Vehicle to project concrete, including a truck provided with a main motor to move the truck using a movement unit, a unit to project the concrete equipped with a pumping device configured to feed the concrete along a pipe, where the vehicle includes a unit to generate and feed electric energy configured to selectively feed one or more of either the movement unit of the truck, the concrete projection unit and the pumping device.

This hybrid vehicle (10) has an HV mode and an EV mode, creates a predetermined traveling plan in a manner so as to switch between HV mode and EV mode on the basis of map information, and performs mode switching control on the basis of the traveling plan. The hybrid vehicle (10) limits the execution of mode switching control that is on the basis of the traveling plan in the case of a predetermined state such that the power that can be output by a battery (28) that is the storage battery connected to a second MG (24) that is a rotary electric machine driven during execution of the EV mode is limited.

A wireless power-transmitting device includes a power-transmitting coil installed in a predefined parking area, a receiving device configured to receive a signal for a power supply instruction transmitted through a windshield or through a rear window of a vehicle, and a control device configured to control supply of electric power from the power-transmitting coil to a power-receiving coil of the vehicle based on the signal received by the receiving device.

A charger cooling air source selection method includes cooling a vehicle battery charger by opening an outside air vent door in a vehicle and drawing outside air through the outside air vent door; determining whether the outside air vent door will close; and if the outside air vent door will not close, establishing and maintaining positive air pressure in a cabin of the vehicle by ensuring an open configuration of a recirculation door in the vehicle.

The present disclosure discloses a vehicle and a coasting feedback control method for the same. The coasting feedback control method includes the following steps: detecting the current speed of a vehicle, the depth of a braking pedal of the vehicle, and the depth of an accelerator pedal; and when the current speed of the vehicle is greater than a preset speed, both the depth of the braking pedal and the depth of the accelerator pedal are 0, and the current gear of the vehicle is gear D, when the vehicle is not in a cruise control mode and an anti-lock braking system of the vehicle is in a non-working state, controlling the vehicle to enter a coasting feedback control mode, where when the vehicle is in the coasting feedback control mode, a coasting feedback torque of a first motor generator and a coasting feedback torque of a second motor generator are distributed according to a selected coasting feedback torque curve of the vehicle.

Provided is a battery control device for the standardization of a battery, and more particularly, to a battery control device for the standardization of a battery, which allows one or more application modules performing functions of a battery management system (BMS) to independently operate with respect to a time, prevents data shared by one or more respective application modules from being subordinate to each other, and further, allows one or more application modules to perform functions thereof regardless of a change of the mode.

Methods and apparatuses for wireless inductive power transfer are described herein. One implementation may include an apparatus for wireless inductive power transfer. The apparatus comprises a primary resonator configured to wirelessly transfer power to a secondary resonator coupled to a load of a wireless power receiver. The apparatus comprises a coupling circuit configured to couple energy from a source power supply to the primary resonator. The apparatus comprises a controller configured to coordinate an adjustment of a first amount of coupling between the source power supply and the primary resonator, via the coupling circuit, with an adjustment of a second amount of coupling between the secondary resonator and the load of the wireless power receiver. The coupling circuit comprises a first coupling loop comprising a plurality of segments, each configured to be selectively electrically connected to the source power supply, the first coupling loop electrically isolated from the primary resonator.

A charge amount display apparatus of an electric vehicle, which enables a driver to be easily aware that a charge amount has been set at a value less than a full charge, is provided. The charge amount display apparatus comprises a control unit 11 for setting a charge limit value which serves as the upper limit of the charge amount of a battery 2; and a display unit 13 for displaying a maximum charge amount, to which the battery 2 can be charged, and the charge limit value. The maximum charge amount is displayed by a segment group 30 composed of a plurality of segments 31 arranged side by side in one direction for representing the charge amount of the battery 2. The segments 31a for a value equal to or lower than the charge limit value, and the segments 31b for a value higher than the charge limit value are displayed in different colors. The segments for a charge amount equal to or lower than the charge limit value are displayed in a first region 21a of a first display region 21 of the display unit 13. A mark 32 indicating that the charge limit value has been set is displayed between the first region 21a and a second region 21b.

A battery pack assembly includes a first battery cell supplying electric current to an electronic load, a second battery cell supplying electric current to the electronic load, and a first switch operatively coupled with the first battery cell and the electronic load. The first switch stops conduction of the electric current to the electronic load responsive to an increase in electric demand of the electronic load above a designated threshold. A method of powering an electronic load using a battery pack assembly also is provided.

A method of analyzing data related to a driving range estimation of a vehicle includes collecting attribute data related to the driving range estimation of the vehicle, analyzing a correlation between the attribute data and a driving range of the vehicle, generating a vehicle driving range estimation model based on the analyzed correlation, and analyzing a sensitivity between the vehicle driving range estimation model and the attribute data.