Disclosed is a submarine provided with lithium-ion battery-based electricity storage, assuming the form of associated individual storage elements (2, 3, 4), each element (2, 3, 4) being provided with an electronic connecting and operation management card (5, 6, 7), in which: the associated individual storage elements (2, 3, 4) are arranged in a row; each electronic card (5, 6, 7) of an element of a row (1) is mechanically and electrically connected, at its ends (8, 9), to the electronic cards (5, 6, 7) of the row (1) that are its closest neighbors, to form a strip of cards (1a) for this row (1); this strip of cards (1a) can be manipulated by an operator from at least one of its ends and is able to slide relative to the storage elements (2, 3, 4) of the row (1).

Disclosed is a submarine provided with lithium-ion battery-based electricity storage, assuming the form of associated individual storage elements (2, 3, 4), each element (2, 3, 4) being provided with an electronic connecting and operation management card (5, 6, 7), in which: the associated individual storage elements (2, 3, 4) are arranged in a row; each electronic card (5, 6, 7) of an element of a row (1) is mechanically and electrically connected, at its ends (8, 9), to the electronic cards (5, 6, 7) of the row (1) that are its closest neighbors, to form a strip of cards (1a) for this row (1); this strip of cards (1a) can be manipulated by an operator from at least one of its ends and is able to slide relative to the storage elements (2, 3, 4) of the row (1).

A conductive connecting plate for a lithium battery and a method for forming the same are provided. By punching a metal plate in a generally linear shape, the conductive connecting plate is formed to comprise an elongated positioning plate, a bending plate, and a first extending plate. The elongated positioning plate has a first and a second end in an elongated direction. The bending plate extends vertically downwards from the second end in a direction away from the second end. The first extending plate extends horizontally from one side of the bending plate in a direction away from and perpendicular to that side. Thereby, when the elongated positioning plate and first extending plate are electrically connected with a terminal component and a tab-set of a lithium battery core, it can meet the requirement for the charge and discharge of high-rate and large current.

A conductive connecting plate for a lithium battery and a method for forming the same are provided. By punching a metal plate in a generally linear shape, the conductive connecting plate is formed to comprise an elongated positioning plate, a bending plate, and a first extending plate. The elongated positioning plate has a first and a second end in an elongated direction. The bending plate extends vertically downwards from the second end in a direction away from the second end. The first extending plate extends horizontally from one side of the bending plate in a direction away from and perpendicular to that side. Thereby, when the elongated positioning plate and first extending plate are electrically connected with a terminal component and a tab-set of a lithium battery core, it can meet the requirement for the charge and discharge of high-rate and large current.

A busbar assembly is disclosed that includes a carrier, and a plurality of conductors arranged within the carrier such that at least a portion of each of the plurality of conductors are exposed in a radial direction and define electrical contact sites.

A busbar assembly is disclosed that includes a carrier, and a plurality of conductors arranged within the carrier such that at least a portion of each of the plurality of conductors are exposed in a radial direction and define electrical contact sites.

A filler-containing film has a structure in which fillers are held in a binder resin layer. The average particle diameter of the fillers is 1 to 50 μm, the total thickness of the resin layer is 0.5 times or more and 2 times or less the average particle diameter of the fillers, and the ratio Lq/Lp of, relative to the minimum inter-filler distance Lp at one end of the filler-containing film in a long-side direction, a minimum inter-filler distance Lq at the other end at least 5 m away from the one end in the film long-side direction is 1.2 or less. The fillers are preferably arranged in a lattice form.

A filler-containing film has a structure in which fillers are held in a binder resin layer. The average particle diameter of the fillers is 1 to 50 μm, the total thickness of the resin layer is 0.5 times or more and 2 times or less the average particle diameter of the fillers, and the ratio Lq/Lp of, relative to the minimum inter-filler distance Lp at one end of the filler-containing film in a long-side direction, a minimum inter-filler distance Lq at the other end at least 5 m away from the one end in the film long-side direction is 1.2 or less. The fillers are preferably arranged in a lattice form.

A method for producing an anisotropic conductive sheet that can be used for an inspection of a semiconductor package or a high-frequency component part, in which the pitch of wiring is narrowed and the wiring itself has been subjected to wire thinning, and that can be easily produced. A method for producing an anisotropic conductive sheet, includes a molding step of molding a conductive filler material-containing composition including (A) a conductive filler material dispersed in an organic solvent and (B) a binder resin, into a sheet-like body, and an organic solvent volatilization step of heating one surface of the sheet-like body and thereby volatilizing the organic solvent through the other surface of the sheet-like body.

A first anisotropic conductive film 1A or a second anisotropic conductive film 1B has a first insulating resin layer 2 and a second insulating resin layer 3. The first insulating resin layer 2 is formed of a photopolymerized resin, and the second insulating resin layer 3 is formed of a polymerizable resin. Conductive particles 10 are disposed in a single layer on a surface of the first insulating resin layer 2 on a side of the second insulating resin layer 3. The first anisotropic conductive film further has a third insulating resin layer 4 formed of a polymerizable resin, and the second anisotropic conductive film 1B has an intermediate insulating resin layer 6. The intermediate insulating resin layer 6 is formed of a resin containing no polymerization initiator, and is in contact with the conductive particles 10. These anisotropic conductive films have favorable connection reliability.