conductive material has particle with a larger diameter of below 100 nm. Independent claims are included for: (1) a motor vehicle; and (2) a method for operating an electrochemical energy accumulator apparatus.

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