Abstract: An auto-eject apparatus for ejecting a charging cord from a communication device after the battery is substantially charged. The auto-eject apparatus serves to provides a connector that ejects a proximal end of a charging cord that is attached to a communication device after the battery of the communication device is substantially charged. A processor component operatively connects to the pins. The processor component runs a software program that detects when the battery is finished charging. The software program may be a battery monitoring program. After detecting a full charge, the software program triggers two pins in the apparatus to mechanically eject the proximal end of the charging cord. The pins axially extend and retract in relation to the housing, such that axially extending the pins urges the connector to disengage from the communication device A linkage assembly articulates between the processor component and the pins to axially displace the pins.

Abstract: The present invention describes a method using temperature data to protect battery health during bidirectional charging in conjunction with monetization activities. The method includes receiving temperature data and determining anticipated energy needs of a building. The temperature data includes at least the temperature of one or more electric vehicle batteries or information required to determine the temperature of the one or more electric vehicle batteries while the anticipated energy needs are relative to ambient air temperature. The method includes determining an amount of discharge of the one or more electric vehicle batteries required to offset the anticipated needs of the building by a predetermined amount and determining based on the temperature data whether discharging the one or more electric vehicle batteries would be harmful to the health of the one or more electric vehicle batteries.

Abstract: A method, and associated batteries and battery charging units, that involve inducing electric and/or magnetic fields (field-induced current) across an electrode of a electrochemical cell, such as an anode of a battery. The field and current across the electrode may be referred to herein as a transverse current as this current is typically transverse to the ionic charge current that may be applied when charging a battery. The field and current may be induced from connecting AC energy, e.g., AC current, across the electrode or at a discrete point or points of the electrode. The induced field and current may suppress dendrite growth, experienced in conventional batteries without AC energy, among other advantages.

Abstract: A mobile fuel cell system includes a fuel cell generator generating a stack output signal. Multiple boost converter circuits converting the stack output signal into multiple recharge signals while in a first mode. A boost converter circuit converting the stack output signal into a local signal while in a second mode. Multiple charging handles connectable to multiple electric vehicles. A switch circuit presenting the recharge signals to the charging handles, remove the recharge signals from the charging handles and present the local signal while in the second mode. An auxiliary load may be connected to the fuel cell generator and the switch circuit. A rechargeable energy storage circuit powers the auxiliary load while in the first mode and stores energy received in the local signal while in the second mode. The auxiliary load is powered with the local signal while in the second mode.

Abstract: Methods and apparatus to charge electric vehicles are disclosed. An example method includes receiving, at a processor, a request for a mobile charging unit to meet an electric vehicle to provide a battery charge to the electric vehicle. The request is generated by the electric vehicle when a ratio of a remaining trip distance of the electric vehicle to a remaining expected range of the electric vehicle exceeds a threshold. The example method further includes identifying, via the processor, a location for the battery charge based on input from a user of the electric vehicle regarding a plurality of possible locations for the battery charge.

Abstract: It is possible to prevent user's convenience from decreasing during charging. A control device includes a current level adjusting section that adjusts, in accordance with temperatures detected at a plurality of locations in a mobile terminal, output current levels of output currents to be outputted from respective plurality of charging circuits, i.e. first to fourth charging circuits.

Abstract: A system includes a behind-the-meter vehicle charging station. The vehicle charging station includes a vehicle-charging interface configured to supply the vehicle-charging power to a vehicle. The vehicle charging station further includes a communication unit configured to trigger a notification in response to a change in power availability. Additionally, the system includes a control system configured to modulate power delivery to the behind-the-meter charging station based on one or more monitored power system conditions or an operational directive.

Abstract: During running of an electric vehicle, a battery temperature control section performs preliminary temperature adjustment processing so that a temperature of the battery at a point of time of arrival at a reachable charging station is within a suitable charging temperature range. When the preliminary temperature adjustment processing is performed, a running control section performs processing for maintaining a remaining capacity securing condition that an estimated remaining capacity is equal to or exceeds a remaining capacity criterion value, the estimated remaining capacity resulting from subtraction of an estimated running electricity amount and an estimated temperature control electricity amount from a remaining capacity of the battery at a current point of time.

Abstract: A selectable charging cable which may have a switch configured to permissively control the transmission of an electrical current between two internet connected, or electronically powered, devices. The switch may be connected to a connection member. The connection member may traverse into a retraction cavity inside of a casing and be optionally connected to a power prong, a data prong, or both. The power prong and the data prong may each have connector pins divided between them. The connector pins for the data prong may be used exclusively for data and the connector pins for the power prong may be used exclusively for power. The switch, being reversibly configurable between a retracted position and an unretracted position, may result in either the data prong, the power prong, or both prongs being incapable of connecting with an internet connected device.

Abstract: A device for the inductive recharging of an electronic element of the mobile-phone or digital tablet type having at least one receiving antenna. The device having an exterior face intended to support the electronic element, a stage of planar shape being able to move inside the device and bearing at least one emitting antenna intended to be aligned with, and in close proximity to, the at least one receiving antenna, the mobile stage being actuated by a motorized actuating mechanism. The actuating mechanism includes a single motor coupled to a main drive element that renders the stage mobile in a plane parallel to the exterior face of the device, the main drive element being circular in shape, and the motor meshing with a periphery of the main drive element and driving the main drive element in rotation.

Abstract: A power supply unit of an aerosol generation apparatus includes: a power supply capable of discharging to a load for generating an aerosol from an aerosol source; a controller configured to control the power supply; a housing configured to house the power supply and the controller; and a plurality of sensors capable of outputting the same physical quantity inside the housing. The controller is configured to diagnose a state of the power supply unit based on outputs of the plurality of sensors.

Abstract: A battery control unit includes an estimation device, a setting device, and a control device. When an open circuit voltage of the battery falls within a range of a flat region, the setting device sets the control storage amount to a first storage amount determined from the lower limit voltage of the flat region, the control device charges the battery until the open circuit voltage becomes a first voltage exceeding the upper limit voltage of the flat region after a vehicle comes into a drivable state, and the setting device sets a storage amount estimated by the estimation device to a control storage amount until the open circuit voltage reaches the first voltage, and sets a second storage amount determined from the open circuit voltage to the control storage amount after the open circuit voltage reaches the first voltage.

Abstract: A non-contact power reception apparatus is provided, in which a power reception coil for a charging system and a loop antenna for an electronic settlement system are mounted on a battery pack and a cover case of a portable terminal such that the power reception coil is arranged in the center thereof and the loop antenna is disposed outside the power reception coil, so that a mode of receiving a wireless power signal and a mode of transmitting and receiving data are selectively performed, thereby preventing interference from harmonic components and enabling non-contact charging and electronic settlement using a single portable terminal. A jig for fabricating a core to be mounted to the non-contact power reception apparatus is provided.

Abstract: Methods, systems and battery modules are provided, which increase the cycling lifetime of fast charging lithium ion batteries. During the formation process, the charging currents are adjusted to optimize the cell formation, possibly according to the characteristics of the formation process itself, and discharge extents are partial and optimized as well, as is the overall structure of the formation process. During operation, voltage ranges are initially set to be narrow, and are broadened upon battery deterioration to maximize the overall lifetime. Current adjustments are applied in operation as well, with respect to the deteriorating capacity of the battery. Various formation and operation strategies are disclosed, as basis for specific optimizations.

Abstract: Disclosed is a cloud storage-based battery swap system for an electric vehicle, which is intended to solve the problems of the existing electric vehicles, such as inconvenient use of an energy supply system, and excessive individual difference and excessive cost of a battery pack. The system comprises: a battery pack information storage apparatus for storing battery pack information of an electric vehicle; a battery pack allocation station for storing battery packs and charging the battery packs; and a battery swap station for replacing a battery pack for the electric vehicle, and communicating with the battery pack information storage apparatus to transmit the battery pack information to the battery pack information storage apparatus. In addition, a battery management system for the battery pack is disposed on the electric vehicle outside the battery pack. Also disclosed is a method for the system.

Abstract: A method of charging a battery including a plurality of cells, the method including charging the plurality of cells at a plurality of C-rates, respectively; calculating a voltage change of each of the plurality of cells and a slope of the voltage change of each of the plurality of cells; and performing discharging multiple times in a section where a deviation between the slopes of the voltage changes of the plurality of cells is equal to or larger than a predetermined reference value.

Abstract: Methods and devices for wired charging and communication with a wearable device are described. In one embodiment, a symmetrical contact interface comprises a first contact pad and a second contact pad, and particular wired circuitry is coupled to the first and second contact pad to enable charging as well as receive and transmit communications via the contact pads as part of various device states.

Abstract: This application is directed to an apparatus for providing electrical charge to a vehicle. The apparatus comprises a driven mass, a generator, a charger, a hardware controller, and a communication circuit. The driven mass rotates in response to a kinetic energy of the vehicle and is coupled to a shaft such that rotation of the driven mass causes the shaft to rotate. The driven mass exists in one of (1) an extended position and (2) a retracted position. The generator generates an electrical output based on a mechanical input coupled to the shaft such that rotation of the shaft causes the mechanical input to rotate. The charger is electrically coupled to the generator and: receives the electrical output, generates a charge output based on the electrical output, and conveys the charge output to the vehicle. The controller controls whether the driven mass is in the extended position or the retracted position in response to a signal received from the communication circuit.

Abstract: A interface circuit includes: a power supply circuit, configured to output a DC voltage; a voltage conversion circuit, configured to convert the DC voltage to a target voltage, wherein the voltage conversion circuit is a step-down conversion circuit; a first Type-C port and a second Type-C port, configured to be connected to the respective loads; a switch circuit, connected to the power supply circuit, the voltage conversion circuit, the first Type-C port and the second Type-C port respectively; and a USB controller, configured to communicate with the first Type-C port and the second Type-C port respectively, and regulate the DC voltage and the target voltage according to supply voltages of the loads connected to the first Type-C port and the second Type-C port, and control the switch circuit to apply the DC voltage or the target voltage to a Type-C port connected to a corresponding load.

Abstract: An alternator control device includes a battery state determination unit determining whether the state of a battery is a predetermined normal state, a vehicle speed determination unit determining whether the speed of a vehicle is within a predetermined low speed range, a position determination unit determining whether the position of the vehicle meets a predetermined positional condition, and an output voltage instruction unit gives an instruction relating to the output voltage of the alternator. The output voltage instruction unit gives an instruction to increase the output voltage of the alternator to a voltage that is greater than a reference voltage, if it is determined that the state of the battery is not the predetermined normal state, if it is determined that the speed of the vehicle is within the predetermined low speed range, and if it is determined that the position of the vehicle meets the positional condition.