6results about "Flat cells grouping" patented technology

A thin-film battery (100) with several electrochemical cells (10) is provided. The electrochemical cells (10) are mounted on a carrier film (50) as a common substrate. The electrochemical cells (10) are stacked on top of each other. Each electrochemical cell (10) is separated from an adjacent electrochemical cell by a fold edge (11) in the carrier film. The electrochemical cells (10) are electrically connected to each other by at least one conductive layer (12; 51) of the carrier film. The thin-film battery is further characterized by the fact that the carrier film has weakening lines (510) in the region of the fold edges (11).

A battery (100) suitable for powering a wireless tag (119) includes a first sub-cell and a second sub-cell (114, 115) formed as a layer stack, each sub-cell having a negative electrode (107b, 107c) and a positive electrode (108b, 108c), a separator (117b, 117c) arranged between the positive and negative electrodes, and a plurality of separate electrical conductors (101, 102, 103), including a first conductor (101) in electrical contact with one of the electrodes (107b) of the first sub-cell (114); The device includes a second conductor (102) that electrically connects the electrode (108b) of the first unit cell (114) that is not in contact with the first conductor (101) to the electrode (107c) of the second unit cell (115) having the opposite polarity to form a series connection, a third conductor (103) that is in electrical contact with the electrode (108c) of the second unit cell (115) that is not in contact with the second conductor (102), and a first substrate (109a, 109b) between which the unit cells (114, 115) and the conductors (101, 102, 103) are arranged. The first conductor and the third conductor (101, 103) are arranged at a distance from each other on the first substrate (109a), while the second conductor (102) is arranged on the second substrate (109b). The electrically connected electrodes (108b, 107a) of the first and second sub-cells (114, 115) are arranged side by side in the form of layers on the second substrate (109b), each covering a partial area of ​​the second conductor (102) and separated from each other by a gap (110). The electrodes (107b, 108a) that are not connected to each other via the second conductor (102) are arranged in the form of layers on the first substrate (109a), such that the electrode (107b) in electrical contact with the first conductor (101) covers at least a portion of the first conductor (101) and the electrode (108c) in electrical contact with the third conductor (103) covers at least a portion of the third conductor (103). The separators (117b, 117c) of the single cells (114, 115), also in the form of layers, each have one surface contact with one of the electrically connected electrodes (108b, 107c) and their other surface contact with one of the non-electrically connected electrodes (107b, 108c).

Power storage device (1), with a power storage module (4); a conductive plate (5, 5A) which is intended to be laminated with the power storage module (4); and a sealing element (80) provided between the conductive plate (5, 5A) and the power storage module (4), wherein the power storage module (4) has an electrode laminate (11) with several laminated metal plates (15, 20A, 20B) and a sealing body (12) which is provided such that it surrounds a side surface of the electrode laminate (11), forms an interior space between adjacent electrodes (14, 18, 19) and seals the interior space, the several metal plates (15, 20A, 20B) have a metal plate (15) of a negative terminal electrode (18), a metal plate (15) of a positive terminal electrode (19) and metal plates (15) of several bipolar electrodes (14) which are provided between the negative terminal electrode (18) and the positive terminal electrode (19), the sealing body (12) has several resin sections (21), each of which has a frame shape and is provided at individual edge sections (15c, 20c) of the several metal plates (15, 20A, 20B) in the electrode laminate (11), the metal plates (20A, 20B) at the laminate ends of the electrode laminate (11) each have an exposed surface (20d) that is exposed by the resin section (21), the exposed surface (20d) has a contact area (20e) that is in contact with the conductive plate (5, 5A) and a non-contact area (20f) that is not in contact with the conductive plate (5, 5A), and the sealing element (80) has a first sealing section (80a) which is provided along an inner edge of the resin section (21) to be in contact with the resin section (21), adheres to the conductive plate (5, 5A) and the non-contact area (20f), fills a section between the conductive plate (5, 5A) and the non-contact area (20f) and seals a section between the conductive plate (5, 5A) and the exposed surface (20d), characterized by the fact that the conductive plate (5A) has several interconnected plate elements (50), and the sealing element (80) has a second sealing section (80b) which is provided along a coupling section (60) formed between the adjacent plate elements (50), adheres to each of the adjacent plate elements (50) and the non-contact area (20f), fills a section between each of the adjacent plate elements (50) and the non-contact area (20f) and seals the section between the conductive plate (5, 5A) and the exposed surface (20d).

The utility model discloses a seawater battery device which comprises a plurality of battery units which are connected in series, and each battery unit is independently arranged and is respectively provided with a seawater inlet and a seawater outlet. The battery unit comprises a shell unit, a positive pole plate and a negative pole plate, the positive pole plate and the negative pole plate are packaged in the shell unit, and an independent space defined by the positive pole plate, the negative pole plate and the shell unit serves as an electrolytic tank of the battery unit. The seawater entering the battery is only subjected to electrolytic reaction in the corresponding battery unit and does not flow to other battery units, so that the phenomenon of'current leakage 'between electrode plates of a traditional seawater battery caused by series connection of multiple groups of single battery units is effectively reduced, and the working performance and the use efficiency of the battery are improved. Meanwhile, the electrode plates are packaged in the shell, so that the effects of supporting the shell and separating the internal space of the shell can be achieved; and the shell adopts an assembled structure, so that the battery is simple and compact in design, and the voltage and discharge efficiency of the seawater battery can be improved.

The present invention relates to an electrode assembly having a novel structure, and an electrochemical device comprising same, the electrode assembly comprising: a first unit comprising at least one first monocell; a second unit comprising at least one second monocell; and an insulating film interposed between the first unit and the second unit, wherein the first unit and the second unit are electrically connected in series so as to implement a high nominal voltage and a high energy density. According to one aspect of the present invention, an advantageous effect may be achieved in that a nominal voltage of the electrochemical device can be improved while minimizing a configuration of auxiliary components of the electrochemical device.

Bipolar plate for a fuel cell, as well as a fuel cell comprising such bipolar plates and a method for manufacturing such a fuel cell. This bipolar plate comprises two plates, anodic and cathodic, provided with channels for the circulation of a reactive fluid. Figure for the abstract: Figure 4.