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182
results.
Updated on
15/11/2026 [07:06:00]
Results 125 to 150 of 182
Absstract of: US20260360837A1
An apparatus for requesting battery information may include a communication unit configured to communicate with a battery information provision device, a target determination unit configured to determine target information to be obtained and determine at least one target battery for which the target information is to be obtained from a preset battery list, and a control unit. The control unit may be configured to generate a request packet including target battery information about the at least one target battery and the target information, transmit the generated request packet to the battery information provision device through the communication unit, and receive a response packet including battery information of the at least one target battery corresponding to the target information received from the battery information provision device through the communication unit in response to the request packet.
Absstract of: US20260354498A1
A battery coupling structure includes a battery for supplying power, a housing including a coupling space for accommodating the battery, a plurality of receiving terminals inserted into a portion of the housing to receive power from the battery, a pressing member for pressing the battery accommodated in the coupling space so that the battery contacts each of the plurality of receiving terminals, and an elastic member for supporting the pressing member and moving the pressing member in a direction crossing an insertion direction of the battery, wherein the plurality of receiving terminals sequentially contact the battery during insertion of the battery into the coupling space.
Absstract of: US20260358272A1
A quality management device capable of reducing production loss cost by predicting a yield in a battery inspection process based on foreign matter inspection data of a battery material or a product in process including a model storage unit storing a relational expression that formulates a relation between foreign matter inspection data from a foreign matter inspection device configured to measure a foreign matter mixed as an impurity in a battery material or a product in process in a battery production process and battery inspection data to inspect, in a battery inspection process, electrical characteristics of a battery; a yield prediction value calculation unit configured to calculate a yield prediction value in the battery inspection process using the relational expression of the model storage unit with the foreign matter inspection data as an input; and a yield prediction value display unit configured to display the yield prediction value.
Absstract of: US20260360847A1
A battery cell pressurizing jig includes a first pressurizing part for pressurizing a first surface of a battery cell, the battery cell including an electrode assembly, a pair of lead tabs electrically connected to the electrode assembly, and a cell case surrounding the electrode assembly, and a second pressurizing part positioned to face the first pressurizing part and for pressurizing a second surface of the battery cell, wherein the first pressurizing part includes a first assembly block portion configured to pressurize an assembly region where the electrode assembly is disposed on the first surface of the battery cell, and a pair of first tab block portions each configured to pressurize a pair of lead tab regions including a boundary region between each lead tab and the cell case.
Absstract of: US20260360690A1
Provided is a lithium secondary battery characterized by including: a negative electrode in which an amorphous silicon active material is laminated on a negative electrode current collector; a positive electrode in which a positive electrode active material is laminated on a positive electrode current collector; and an electrolyte having low reactivity with the negative electrode, wherein the positive electrode, the negative electrode, and the electrolyte are assembled under pressure.
Absstract of: US20260360905A1
A battery module, and associated methods are disclosed. In one aspect, a battery module includes thermal isolation structures with a structural support-plate and an aerogel layer. Aspects of thermal isolation structures are shown that include a. module cover contact located on a top end of a structural support plate.
Absstract of: US20260361814A1
An electronic device including a secondary battery, a body portion including and indent defining a receiving portion, the receiving portion being configured to accommodate the secondary battery and an insert at least partially bonded to the secondary battery, the insert being configured to separate the secondary battery from the receiving portion as the insert is deformed, the insert including manipulation portion, and a deformation portion connected to the manipulation portion and configured to be deformed by manipulation of the manipulation portion.
Absstract of: US20260356690A1
A lithium metal composite oxide having a layered structure, and satisfying (1) and (2) shown below. (1) The lithium metal composite oxide contains Co, an element M1 and an element M2, wherein the molar ratio of the element M1 relative to Co is at least 0.05 but not more than 6, the element M1 is one or more elements selected from the group consisting of Si, Ca and Na, and the element M2 is one or more elements selected from the group consisting of Fe and Mg. (2) In X-ray diffraction measurements using CuKα radiation, two diffraction peaks exist within a range of 2θ=38.0±0.5°, and of those two peaks, if the diffraction peak on the lower angle side is deemed peak A and the diffraction peak on the higher angle side is deemed peak B, then the following formula is satisfied: 0.50≤IA/IB≤0.75 (wherein IA represents the peak area of the peak A, and IB represents the peak area of the peak B).
Absstract of: AU2025279502A1
Provided are a battery recycling system and a battery recycling method. The battery recycling system comprises: a first crushing apparatus (10), at least part of the first crushing apparatus (10) being used for crushing electrode sheets; a second crushing apparatus (20), a pyrolysis apparatus (30) and a sorting apparatus (40), the second crushing apparatus (20) being used for crushing battery cells, the pyrolysis apparatus (30) being communicated with a discharge port of the second crushing apparatus (20), the sorting apparatus (40) being communicated with the pyrolysis apparatus (30) and being used for sorting materials obtained by performing pyrolysis by means of the pyrolysis apparatus (30), the sorting apparatus (40) being provided with a first sorting outlet and a second sorting outlet which are spaced apart, and the first sorting outlet being located at the bottom of the second sorting outlet; and a powder removal apparatus, the powder removal apparatus being selectively communicated with the second sorting outlet and/or the first crushing apparatus (10), and the powder removal apparatus being used for performing powder removal processing.
Absstract of: US20260360839A1
An energy storage system comprising multiple energy storage units and a control system having multiple first connection elements, wherein the energy storage units each have second connection elements which are or can be connected to the first connection elements, and wherein the energy storage units are designed in such a way that a different design and/or connection layout of the first connection elements can be recognized.
Absstract of: US20260360724A1
A positive electrode material includes a plurality of single particle-based positive electrode active material particles each including 1 to 30 primary particles. A product of an arithmetic mean value of circularities of the primary particles and an arithmetic mean value of convexities thereof is at least 0.60. The circularity is defined by 4πA/P2, wherein A is an area of, and P is a circumference of, each primary particle. The convexity is defined by Pc/Pr, wherein Pr is an actual circumference of each primary particle and Pc is a circumference of a virtual figure. The single particle-based positive electrode active material includes a lithium nickel-based oxide represented by LiaNixCoyM1zM21-x-y-zO2 wherein M1 includes Mn, Al, or a combination thereof, M2 includes at least one of B, Ba, Ce, Cr, F, Mg, Al, V, Ti, Fe, Zr, Zn, Si, Y, Nb, Ga, Sn, Mo, W, P, or Sr, 1.0≤a≤1.3, 0.5≤x<1.0, 0
Absstract of: US20260360820A1
The present relates to the field of energy storage devices such as lithium-ion batteries, sodium-ion batteries, and sodium anode-free batteries. More specifically, the disclosure provide room temperature liquid electrolyte compositions separately and in combination as used in lithium and sodium-based batteries.
Absstract of: AU2025242252A1
A battery pack includes: a housing; a battery module disposed in the housing and including multiple cells; and battery terminals including at least a positive terminal, a negative terminal, and a communication terminal and configured to electrically connect the battery pack to an external electrical device. A discharge electronic switch is connected at least between a positive electrode of the battery module and the positive terminal to control the on and off of a discharging circuit. The battery pack further includes: a parameter detection module configured to detect electrical parameters of the battery terminals; and a controller configured to control a switching state of the discharge electronic switch based on the electrical parameters. In this manner, at least the safety of the battery pack for a power tool can be enhanced. A battery pack includes: a housing; a battery module disposed in the housing and including multiple cells; and battery terminals including at least a positive terminal, a negative terminal, and a communication terminal and configured to electrically connect the battery pack to an external electrical device. A discharge electronic switch is connected at least between a positive electrode of the battery module and the positive terminal to control the on and off of a discharging circuit. The battery pack further includes: a parameter detection module configured to detect electrical parameters of the battery terminals; and a controller configured to contr
Absstract of: DE102026119441A1
Ein Verfahren zum Betreiben eines Akkupack-Ladegeräts umfasst das Zuweisen eines ersten Abwärtswandlers zu einer ersten Ladebucht, das Zuweisen eines zweiten Abwärtswandlers zu einer zweiten Ladebucht, das Zuweisen eines anfänglichen Ladestroms zu der ersten Ladebucht und der zweiten Ladebucht, das Zuweisen eines zusätzlichen Ladestroms zu der ersten Ladebucht, nachdem der anfängliche Ladestrom zu der ersten Ladebucht und der zweiten Ladebucht zugewiesen worden ist, das Bereitstellen des zusätzlichen Ladestroms über den ersten Abwärtswandler an die erste Ladebucht und das Bereitstellen des anfänglichen Ladestroms über den zweiten Abwärtswandler an die zweite Ladebucht.
Absstract of: DE102025117450A1
Die vorliegende Erfindung betrifft ein Verfahren zur Herstellung einer Batteriegehäuseschale, wobei das Verfahren einen Schritt des Einleiten (S7) eines Fluids über den Zulaufanschluss eines Kühlhalbzeugs (30) zwischen eine Basisplatte (32) und eine Deckplatte (31) des Kühlhalbzeugs (30) aufweist, sodass die Bodenfläche (322) der Basisplatte (32) unter Ausbildung des Fluidkanals (40) plastisch deformiert wird. Ferner betrifft die Erfindung ein Formwerkzeug (10) zur Herstellung einer Batteriegehäuseschale.
Absstract of: DE102025117834A1
Die Erfindung betrifft eine Akkumulatorzellenvorrichtung (1) umfassend einen Stapel (2) aus bipolar miteinander kontaktierten Elementarzellen (E1 bis E6), die entlang einer Stapelrichtung (3) in Reihe aufeinander folgen. Zur sicheren Kontaktierung der Elementarzellen (E1 bis E6) ist ein Kraftspeicher (40, 40') vorgesehen, der eine Differenzlänge des Stapels (2) bei unterschiedlichen Ladezuständen kompensiert. Ferner ist eine einen Anfang des Stapels (2) und einer ein Ende des Stapels (2) bildende Abschlusselektrode (4, 6) vorgesehen, die mit einem äußeren positiven Anschlusspol (5) und einem äußeren negativen Anschlusspol (7) der Akkumulatorzellenvorrichtung (1) verbunden sind. Um aufgrund der Längenänderung des Stapels (2) auftretende Lageverschiebungen der Abschlusselektroden (4, 6) auszugleichen und mechanische Kräfte von den Anschlusspolen (5, 7) fernzuhalten, umfasst die innere elektrische Verbindung (13) zwischen dem positiven Anschlusspol (5) und dem negativen Anschlusspol (7) zumindest einen elastisch nachgiebigen Leitungsabschnitt (35, 36, 37).
Absstract of: DE102025117953A1
Die Erfindung betrifft Energieversorgungseinrichtung (1) für ein mobiles Elektrowerkzeug (2), welche zumindest eine Zelle (11, 12) mit einem ersten Zellpol (P1), einem zweiten Zellpol (P2) und mit einer Zelleneinheit (100) zur Speicherung elektrischer Energie umfasst, wobei die Zelleneinheit (100) umfasst: ein Reaktionsmaterial (Li), welches in mobile Ladungsträger (Li+) umwandelbar ist; zumindest eine Schichtanordnung (SA1, SA2) mit: einem Anodenstromkollektorkörper (AS1, AS2); einem Kathodenstromkollektorkörper (KS1, KS2); einem Isolationskörper (IS1, IS2), welcher zwischen dem Anodenstromkollektorkörper (AS1, AS2) und dem Kathodenstromkollektorkörper (KS1, KS2) angeordnet ist; wobei der Anodenstromkollektorkörper (AS1, AS2), der Kathodenstromkollektorkörper (KS1, KS2) und der Isolationskörper (IS1, IS2) zum Durchtritt der mobilen Ladungsträger (Li+) entlang einer Diffusions- und/oder Migrationsrichtung (DMR) während eines Ladevorgangs und/oder eines Entladevorgangs der zumindest einen Zelle (11, 12) konfiguriert sind; wobei ein Anodenanschlussabschnitt (AS1A, AS2A) des Anodenstromkollektorkörpers (AS1, AS2) mit dem ersten Zellpol (P1) und ein Kathodenanschlussabschnitt (KS1A, KS2A) des Kathodenstromkollektorkörpers (KS1, KS2) mit dem zweiten Zellpol (P2) verbunden ist; wobei der Anodenstromkollektorkörper (AS1, AS2) und der Kathodenstromkollektorkörper (KS1, KS2) jeweils konfiguriert ist, während des Ladevorgangs und/oder des Entladevorgangs einen elektris
Absstract of: US20260360890A1
A battery tray deep-drawn from a steel sheet blank with a thickness of 0.8 to 1.6 mm includes an inner compartment configured by a bottom and a side wall, a flange protruding from the side wall to the outside, and edge portions where two adjacent side wall portions and the bottom are met. The height of at least two side wall portions parallel to each other on opposing sides of the battery tray is at least 85 mm, and the tensile strength of the battery tray is at least 780 MPa. The at least two edge portions respectively have, in cross-sectional view taken at the center of adjacent side wall portions, a wavy shape from the bottom up to the flange with successively a convex inner bottom radius, a concave outer central radius, a convex inner upper radius and a concave outer flange radius, when viewed from the inner compartment.
Absstract of: US20260360753A1
Provided are a copper foil and an electrode and secondary battery including the same, the copper foil including a copper layer including a metal chelating agent, wherein the copper foil has ΔCTE of 10 μm/(m·°C) or less according to Equation 1 below: ΔCTE=CTE2−CTE1Equation 1 where CTE1 is a first thermal expansion coefficient of the copper foil measured by raising a temperature from 30 °C to 40 °C at a rate of 5 °C/min using a thermomechanical analyzer, and CTE2 is a second thermal expansion coefficient of the copper foil measured by raising a temperature from 30 °C to 190 °C under the same conditions.
Absstract of: US20260356245A1
A battery thermal gradient observer (BTGO) system includes a battery having cells and a cold plate. Sensors detect battery temperature and battery electrical information. A BTGO application obtains sensor information, monitors a battery state of health (SoH), a state of charge (SoC), a voltage, an SoC balance of the cells, a coolant flow, and coolant intake and coolant outlet temperatures. A non-linear thermal model of the battery and a linear model prediction of thermal characteristics of the battery are generated. Then boundary conditions at edges of the battery are adaptively modeled. The system evaluates heat transfer between edges of the battery and internal nodes of the battery. Utilizing the boundary conditions, and linear model prediction, the system monitors hot and cold points within the battery in real-time and dynamically adjusts charging currents and voltages based on observed thermal gradients to enable fast charging without exceeding thermal limits of the battery.
Absstract of: US20260360815A1
A non-aqueous secondary battery including a positive electrode current collector foil, a positive electrode layer containing a positive electrode active material, an electrolyte layer containing a separator and a non-aqueous electrolyte solution, a negative electrode layer, and a negative electrode current collector foil, in which the positive electrode active material is lithium manganese iron phosphate (LMFP), a basis weight of the positive electrode layer is 20 mg/cm2 or more, the non-aqueous electrolyte solution contains lithium bis(fluorosulfonyl)imide (LiFSI) as a lithium salt, a sulfonamide compound as an additive, and a cyclic carbonate compound and an ester compound as solvents, a concentration of the lithium salt in the non-aqueous electrolyte solution is 1.4 M or more, and the sulfonamide compound is at least one of N,N-dimethyltrifluoromethanesulfonamide (CF3SO2N(CH3)2) and N,N-dimethylsulfamoyl fluoride ((CH3)2NSO2F).
Absstract of: US20260360812A1
A gel polymer electrolyte composition for lithium metal batteries according to embodiments of the present disclosure includes a compound including one or more ether groups and four or more acrylate groups, a fluorinated organic solvent, and a lithium salt. Accordingly, ionic conductivity and stability of a lithium metal battery may be improved.
Absstract of: US20260360807A1
A dopant for a lithium-ion solid-state electrolyte (SSE) is disclosed for improving interfacial stability between halide-based SSEs and lithium-containing anodes. The dopant possesses a reduction potential higher than that of a central metal within the electrolyte framework. Therefore, during battery operation, the dopant is preferentially reduced, forming an interphase layer at the electrolyte-anode interface that suppresses reduction of the host electrolyte framework and mitigates interfacial degradation. The dopant thereby enables direct, stable contact between the halide SSE and the lithium-containing anode, without requiring a separate protective interlayer. In certain implementations, the dopant comprises FeCl3 incorporated into a Li3InCl6-based electrolyte, enabling stable operation with a lithium-indium alloy anode while maintaining the electrolyte's ionic conductivity.
Absstract of: US20260360792A1
The present disclosure provides a device for manufacturing an electrode assembly including a first electrode, a second electrode, a first separator portion arranged between the first electrode and the second electrode, and a second separator portion extended from the first separator portion, including a separator-supplying unit unwinding and supplying a wound separator; a cutting unit cutting an extended separator supplied from the separator-supplying unit, to form a cutting separator including the first separator portion and the second separator portion; and a bonding unit attaching an end portion of the second separator portion to a stack in which the first electrode, the second electrode, and the first separator portion are arranged, wherein the bonding unit includes a nozzle unit applying an adhesive to one surface of the stack, and a sensor unit sensing a boundary of the one surface of the stack.
Nº publicación: US20260360817A1 12/11/2026
Applicant:
TOYOTA JIDOSHA KK [JP]
TOYOTA JIDOSHA KABUSHIKI KAISHA
Absstract of: US20260360817A1
A non-aqueous secondary battery including a positive electrode current collector foil, a positive electrode layer containing a positive electrode active material, an electrolyte layer containing a separator and a non-aqueous electrolyte solution, a negative electrode layer, and a negative electrode current collector foil, in which the positive electrode active material is lithium manganese iron phosphate (LMFP), a basis weight of the positive electrode layer is mg/cm2 or more, the non-aqueous electrolyte solution contains lithium bis(fluorosulfonyl)imide (LiFSI) as a lithium salt, a dinitrile compound as an additive, and a cyclic carbonate compound and an ester compound as solvents, a concentration of the lithium salt in the non-aqueous electrolyte solution is 1.4 M or more, and the dinitrile compound is succinonitrile (SN).
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