Abstract: The power supply device includes a plurality of battery cells each having a rectangular outer shape, a plurality of separators configured to insulate adjacent battery cells, and a restraining member assembling the plurality of battery cells and the plurality of separators. Each of separators includes interposed plate disposed between adjacent battery cells, heat insulating member having a sheet-like shape and disposed between interposed plate and adjacent battery cells, peripheral wall protruding from interposed plate toward adjacent battery cells and defining a housing space housing adjacent battery cells, and a plurality of ribs provided inside peripheral wall. The plurality of ribs holds heat insulating member.

Abstract: Thin Film Batteries are made of battery layers. Each battery layer has a substrate with one or more battery structures on the substrate surface. The battery structures have a first electrode connection and a second electrode, a first electrode (e.g. a cathode or anode) is electrically connected to the first electrode connection and a second electrode (e.g. an anode or cathode) is electrically connected to the second electrode connection. An electrolyte is at least partial disposed between and electrically connected to the first and second electrodes. A first edge connection on one of the substrate edges is physically and electrically connected to the first electrode connection. A second edge connection on one of the substrate edges is physically and electrically connected to the second electrode connection. An electrically insulating lamination is disposed on the substrate and covers the components except for the first and second edge connections, connected to respective battery electrodes.

Abstract: A rechargeable lithium-ion (Li-ion) battery employs a low temperature approach to battery manufacturing that forms charge material from kinetic energy of high velocity particles impelled into an aggregation such that bombardment of the particles against other particles in the aggregation forms a charge conveying structure. High velocity bombardment from a carrier gas nozzle accumulates an active charge material in a layered arrangement for the finished battery. Preparation of the particles, such as by ball milling or spraydrying, arranges particle agglomerations. The particle agglomerations, when impelled against other agglomerations or a current collector, forms a layer of cathodic, anodic or electrolytic battery material. The metallic binder conveys charge for mitigating or eliminating a need for a planar current collector underlying the sprayed layer. The resulting layers are suitable for battery operation, and are manufactured in an absence of any solvent drying or disposal.

Abstract: A system for assembling a battery module includes a battery cell supply unit, a transfer unit, and a battery cell adhesion unit, where the battery cell supply unit is configured to stack a plurality of battery cells each being formed by packaging of a negative electrode plate having a negative electrode terminal, a positive electrode plate having a positive electrode terminal, and a separator interposed between the negative electrode plate and positive electrode plate, by an exterior member, the transfer unit is configured to adsorb and transfer the battery cell from the battery cell supply unit, and the battery cell adhesion unit is configured to apply an adhesive to an adhesion surface of the battery cell transferred by the transfer unit, and to conjoin the battery cells while stacking the battery cells in stacking device such that the adhesion surfaces of the battery cells face a preset direction.

Abstract: A battery module, which includes at least one battery cell and a module case for packaging the at least one battery cell, wherein the module case includes: a top cover configured to cover an upper side of the at least one battery cell; and a side plate configured to cover all of opposing side surfaces of the top cover and opposing side surfaces of the at least one battery cell and configured to be coupled to the top cover by fitting.

Abstract: A secondary battery for cycling between a charged and a discharged state, wherein a 2D map of the median vertical position of the first opposing vertical end surface of the electrode active material in the X-Z plane, along the length LE of the electrode active material layer, traces a first vertical end surface plot, EVP1, a 2D map of the median vertical position of the first opposing vertical end surface of the counter-electrode active material layer in the X-Z plane, along the length LC of the counter-electrode active material layer, traces a first vertical end surface plot, CEVP1, wherein for at least 60% of the length Lc of the first counter-electrode active material layer (i) the absolute value of a separation distance, SZ1, between the plots EVP1 and CEVP1 measured in the vertical direction is 1000 ?m?|SZ1|?5 ?m.

Abstract: The invention relates to an accumulator module (10) having optimized heat dissipation, namely, an accumulator module (10) having at least one carrier (18) that is placeable in the interior of a housing (12) of the accumulator module (10) and providable with a plurality of accumulator cells (14), wherein each accumulator cell (14) in the carrier (18) is electrically contacted solely from one side, and wherein the or each carrier (18) that is equipped with accumulator cells (14) is placeable in the interior of the housing (12) in a form that thermally couples the free end faces of the accumulator cells (14) to the housing (12).

Abstract: A cell contacting system for an electrochemical device is provided, which includes a plurality of cell groups having one or more electrochemical cells, each having a first and a second cell terminal. The first cell terminals follow each other along the longitudinal direction in a first cell terminal region of the electrochemical device and the second cell terminals follow each other along the longitudinal direction in a second cell terminal region of the electrochemical device. The cell contacting system includes at least one cell connector extending obliquely to the longitudinal direction and configured for electrically conductively connecting cell terminals of a first cell group in the first cell terminal region to cell terminals of a second cell group in the second cell terminal region, which cell contacting system reliably enables a relative movement between the cell terminals to be electrically connected to each other.

Abstract: A battery and straps for a battery are disclosed. The battery according to various embodiments comprises a number of straps which connect a number of battery cells in series. The battery straps may pass through cutouts provided in a cell divider wall. The cutouts and straps may define a common headspace. The battery may have five connecting straps and two end straps.

Abstract: Provided is a battery module. The battery module includes: a plurality of battery cells each including an electrode terminal; and a bus bar connected to the electrode terminals of the battery cells neighboring each other to electrically connect the battery cells, the bus bar including a first bus bar and a second bus bar that are superposed on each other and include different metals, each of the first and second bus bars making conductive contact with the electrode terminals. Therefore, the thermal and electrical characteristics of the bus bar electrically connecting the neighboring battery cells to each other may be improved while improving weldability between the bus bar and electrode terminals.

Abstract: A power supply device includes secondary battery cells disposed adjacent to each other and a separator that is interposed between the secondary battery cells adjacent to each other. The separator is made of a flexible material that has both a heat insulating property and restoring force such that the separator deforms when being pressed by each of the secondary battery cells and recovers an original shape of the separator. This configuration provides an improved heat insulating property between the secondary battery cells and prevents thermal propagation caused by thermal runaway. At the same time, this allows the separator to adapt to deformation of a secondary battery cell that has thermally swelled. In response to contraction of the swelled battery, the separator recovers its original shape to maintain a mechanical pressing force. This allows the power supply device to provide increased mechanical stability and maintain resistance to vibration and impact.

Abstract: A solid-state battery having a battery body that includes a functional portion, a first edge portion, and a second edge portion. The functional portion is a portion where first and second internal electrodes and a solid electrolyte layer overlap each other in a thickness direction. The first edge portion is a portion where the first internal electrode, the solid electrolyte layer, and a second insulating layer overlap each other in the thickness direction. The second edge portion is a portion at which the second internal electrode, the solid electrolyte layer, and a first insulating layer overlap each other in the thickness direction. Each of thicknesses of the first and second edge portions are greater than a thickness of the functional portion.

Abstract: The disclosure concerns a battery assembly including two batteries having their active layers facing each other and sharing an encapsulation layer.

Abstract: A battery module includes a battery cell stack having a plurality of stacked battery cells and a plurality of bus bars respectively disposed adjacent to electrode leads respectively provided at the plurality of battery cells. The electrode leads respectively provided at the plurality of battery cells are electrically connected to the plurality of bus bars, respectively.

Abstract: An accumulator module (10) having a housing (12) and at least one carrier (18) that is placed in the interior of the housing (12) and is fitted with a plurality of accumulator cells (14). Each accumulator cell (14) has two poles, an end-face contact (28) at a top of the accumulator cell (14) and a lateral surface (30) on a lateral side of the accumulator. A cell connector (16) is provided to conductively connect accumulator cells (14) of adjacent groups of accumulator cells (14). The cell connector (16) has an elongated body that conductively contacts the end-face contacts (28) of a plurality of accumulator cells (14) in one group to the lateral surfaces (30) of a plurality of other accumulator cells (14) in another group. The cell connector (16) comprises contact tongues (46) for contacting the end-face contacts (28) and contact lugs (48) for contacting the lateral surfaces (30).

Abstract: A method for producing an all-solid-state battery, comprising the following steps (a) to (d), which are performed in the order of (a), (b), (c), and (d) or in the order of (a), (b), (d), and (c): (a) introducing the all-solid-state battery laminate into the metal case, (b) welding a protruding part of the positive electrode current collector layer or the negative electrode current collector layer and the folding margin part of the metal case, (c) folding the folding margin part, and the protruding part of the positive electrode collector layer or the negative electrode current collector layer, which has been welded to the folding margin part toward the inside of the metal case together, and (d) injecting a sealing resin into the metal case from the opening part of the metal case and then curing the sealing resin to seal the all-solid-state battery laminate in the metal case.

Abstract: A connection member for connecting to a busbar of a battery includes a first section adapted to be connected to a battery cell, a second section adapted to be connected to the busbar attached to a support structure for the battery cell, and a pair of bends between the first section and the second section.

Abstract: A power-supplying battery of an electric vehicle includes a plurality of chargeable batteries that are grouped into at least two first battery groups, and the chargeable batteries of each first battery group are divided into at least two second battery groups that are electrically connected in parallel. Each first battery group is electrically connected to each other in parallel to form a complete set of the power-supplying battery. During charging of the power-supplying battery, an external charging power source is set in electric conduction with the power-supplying battery and a current or a voltage of the charging power source is supplied, in a divided manner, to charge each first battery group and the second battery groups thereof. During discharging of the power-supplying battery, a voltage or a current of each first battery group is combined with each other for output as a total.

Abstract: This disclosure relates to a battery assembly with a plate having a compression limiting feature, and a corresponding electrified vehicle and method. An example battery assembly includes a wall having an inner surface and an outer surface. The wall also has a central opening. The battery assembly further includes a plate abutting the outer surface of the wall and covering the central opening. The plate also includes a main body and a post projecting from the main body toward the inner surface of the wall. Among other benefits, this arrangement limits compression of the wall and increases the ease of mounting components, such as electrical or fluid connectors, to the battery assembly.

Abstract: Assemblies and methods are provided for manufacturing a battery. A number of cells each have tabs for coupling the cell in the battery assembly. A housing has an opening through which each tab extends. The tabs are folded to overlie an outer surface of the housing. A bus bar is disposed on an opposite side of the tabs from the housing, with a coupling joint between the bus bar and the cells. The coupling joint may comprise a weld.

Abstract: In a battery pack, circuit board and thin cells are insert-molded in resin mold portion formed by a die, and are fixed to fixed positions. At least one of thin cells is disposed at a position where circuit board faces terminal surface. Terminal surfaces of thin cells and circuit board, which are interconnected, are buried in resin mold portion, thin cells are disposed on the same plane, and circuit board is integrally connected and fixed to the thin cells so as to be parallel with both surfaces of the thin cells. Thus, the thin cells are strongly interconnected via the resin mold portion, and all thin cells are disposed on the same plane without warpage.

Abstract: A battery control system includes a battery including: first, second, and third terminals; a plurality of individual groups of two or more battery cells; and a plurality of switches configured to connect ones of the individual groups to and from ones of the first, second, and third terminals. A mode module is configured to set a mode to a first mode when a fault is present in a charging source of the battery. A switch control module is configured to control the plurality of switches based on a first predetermined capacity allotment when the mode is in the first mode.

Abstract: Provided is a lead-acid battery where a positive electrode shelf and a negative electrode shelf are electrically connected to each other through a penetrating connection body including a welded portion filled in a penetration hole in a partition wall. A distance A between upper end surfaces of the positive and negative electrode shelves and a lower end portion of the penetration hole is 3-5 mm, a distance B between an upper end portion of the penetration hole and an upper end portion of the penetrating connection body is 3-5 mm, a distance C between the upper end portion of the penetrating connection body and a level of the electrolyte solution is 0 mm or more, and a height of the positive and negative electrode grid portions is 100 mm or more.

Abstract: This disclosure relates to a battery assembly for an electrified vehicle and a corresponding method. An exemplary battery assembly includes a battery cell including a terminal, a busbar, and at least one first weld bead securing the busbar to the terminal. The at least one first weld bead is substantially Z-shaped.

Abstract: Monobloc batteries include compartments containing cells. Terminals extend into the compartments and are electrically connected with the cells via tabs. The tabs are folded to form bent stacks and include openings in partial registration with each other. The terminals extend through the openings and are secured to the tabs. The terminals are off-center relative to the compartments to preserve space for the bent stacks.

Abstract: In an assembled battery 1 disclosed herein, unit cells 10A, 10B are electrically connected to each other by way of bus bars 30 that extend along an array direction X of the unit cells. The bus bars 30 of the assembled battery 1 are each provided with a base 32 in which a plurality of terminal insertion holes 34, into which electrode terminals 12, 14 of the unit cells 10A, 10B are inserted, are formed, and with junction projections 36, which are present along the electrode terminals 12, 14, extending from respective regions of the base 32 adjacent to the terminal insertion holes 34. In the assembled battery 1 disclosed herein, the electrode terminals 12, 14 are in surface contact with the junction projections 36, and tips 12a, 14a of the electrode terminals 12, 14 and tips 36a of the junction projections 36 are welded to each other. As a result, the electrode terminals 12, 14 and the bus bars 30 can be welded to each other while a welding state is checked.

Abstract: A hand-held electric power tool includes a housing, a connecting seat, and an elastic member. The connecting seat is configured to couple a battery pack to the hand-held electric power tool along a first straight line whereby the battery pack and the hand-held electric power tool are electrically connected via the connecting seat. The connecting seat is operative to move along the first straight line and along a second straight line perpendicular to the first straight line. The elastic member is configured to movably connect the connecting seat to the housing, and is configured to generate a force at least along a third straight line inclined from the first straight line enabling the connecting seat and the battery pack to contact each other.

Abstract: A method for fabricating a stacked battery structure. The method includes preparing a plurality of battery layers separately, wherein each battery layer includes a substrate, a film battery element fabricated on the substrate and an insulator formed over the film battery element. The insulator has a flat top surface and the film battery element includes a current collector. The method also includes stacking the plurality of battery layers, wherein the insulator of a first battery layer of the plurality of battery layers bonds to the substrate of a second battery layer of the plurality of battery layers by the flat top surface. The method further includes forming a conductive path within the plurality of battery layers, wherein the conductive path connects with at least one of the current collectors of the plurality of battery layers.

Abstract: A method for fabricating a stacked battery structure. The method includes preparing a plurality of battery layers separately, wherein each battery layer includes a substrate, a film battery element fabricated on the substrate and an insulator formed over the film battery element. The insulator has a flat top surface and the film battery element includes a current collector. The method also includes stacking the plurality of battery layers, wherein the insulator of a first battery layer of the plurality of battery layers bonds to the substrate of a second battery layer of the plurality of battery layers by the flat top surface. The method further includes forming a conductive path within the plurality of battery layers, wherein the conductive path connects with at least one of the current collectors of the plurality of battery layers.

Abstract: The present disclosure relates to a battery module, including two or more battery cells, each including an electrode terminal; a connecting member, wherein the electrode terminals of adjacent battery cells are connected by the connecting member; and a clamping-sampling member, including a wire connection portion for fixing a wire harness and a clamping portion, wherein one end of the clamping portion is connected with the wire connection portion and the other end of the clamping portion clamps the connecting member.

Abstract: This disclosure relates to compositions and methods for improving the performance of lead-acid batteries, including reviving or rejuvenating a partially or totally dead battery, by adding an amount of nonionic, ground state metal nanoparticles to the electrolyte of the battery, and optionally recharging the battery by applying a voltage. The metal nanoparticles may be gold and coral-shaped, and are added to provide a concentration within the electrolyte of 100 ppb to 2 ppm.

Abstract: An electrical connection system that connects and disconnects a plurality of supply circuits. More specifically, a connection system that can quickly connect two or more batteries in series or in parallel by connecting a wire bridge system to two or more mated battery side connectors. Alternatively, the connection system can quickly connect a plurality of devices to one battery connection point by connecting a multi-device connector to a mated battery side connector.

Abstract: A battery includes: an electrode body; and an external body which is formed by overlapping a first sheet and a second sheet, and in which the electrode body is accommodated. The external body includes an accommodation portion which is formed in the first sheet, and which accommodates the electrode body therein, and a circumferential edge portion in which the first sheet and the second sheet overlap each other around the accommodation portion. The inside of the accommodation portion is sealed in a state where the first sheet and the second sheet are welded to each other in the circumferential edge portion.

Abstract: A battery pack is disclosed. In one aspect, the battery pack includes a battery cell and an electrode terminal including a plate member electrically connected to the battery cell, and a bolt passing through the plate member. The bolt includes a plurality of catch jaws disposed on opposing sides of the plate member in a length direction of the bolt and a thread portion exposed from the plate member. The plate member and the bolt include different metallic materials.

Abstract: Provided is a rolled alkali metal battery wherein the alkali metal is selected from Li, Na, K, or a combination thereof; the battery comprising an anode having an anode active material, a cathode containing a cathode active material, and a separator-electrolyte layer, comprising a first electrolyte alone or a first electrolyte-porous separator assembly, in ionic contact with the anode and the cathode, wherein the cathode contains a wound cathode roll of at least a discrete layer of the cathode active material and an optional binder, at least a discrete layer of a conductive material, and at least a layer of a second electrolyte, identical or different in composition than the first electrolyte, wherein the wound cathode roll has a cathode roll length, a cathode roll width, and a cathode roll thickness and the cathode roll width is substantially perpendicular to the separator-electrolyte layer.

Abstract: A method for manufacturing a clad material (110, 410) includes performing a Ni plating treatment on a Cu material (104, 404) made of Cu or a Cu-based alloy to make a Ni-plated Cu material in which the Cu material is covered with a Ni plating layer, performing a heat treatment on the Ni-plated Cu material at a holding temperature of 650° C. or higher and 850° C. or lower, and bonding an Al material (102, 402) made of Al or an Al-based alloy and the Ni-plated Cu material on which the heat treatment has been performed to each other by rolling to make the clad material.

Abstract: An assembly structure of a cover and a terminal for a power battery, including a cover and a terminal. The terminal includes a base and a post extending downwards from the base. The cover is provided with a mounting hole through which the cover is inserted against the terminal. A high-temperature resistant component is provided between the base and the cover, and a conductive block is riveted to a lower end of the terminal. A sealing member is provided between the conductive block and the cover. Different from the existing terminals, the present terminal is T-shaped. Therefore, current carrying area and capacity of the upper surface of the terminal are increased. Further, the riveting structure is provided at a bottom of the terminal, which can avoid the inaesthetic appearance of the terminal caused by soldering. The reliable assembly structure can avoid the terminal loosening and short circuit of the cell.

Abstract: Identical planar electronic components are stacked in an assembly. Each component has two contact metallizations positioned on edges of a same surface of the component. The components are stacked along a common axis. Each successive component is rotated about the common axis by a fixed angle. A value of the fixed angle is selected to position, side by side, the contact metallization of one component and the contact metallization of another next component adjacent to each other in the stack. Electrical connections are provided between two adjacent contact metallizations.

Abstract: A non-aqueous electrolyte battery includes bi-polar electrodes and non-aqueous electrolyte layers. Each electrode has a pyroelectric member and positive-pole and negative-pole active material layers on one and the other surfaces of the member. In the electrode, a position of the positive-pole layer does not overlap a position of the negative-pole layer in a thickness direction of the member. A laminated product in which the bi-polar electrodes are laminated with the electrolyte layers being interposed between the positive-pole and negative-pole active material layers on one and the other members is provided. The product has one of a first type electrode group in which the product is spirally wound and a second type electrode group in which the product is alternately bent, folded, and layered.

Abstract: An electric storage device according to the present invention includes: an electrode assembly including positive and negative electrode plates that are insulated from each other, at least one of the electrode plates having an active material layer formed part and an active material layer non-formed part; positive and negative current collectors; and a metal material abutted against the active material layer non-formed part, wherein the metal material includes a curled part in which an edge of the metal material is curved in a direction away from the active material layer non-formed part, and the active material layer non-formed part, each of the current collectors, and the metal material are integrally coupled.

Abstract: Disclosed are battery locks. The batter locks may include a body, a first arm, and a second arm. The body may have a first end, a second end, and a pivot axis. The pivot axis may be located in between the first end and the second end. The first arm may extend from the body proximate the first end. The first arm may be configured to provide a biasing force that biases movement of the body in a first direction about the pivot axis. The second arm may extend from the body proximate the first end. The second arm may be configured to provide an ejection force to a battery.

Abstract: A secondary battery is provided, which includes a laminated electrode body and which has a current-collecting structure with favorable structural stability even when mounted to a vehicle and with superior high-rate charge-discharge characteristics.

Abstract: A battery pack for an electric vehicle is disclosed. The battery pack includes an upper tray, a first busbar attached to the upper tray, a lower tray, and a second busbar attached to the lower tray. The battery pack also includes a plurality of battery cells arranged in the upper and lower trays, and a cooling duct contacting the lower and upper trays.

Abstract: The electrode assembly comprises a first electrode unit in which an electrode and a separator are alternately stacked and a second electrode unit in which an electrode and a separator are alternately stacked, the second electrode unit having a size less than that of the first electrode unit and being stacked on the first electrode unit, wherein a tab bonding body manufactured by connecting an electrode tab provided in the first electrode unit to an electrode tab provided in the second electrode unit is disposed within a range of a width of the second electrode unit, and a leading electrode tab to which an electrode lead is connected is disposed on a portion of the first electrode unit.

Abstract: A battery has a prismatic metal housing that includes a rectangular base having a base inner side and a base outer side, a rectangular cover having a cover inner side and a cover outer side, the size and shape of which substantially correspond to that of the base, and four rectangular side elements connecting the base and the cover and each have an inner side and an outer side. The at least one individual cell is a winding having a first and a second end face and the first end face faces in the direction of the base and the second end face faces in the direction of the cover. Conductor vanes electrically connect to the base of the metal housing exit from the first end face. These are fixed to an electrically conductive collecting and positioning means inserted into a receiving means in the base of the metal housing and fixed therein.

Abstract: A battery pack has bus bars at one end, freeing the other end of the battery pack for cooling or other arrangements. A plurality of battery cells oriented in the same manner in the battery pack has first terminals of the battery cells at first ends of the battery cells. Portions of second terminals of the battery cells are at the first ends of the battery cells. The first ends of the battery cells are in a coplanar arrangement. A plurality of bus bars is assembled proximate to the first ends of the battery cells. The bus bars are coupled to the first terminals and the second terminals of the battery cells at the first ends of the battery cells to place the battery cells in a series connection and a parallel connection.

Abstract: Embodiments are directed to a contact plate configured to establish electrical bonds between battery cells in a battery module. In a first embodiment, the contact plate includes at least one primary conductive layer, wherein the contact plate is configured to exchange current with at least one group of battery cells in the battery module, and wherein a thickness of the at least one primary conductive layer scales with a current expectation at different portions of the contact plate. In a second embodiment, the contact plate includes at least one primary conductive layer, and a set of bonding connectors that is configured to provide direct electrical bonds between the contact plate and terminals of at least one group of battery cells, wherein the set of bonding connectors is pre-assembled with the contact plate before the contact plate is installed into the battery module.

Abstract: A battery module includes a plurality of overlapping rechargeable batteries arranged in one direction, each rechargeable battery including at least one terminal protruding outside, and a plurality of bus bars electrically connecting terminals of different rechargeable batteries of the plurality of rechargeable batteries, the bus bar including a bent band in surface contact with and electrically connected to a respective terminal.

Abstract: A ceramic lithium battery sub-cell is provided. The ceramic lithium battery sub-cell includes a cathode region, an anode region, and a separator interconnecting the cathode region and the anode region. The separator is a ceramic electrolyte free of penetrating apertures. The ceramic lithium battery sub-cell also includes a cathode current collector positioned on a surface of the cathode region, and an anode current collector positioned on a surface of the anode region. The anode region is filled with a first porous electrolyte encapsulated by the separator, the anode current collector and at its periphery by a second porous electrolyte. The porosity of the second porous electrolyte is less than the porosity of the first porous electrolyte.

Abstract: A battery module has a plurality of round cells of identical dimensions, nominal charge capacity and voltage. They are grouped into a series of round cell stacks which are arranged one behind the other in a row and which all consist of an identical plurality of round cells which lie in each round cell stack axis-parallel to the stack row direction, adjacent and atop each other, in identical position in the stack row direction. There are contact plates arranged between adjacent round cell stacks, which electrically connect the round cells of each round cell stack in parallel to the poles thereof situated in the stack row direction. All round cells are arranged in such a way that all identical electrical poles face in the same direction and form a plurality of aligned round cell rows. The contact plates have protrusions of identical dimensions, each contacting a pole of a round cell but which are not integrally connected to the pole, such that all round cell poles are contacted via one of the protrusions.