Electrochemical capacitor
    81.
    发明授权
    Electrochemical capacitor 失效
    电化学电容器

    公开(公告)号:US4766522A

    公开(公告)日:1988-08-23

    申请号:US73673

    申请日:1987-07-15

    CPC classification number: H01G9/00 H01M14/00 H01M2/18 H01M4/00

    Abstract: An electrochemical capacitor (battery-capacitor) which provides high power density and rapid charging and discharging times ranging from a few milliseconds to a few seconds. The capacitor device includes at least one electrochemical cell having two electrodes and an electrolyte therebetween. The electrodes and electrolyte are capable of rapid redox kinetics with the electrodes being spaced apart by no more than 0.002 inch (5.08.times.10.sup.-3 cm) to thereby provide rapid charging and discharging times.

    Abstract translation: 一种电化学电容器(电池电容器),其提供高功率密度和快速充电和放电时间,范围从几毫秒到几秒。 电容器装置包括至少一个具有两个电极的电化学电池和它们之间的电解质。 电极和电解质能够快速的氧化还原动力学,电极间隔不超过0.002英寸(5.08×10 -3 cm),从而提供快速的充电和放电时间。

    Photoelectrodes for photoelectrochemical cell devices
    82.
    发明授权
    Photoelectrodes for photoelectrochemical cell devices 失效
    光电池用光电池

    公开(公告)号:US4658087A

    公开(公告)日:1987-04-14

    申请号:US831271

    申请日:1986-02-20

    Applicant: Gerald D. Fong

    Inventor: Gerald D. Fong

    CPC classification number: C03C3/321 H01G9/20 H01M14/00

    Abstract: This invention is concerned with producing glasses in the As-Se-Cu field exhibiting properties rendering them eminently suitable for photoelectrodes of photoelectrochemical devices. The glasses consist essentially of compositions within the region ABCDEA of FIG. 1.

    Abstract translation: 本发明涉及在As-Se-Cu领域中生产具有使其非常适合于光电化学装置的光电极的性能的玻璃。 玻璃基本上由图1的区域ABCDEA内的组合物组成。 1。

    Thermal galvanic cells
    83.
    发明授权

    公开(公告)号:US4410605A

    公开(公告)日:1983-10-18

    申请号:US314519

    申请日:1981-10-26

    Applicant: Robert L. Peck

    Inventor: Robert L. Peck

    CPC classification number: H01G9/21 H01M14/00 H01M6/36

    Abstract: The efficiency of thermal galvanic cells is enhanced by establishing a temperature gradient along the electrodes, in addition to the temperature gradient between the electrodes, and/or by optimizing electrode geometry. Optimization of electrode geometry may comprise segmenting the electrodes while retaining the desired total electrode area or controlling the depth of immersion of the electrodes into the electrolyte. Further performance improvement may be obtained through the addition of a silica containing material and/or a thermal barrier to the electrolyte.

    Radioelectrochemical energy converter
    84.
    发明授权
    Radioelectrochemical energy converter 失效
    放射性电化学能量转换器

    公开(公告)号:US3971671A

    公开(公告)日:1976-07-27

    申请号:US508828

    申请日:1974-09-24

    CPC classification number: H01M14/00

    Abstract: The energy converter utilizes the products of radiolysis of an aqueous solution of an oxidation-reduction pair and comprises a leak-tight jacket initially filled with a pure gas which is identical with the gas evolved as a result of radiolysis. A porous electrode impregnated with the aqueous solution of the oxidation-reduction pair and specific to the reaction of this latter is placed within the jacket. The converter also comprises a gas electrode which is specific to the gas evolved as a result of radiolysis, a porous diaphragm for effecting the ionic junction between the two electrodes by gas/liquid surface conductivity and means for connecting the electrodes to an external circuit.

    Abstract translation: 能量转换器利用了氧化 - 还原对水溶液的辐射分解产物,并且包括最初填充有与作为放射分解产生的气体相同的纯气体的防漏外套。 浸渍有氧化 - 还原对的水溶液并且特别针对其的反应的多孔电极放置在护套内。 转换器还包括气体电极,其特征于由于放射分解而放出的气体,用于通过气体/液体表面电导率实现两个电极之间的离子接合的多孔膜,以及用于将电极连接到外部电路的装置。

    HALOGEN-BASED THERMO-ELECTROCHEMICAL CONVERTER

    公开(公告)号:US20230207928A1

    公开(公告)日:2023-06-29

    申请号:US17926701

    申请日:2021-05-21

    CPC classification number: H01M14/00

    Abstract: A method of generating electrical energy using an electrochemical direct heat to electricity converter operating on the Rankine cycle is provided. The converter includes a working fluid, a high temperature electrochemical cell including a first membrane electrode assembly, a low temperature electrochemical cell including a second membrane electrode assembly, an evaporator coupled to the first electrochemical cell, a condenser coupled to the second electrochemical cell, and an external load. The method involves introducing the working fluid at the first membrane electrode assembly as a liquid, expanding the working fluid through the first membrane electrode assembly and evaporating it into a vapor, and cooling and condensing the vapor back into a liquid at the second membrane electrode assembly.

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