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INTEGRATED TERMINAL, SECONDARY BATTERY INCLUDING THE SAME, AND METHOD OF MANUFACTURING THE SAME

Resumen de: US2025349999A1

Disclosed are an integrated terminal, a secondary battery including the same, and a method of manufacturing the same. The integrated terminal may include a terminal assembly including a terminal member disposed to adjoin a sub-plate electrically connected to an electrode assembly of a secondary battery and a terminal insulator surrounding a side of the terminal member and a cap insulator formed along a through hole in a cap plate coupled to a case accommodating the electrode assembly and in which the through hole into which the terminal assembly is inserted is formed. When the terminal assembly is inserted into the through hole, the terminal insulator and the cap insulator may adjoin one another. A welding groove may be formed in a portion at which the terminal insulator and the cap insulator adjoin each other. The terminal insulator and the cap insulator may be welded and coupled along the welding groove.

SECONDARY BATTERY

Resumen de: US2025349996A1

Embodiments of the present disclosure relate to a secondary battery, and may provide a secondary battery capable of protecting an electrode assembly and improving battery capacity relative to the same volume. Embodiments of the present disclosure include a secondary battery including an electrode assembly including a first electrode plate having a first substrate tab, a second electrode plate having a second substrate tab, and a separator interposed between the first electrode plate and the second electrode plate, a first lead welded to the first substrate tab, a second lead welded to the second substrate tab, a heat shrinkable tube around a thickness portion of the electrode assembly, and a case accommodating the electrode assembly.

Battery Cell, Battery Pack Including Battery Cell, and Vehicle Including Battery Pack

Resumen de: US2025349995A1

A battery cell includes an electrode assembly, a cell case, a first conductive frame, and a second conductive frame. The electrode assembly has a cell body and an electrode tab extending from the cell body and the cell case has an accommodation portion configured to accommodate the electrode assembly and a peripheral portion extending outward from the accommodation portion. The first conductive frame is located on a first surface of the peripheral portion and electrically connected to the electrode tab through the peripheral portion. The second conductive frame is located on a second surface of the peripheral portion and electrically connected to the electrode tab through the peripheral portion. A battery pack including the same is also provided.

BATTERY CELL, BATTERY, AND ELECTRIC DEVICE

Resumen de: US2025349994A1

The present application belongs to the technical field of batteries, and provides a battery cell, a battery, and an electric device. The battery cell includes an electrode body, tabs, and connectors. The tab has a first side edge and a second side edge opposite to each other, the first side edge of the tab is connected to the electrode body, and the connector is connected to the second side edge of the tab. A bending portion is provided between the first side edge and the second side edge of the tab. According to the battery cell provided in the present application, the possibility that the tab is pulled and broken when the battery cell expands can be reduced, thereby improving the reliability of the battery cell.

BATTERY SYSTEM WITH DEFORMABLE END PLATE

Resumen de: US2025349959A1

A battery system includes battery cells arranged along a stacking axis to form a cell stack, a cell stack frame accommodating the cell stack, and an end plate at an end of cell stack frame. The end plate includes a plate element in contact with the cell stack and deformation structures extending from opposite sides of the plate element substantially parallel to the stacking axis. Each deformation structure includes a first compression portion and a first extension portion connected in series and overlapping each other in a direction perpendicular to the stacking axis. The end plate, in an assembled position, is supported by the cell stack frame such that the first compression portion is compressed, the first extension portion is extended, and the plate element exerts a pressure onto the cell stack.

BATTERY ASSEMBLE AND ASSEMBLING METHOD OF THE SAME

Resumen de: US2025349957A1

The present disclosure relates to a battery assembly comprising: a plurality of battery cells stacked and arranged in a predetermined stacking direction; an accommodation case housing the plurality of battery cells; an insertion space formed between the plurality of battery cells and the accommodation case along the stacking direction; and a thermal delay assembly located in the insertion space, the thermal delay assembly including: a fire-extinguishing member; and a columnar housing member housing the fire-extinguishing members therein and extending along a height direction of the accommodation case; and an assembly method thereof.

Lower protecting plate of battery module for electric car

Resumen de: US2025349955A1

Provided is a lower protecting plate of a battery module for an electric car. The lower protecting plate may include a fiber-reinforced plastic composite formed of a lamination sheet including at least one of first and second sheets. The first sheet may include matrix resin and reinforced fiber in the form of long fiber. The second sheet may include matrix resin and reinforced fiber in the form of fabric woven by continuous fiber.

FEEDTHROUGHS FOR ENCLOSURES IN DEEP WATER VESSELS

Resumen de: US2025349958A1

Embodiments include enclosures for protecting electronics such as circuit board and battery assemblies in high-pressure environments. Customized pressure distribution structures are positioned around the electronics. The pressure distribution structures include cavities that are sized to distribute pressure across the electronics in a predetermined manner based on known pressure tolerances of components or portions of the electronics. The pressure distribution structures may include various features such as vias for enhancing thermal conductivity. The enclosure may be sealed and surrounded by an envelope. Methods for manufacturing such enclosures are disclosed.

FIRE EXTINGUISHING SHEET, BATTERY MODULE, AND BATTERY PACK

Resumen de: US2025349953A1

The application relates to a fire extinguishing sheet, a battery module, and a battery pack are disclosed. A fire extinguishing sheet includes a fire extinguishing layer that includes a solid aerosol and is configured to release the solid aerosol at temperatures above a reference temperature.

Battery Module Housing for Accommodating Battery Cell Stack

Resumen de: US2025349952A1

A housing configured to accommodate a battery cell stack of a battery module is provided. The housing has a frame that includes a cut-out portion formed on an inner surface of the frame adjacent to a protruding-shaped vulnerable portion (bat-ear) provided at a corner portion of each of battery cells included in the battery cell stack. The cut-out avoids interference with the protruding-shaped vulnerable portion. A double injection-molded portion is bonded to a machined surface of the cut-out portion by double injection molding and may have a shape more depressed than the inner surface to cover the cut-out portion while avoiding the interference with the vulnerable portion.

Modular Battery Systems for Aircraft

Resumen de: US2025349985A1

A modular battery system includes an array of battery modules arranged in at least one stack. Each battery module includes a plurality of battery cells, a first side having positive and negative receptacles and a second side, that is opposite of the first side, having positive and negative plugs. The receptacles and plugs are configured such that adjacent battery modules in a side-by-side relationship are electrically coupled together via plug and receptacle connections and such that the battery modules are electrically coupled together in parallel. An interconnection electrically couples each stack of battery modules together via plug and receptacle connections with one of the battery modules in each stack such that the stacks of battery modules are electrically coupled together in parallel. Each of the battery modules includes a voltage regulator configured to convert voltage between a battery cell voltage and a bus voltage.

LITHIUM SECONDARY BATTERY AND COMPOSITE MEMBER

Resumen de: US2025349980A1

Disclosed is a lithium secondary battery including: a positive electrode; a negative electrode; a separator provided between the positive electrode and the negative electrode; and a lithium ion-conductive non-aqueous electrolyte. The negative electrode is an electrode on which lithium metal deposits during charge and the lithium metal dissolves during discharge. A first spacer is provided between the negative electrode and the separator, and a second spacer is provided between the positive electrode and the separator.

DIAPHRAGM AND MANUFACTURING METHOD THEREFOR, AND ELECTRODE ASSEMBLY, BATTERY CELL, BATTERY AND ELECTRIC DEVICE

Resumen de: US2025349978A1

Disclosed in the present application are a diaphragm and a manufacturing method therefor, and an electrode assembly, a battery cell, a battery and an electric device. The diaphragm comprises at least two layers of base membranes and at least one functional layer, wherein the functional layer is arranged between two adjacent base membranes, and the functional layer comprises a piezoelectric material. In the technical solution of the present application, the conductivity is increased, and the strength of the diaphragm is also improved by fixing the position of a piezoelectric material by means of two base layers of membranes and by means of the adhesion of a functional layer, which is sandwiched between the base membranes.

THERMAL COMPOSITE LAMINATED CELL AND BATTERY

Resumen de: US2025349979A1

A thermal composite laminated cell and a battery cell are disclosed by this application. The thermal composite laminated battery cell includes a first cell unit, a second cell unit and a separator with a continuous layer structure, wherein the outermost sides of the first cell unit are negative electrode sheets, and the outermost sides of the second cell unit are positive electrode sheets. The separator with a continuous layer structure includes a plurality of main bodies and a plurality of bent portions all alternately and continuously disposed, the first cell units and the second cell units are alternately disposed in a thickness direction, and the adjacent first cell unit and the second cell unit are separated by the main body.

BATTERY MODULE AND BATTERY SYSTEM

Resumen de: AU2025256272A1

A battery module is provided. The battery module includes a liquid tight battery enclosure and at least one cell assembly. The battery enclosure includes a front plate, a back plate, a battery housing, a fluid inlet, a fluid outlet, and at least two enclosure interfaces. The fluid inlet is disposed on the front plate for a fluid to flow into the battery enclosure. The fluid outlet is disposed on the front plate for the fluid to flow out of the battery enclosure. The at least two enclosure interfaces are disposed on the front plate. The at least one cell assembly has battery cells, at least one cell holder, at least two cell-connectors, and at least two assembly electrodes. Each of the at least two assembly electrodes is respectively coupled to one of the at least two enclosure interfaces and electrically exposed to an exterior of the front plate. A battery module is provided. The battery module includes a liquid tight battery enclosure and at least one cell assembly. The battery enclosure includes a front plate, a back plate, a battery housing, a fluid inlet, a fluid outlet, and at least two enclosure interfaces. The fluid inlet is disposed on the front plate for a fluid to flow into the battery enclosure. The fluid outlet is disposed on the front plate for the fluid to flow out of the battery enclosure. The at least two enclosure interfaces are disposed on the front plate. The at least one cell assembly has battery cells, at least one cell holder, at least two cell-connector

BATTERY MODULE AND BATTERY SYSTEM

Resumen de: AU2025256270A1

A battery module is provided. The battery module includes a liquid tight battery enclosure and at least one cell assembly. The battery enclosure includes a front plate, a back plate, a battery housing, a fluid inlet, a fluid outlet, and at least two enclosure interfaces. The fluid inlet is disposed on the front plate for a fluid to flow into the battery enclosure. The fluid outlet is disposed on the front plate for the fluid to flow out of the battery enclosure. The at least two enclosure interfaces are disposed on the front plate. The at least one cell assembly has battery cells, at least one cell holder, at least two cell-connectors, and at least two assembly electrodes. Each of the at least two assembly electrodes is respectively coupled to one of the at least two enclosure interfaces and electrically exposed to an exterior of the front plate. A battery module is provided. The battery module includes a liquid tight battery enclosure and at least one cell assembly. The battery enclosure includes a front plate, a back plate, a battery housing, a fluid inlet, a fluid outlet, and at least two enclosure interfaces. The fluid inlet is disposed on the front plate for a fluid to flow into the battery enclosure. The fluid outlet is disposed on the front plate for the fluid to flow out of the battery enclosure. The at least two enclosure interfaces are disposed on the front plate. The at least one cell assembly has battery cells, at least one cell holder, at least two cell-connector

RECOVERY OF LITHIUM FROM LITHIUM IRON PHOSPHATE BLACK MASS

Resumen de: WO2024215890A1

LiFePO4 or LiMnxFe(1-x)PO4-containing black mass or a material that is derived from LiFePO4 or LiMnxFe(1-x)PO4 -containing black mass is acid baked or salt baked and leached with water to extract Li+, one or more types of non-lithium cations, and SO4 2-. A basic reagent is added to the acidic leachate to precipitate salts of the non-lithium cation(s) to form solid leachate tailings. After separating the lithium-enriched liquor from the solid leachate tailings to produce a product liquor, the product liquor is optionally contacted with a precipitation agent in order to precipitate product Li2CO3 or LiOH.

CONTAINER MODULE

Resumen de: AU2024399194A1

Disclosed is a container module. The container module according to an embodiment of the present invention may include: a case that provides an inner space; a battery pack that is accommodated inside the case; a pipe that is located inside the case and has a flow path; and a drain case that is located below the pipe and provides an inner space.

Lithium-ion battery negative electrode and lithium-ion battery

Resumen de: AU2025202590A1

LITHIUM-ION BATTERY NEGATIVE ELECTRODE AND LITHIUM-ION The present invention relates to the field of batteries, in particular to a lithium-ion battery negative electrode and a lithium-ion battery. A negative electrode for a lithium-ion battery comprises a negative electrode current collector and a negative electrode material applied to the negative electrode current collector, characterized in that a compaction density of the negative electrode material is 1.3 - 1.7 g/cm3, a single-side application weight of the negative electrode material on the negative electrode current collector is 3.5 - 6.5 mg/cm2, and a single-side negative electrode material thickness of the negative electrode is 20 - 50 μm. The negative electrode for a lithium-ion battery can improve the self-discharge current of a lithium-ion battery. LITHIUM-ION BATTERY NEGATIVE ELECTRODE AND LITHIUM-ION The present invention relates to the field of batteries, in particular to a lithium-ion battery negative electrode and a lithium-ion battery. A negative electrode for a lithium-ion battery comprises a negative electrode current collector and a negative electrode material applied to the negative electrode current collector, characterized in that a compaction density of the negative electrode material is 1.3 - 1.7 g/cm³, a single-side application weight of the negative electrode material on the negative electrode current collector is 3.5 - 6.5 mg/cm ², and a single-side negative electrode material thickness of the

BATTERY CABINET

Resumen de: AU2024277647A1

A double-walled battery charging cabinet can include: an outer cabinet wall; an inner cabinet wall spaced apart from the outer cabinet wall to form an insulating air gap between the inner cabinet wall and the outer cabinet wall, the inner cabinet wall defining an interior volume; and an air convection port disposed through the outer cabinet wall and the inner cabinet wall. The double-walled battery charging cabinet can further include: a flame arrestor positioned inside or adjacent to the air convection port; a damper positioned adjacent to the air convection port, the damper being biased toward a closed position; a fusible link to hold the damper in an open position, the fusible link having a predetermined melting point at which the damper is released to slide horizontally from the open position to the closed position; and a power outlet disposed inside the interior volume.

NEGATIVE ELECTRODE SHEET, BATTERY AND ELECTRIC DEVICE

Resumen de: AU2024247045A1

A negative electrode sheet, a battery and an electric device. The negative electrode sheet comprises a current collector and a negative electrode active material layer that coats at least one surface of the current collector, wherein the negative electrode active material layer comprises a negative electrode active material, an inorganic porous material and a binder; and the inorganic porous material accounts for 0.1%-5% of the total mass of the negative electrode active material layer.

METHOD FOR RECYCLING GRAPHITE AND RECYCLED GRAPHITE

Resumen de: AU2024265063A1

The present disclosure concerns a method (100) for producing recycled graphite, the method (100) comprising the steps of providing a reclaimed graphite concentrate comprising any one or more of carboxymethyl cellulose and styrene-butadiene rubber, pre-treating (120) the reclaimed graphite concentrate by subjecting the reclaimed graphite concentrate to an oxidizing environment at a temperature in the range 250 - 380 °C, thereby reducing the total concentration of carboxymethyl cellulose and styrene- butadiene rubber to less than 0.25 %, and thermally treating (130) the pre-treated reclaimed graphite concentrate by subjecting the pre-treated reclaimed graphite concentrate to a non-oxidizing environment at a temperature of at least 2300 °C. The invention also describes a recycled graphite, use of a recycled graphite, and a battery comprising a recycled graphite.

Composite anode material and preparation method thereof

Resumen de: AU2024227400A1

COMPOSITE ANODE MATERIAL AND PREPARATION METHOD A composite anode material is provided. The composite anode material includes a graphite, a plurality of silicon particles, and a carbon coating layer. The graphite is pretreated with surface modification through an organic polymer. The plurality of silicon particles are coated on the graphite. The carbon coating layer is coated on the graphite and the plurality of silicon particles. The carbon coating layer is formed by carbonizing the organic polymer through a heat treatment. A preparation method of the composite anode material includes steps as follows. Firstly, a graphite and an organic polymer are mixed to form a first composite particle. Secondly, the first composite particle and a plurality of silicon particles are mixed to form a second composite particle. Finally, a heat treatment is performed on the second composite particle to form the composite anode material. COMPOSITE ANODE MATERIAL AND PREPARATION METHOD A composite anode material is provided. The composite anode material includes a graphite, a plurality of silicon particles, and a carbon coating layer. The graphite is pretreated with surface modification through an organic polymer. The plurality of silicon particles are coated on the graphite. The carbon coating layer is coated on the graphite and the plurality of silicon particles. The carbon coating layer is formed by carbonizing the organic polymer through a heat treatment. A preparation method of the composit

NEGATIVE ELECTRODE SHEET, BATTERY AND ELECTRIC DEVICE

Resumen de: AU2024247141A1

A negative electrode sheet, a battery and an electric device. The negative electrode sheet comprises a current collector and a negative electrode active material layer that coats at least one surface of the current collector, wherein the negative electrode active material layer comprises a negative electrode active material, a silicon dioxide aerogel and a binder; the negative electrode active material is filled with the silicon dioxide aerogel; and the silicon dioxide aerogel accounts for 0.1%-5% of the total mass of the negative electrode active material layer.

Konnektorblock für eine Fluidleitungsstruktur sowie Fluidleitungsstruktur eines modularen Temperiersystems

Nº publicación: DE102024112888A1 13/11/2025

Solicitante:

VOSS AUTOMOTIVE GMBH [DE]
VOSS Automotive GmbH

Resumen de: DE102024112888A1

Die vorliegende Erfindung betrifft einen Konnektorblock (KB) für eine Fluidleitungsstruktur (1a) für ein modulares Temperiersystem (TS) eines Energiespeichers, insbesondere für ein Kühlsystem für Fahrzeugbatterien, mit mindestens einer Sammelleitung (2) für das Fluid sowie mit mindestens einer ersten Abzweigleitung (3) für den Vorlauf des Fluids an mindestens ein fluidführendes hohles, insbesondere plattenförmiges, Kühlelement (4) und mit mindestens einer zweiten Abzweigleitung (4) für den Rücklauf des Fluids von dem fluidführenden hohlen plattenförmigen Kühlelement (20) sowie mit mindestens einer ersten Verteilerschnittstelle (3a) und einer zweiten Verteilerschnittstelle (4a) zum jeweiligen Anschluss der Abzweigleitungen (3, 4) an die Sammelleitung (2). Um eine derartige Struktur (1a) bei Erhalt eines geringen Montageaufwandes und ohne Vergrößerung der Anzahl von Verbindungsstellen derart zu modifizieren, dass darin eine strömungsmechanische Verbesserung des Fluidstromes erzielt werden kann, wird vorgeschlagen, dass in dem Konnektorblock (KB) mindestens eine der Abzweigleitungen (3, 4) trichterförmig ausgebildet ist, wobei sich der Querschnitt der Abzweigleitung (3, 4) ausgehend vom Querschnitt (A2) an der Verteilerschnittstelle (3a, 4a) an der Sammelleitung (2) bis zur Anbindung an den Querschnitt (A20) des fluidführenden hohlen plattenförmigen Kühlelementes (20) erweitert.