Abstract: A vehicle charging station according to an exemplary aspect of the present disclosure includes, among other things, a cooling system configured to communicate a cooling airflow to a portion of a thermal management system located onboard an electrified vehicle, the cooling system including a fan and a chiller assembly.

Abstract: The invention relates to a method for impressing an electrical alternating signal in an electrochemical energy supply device (1) by means of a control device (2), in which method a coupling capacitor (Ck) is connected in series between the control device (2) and the energy supply device (1) during the duration of the signal impression operation comprising the following steps which are executed by the control device (2): a) outputting an output signal (Sout) corresponding to the alternating signal to be impressed, for impression into the energy supply device (1), wherein the output signal (Sout) is determined based on at least one setpoint (Sset), which is set by the control device (2), of the alternating signal to be impressed; b) detecting an actual signal (Sact) which corresponds to the output signal and which is applied to the energy supply device, c) comparing the actual signal (Sact) with the setpoint (Sset) of the alternating signal to be impressed and d) controlling the output signal (Sout) in order t

Abstract: Provided are a wireless charging system and methodology including a charging station, an application, and a server configured and operating to facilitate wireless vehicle charging. The charging station includes a charging unit for transferring power, a control unit, and a communication unit. The application is accessible through a mobile device and capable of communicating with the charging station. The server is capable of communicating with the charging station and the mobile device.

Abstract: A power supply system includes a plurality of batteries, a plurality of battery control devices, and a charging device configured to receive charging information of the batteries transmitted from the battery control devices. The batteries are connected in parallel. Each of the battery control devices is configured to set any one of the batteries as a target battery, and control a charging state of the target battery. Each of the battery control devices is configured to transmit and receive an internal resistance value obtained from the target battery to and from other battery control devices, and generate and transmit charging information of the target battery based on the internal resistance values of the batteries. The charging device is configured to execute charging processing of the batteries based on the charging information of the batteries.

Abstract: In one aspect, a battery includes at least one anode, at least one cathode, and electrolyte between the at least one anode and at least one cathode. The at least one cathode comprises at least a first charging material and at least a second charging material different from the first material.

Abstract: A wireless power system receives an input voltage signal from a first node of a secondary side coil, comprises an active rectifier, a buck converter, and a linear charger comprising a first resistor, a second resistor, a third resistor, a mode switching circuit, a current mirror circuit. The active rectifier rectifies the input voltage signal to generate a rectified voltage signal. The first resistor couples between a first node point and second node point. The second resistor couples between the second node point and ground terminal. The third resistor couples between a third node point and ground terminal. The current mirror circuit outputs a reference current and charge current according to the rectified voltage signal and mode switching signal generated by the mode switching circuit. The buck converter outputs a first output voltage signal or second output voltage signal according to a first node point voltage.

Abstract: The present invention relates to a local control system (6) configured to define a charge or discharge command made to a power storage device (5) on the basis of a charge or discharge instruction, sent by an overall control system (7), and the instantaneous power used by the power-using devices (4), such that the instantaneous power used by the power using devices (4) is always greater than the discharge power of the power storage device (5), so as to guarantee that the power stored by the power storage device (5) is not re-injected into the power distribution network (3).

Abstract: A method is described for an inductive transmission of energy, in particular for charging an energy storage device, in which an induction unit transmits at least one synchronizing signal. It is provided that, in a synchronizing step, at least one signal characteristic of the synchronizing signal is set.

Abstract: An adapter and a method of controlling a charging process are provided. The adapter includes a power converting circuit and a control circuit. The power converting circuit is configured to convert inputted alternating current to generate output voltage and output current of the adapter, the power converting circuit comprising a secondary filter circuit. The control circuit is coupled to the secondary filter circuit and configured to control the secondary filter circuit to operate when the adapter operates in the first charging mode, so that the adapter outputs constant direct current, and configured to control the secondary filter circuit not to operate when the adapter operates in the second charging mode, so that the adapter outputs an alternating current or a pulsating direct current.

Abstract: A decrease in the capacity of a power storage device is inhibited by adjusting or reducing imbalance in the amount of inserted and extracted carrier ions between positive and negative electrodes, which is caused by decomposition of an electrolyte solution of the negative electrode. Further, the capacity of the power storage device can be restored. Furthermore, impurities in the electrolyte solution can be decomposed with the use of the third electrode. A power storage device including positive and negative electrodes, an electrolyte, and a third electrode is provided. The third electrode has an adequate electrostatic capacitance. The third electrode can include a material with a large surface area. In addition, a method for charging the power storage device including the steps of performing charging by applying a current between the positive and negative electrodes, and performing additional applying a current between the third electrode and the negative electrode is provided.

Abstract: As described herein, a photovoltaic film may include a plurality of photovoltaic cells arranged to form a frit pattern. The photovoltaic film may be affixed to a transparent substrate to form a film-treated panel. The transparent substrate may be glass, such as a windowpane. The photovoltaic cells may be configured to convert sunlight into electrical energy. The electrical energy may be stored and used to power an electrical device.

Abstract: An electronic device includes a power transmit port, a first battery unit, a second battery unit, a first voltage-controlled conducting circuit, a first selective conducting circuit, a second voltage-controlled conducting circuit, a second selective conducting circuit and a processing unit. The first and second voltage-controlled conducting circuit connects the corresponding battery unit to the power transmit port in electric when the voltage of the corresponding battery unit is higher than the voltage of the power transmit port. The first selective conducting circuit connects the first battery unit to the power transmit port in electric according to a first turn-on signal. The second selective conducting circuit connects the second battery unit to the power transmit port in electric according to a second turn-on signal. The processing unit generates the first turn-on signal and the second turn-on signal in selective.

Abstract: A system includes a circuit configured to detect a voltage corresponding to an electrical measurement of a nanopore. The system also includes a component configured to compare the voltage to another voltage. Based at least in part on the comparison, a one bit indicator is determined. The one bit indicator indicates whether the voltage indicates a change in a state of the nanopore. In the event it is determined that the voltage indicates the change in the state of the nanopore, a multiple bit signal is provided for output.

Abstract: An apparatus checks for a presence of an electrically conductive body in the near field of charging coils of an arrangement for induced charging. At least one transmitting device provides a transmission signal in the form of a magnetic field. At least one receiving device generates a reception signal from the transmission signal and induced into the receiving device. The transmitting device and the receiving device are formed in such a way that, when the electrically conductive body is present, a first reception signal forms and, when the electrically conductive body is absent, a second reception signal, different than the first, forms in the receiving device on account of the induced transmission signal.

Abstract: A method for coordinating a charging operation for charging an energy storage mechanism of a piloted motor vehicle. A control mechanism that is external to the vehicle carries out: provision of a state-of-charge signal, which describes a current state of charge; provision of a schedule calendar signal, which describes schedule information of a user, on the basis of the provided schedule calendar signal; establishing a point in time of the time schedule; establishment of a state of charge as a threshold value required for adhering to the time schedule; if the current state of charge corresponds to the threshold value or drops below the threshold value, setting of geographic coordinates of a charging station as a drive destination that makes available at least one charging facility for charging the energy storage mechanism, and generation of a control signal for steering the motor vehicle.

Abstract: This disclosure provides systems, methods and apparatus for an energy storage system. In one aspect, the energy storage system includes a controller configured to connect a capacitor system in series with an output of a battery system during a regenerative event such that the voltage of the capacitor system is subtracted from the voltage of the battery system.

Abstract: Deterioration of a power storage device is reduced. Switches that control the connections of a plurality of power storage devices separately are provided. The switches are controlled with a plurality of control signals, so as to switch between charge and discharge of each of the power storage devices or between serial connection and parallel connection of the plurality of power storage devices. Further, a semiconductor circuit having a function of carrying out arithmetic is provided for the power storage devices, so that a control system of the power storage devices or a power storage system is constructed.

Abstract: A storage device includes a base and a plurality of wire management modules. Each of the wire management modules includes a partition and a pivotal member. The partition is disposed to the base and has a supporting surface and a wire management groove. The supporting surface is located at the partition. The wire management groove is located at the supporting surface for accommodating wire. The pivotal member includes a fastening part and a pivotal part. The pivotal part is pivoted on the partition for a fastening position and a releasing position. When the pivotal member is at the fastening position, the fastening part covers the supporting surface for fastening wire between the surface and the fastening part. When the pivotal member is at the releasing position, the fastening part is spaced apart from the surface for releasing wire. The partitions and the base together form accommodation spaces.

Abstract: An electric apparatus unit comprises electric apparatus and charging stand. Electric apparatus includes rechargeable battery, a driver that drives through electric power supplied from rechargeable battery and power receiver that supplies the electric power to rechargeable battery. Charging stand includes power transmission coil that supplies electric power to power receiver and support that supports electric apparatus.

Abstract: A control device on a power receiving side includes a charging portion that charges a battery based on power that is received by a power receiving portion that receives power from a power transmitting device, a control portion 54 that performs charging control, and a nonvolatile memory. The nonvolatile memory stores status information of the battery, and the control portion performs charging control based on the status information stored in the nonvolatile memory.