Abstract: A charging system for charging a vehicle includes a charging station and a vehicle. The charging station includes a wireless charging coil, at least one ultrasonic sensor oriented to detect a vehicle proximate the coil, and a first wireless communication device. The vehicle includes a charge plate, a second wireless communications device in communication with the first wireless communication device, an in-vehicle display, and at least one controller. The controller is configured to present positional information via the display. The positional information corresponds to a vehicle position detected by the at least one sensor and transmitted via the first and second wireless communications devices.

Abstract: An example electric vehicle battery assembly includes a plurality of battery cells, a cold plate, and a biasing device to urge the plurality of battery cells toward the cold plate. An example method includes biasing a battery cell toward a cold plate to enhance thermal energy transfer between the battery cell and the cold plate.

Abstract: A traction battery assembly includes a battery stack having a first cell defining one end of the stack. An endplate is disposed proximate the first cell. An insulator body is disposed between the endplate and the first cell. The insulator body thermally insulates the first cell from the endplate to reduce dissipation of cell-generated heat and to facilitate cell stack warm up in cold conditions. The traction battery assembly may also include a heating element to provide thermal energy to the cell stack.

Abstract: A high voltage connector assembly is provide which may include a first connector having a first adapter and a first portion of an identification mark and a second connector having a second portion of the mark and a second adapter which may be configured to engage the first adapter. The first and second portions may be arranged on the connectors such that the portions are aligned to define the mark when the adapters are completely engaged and not aligned otherwise. The mark may include one or more electronically readable indicators identifying each of the first and second connectors. The mark may include indicia indicative of adapter engagement or adapter mis-engagement.

Abstract: A traction battery includes a housing. A service disconnect base is disposed on the exterior surface of the housing. The service disconnect base includes a uni-terminal connector disposed within the base and electrically connected to the battery cells that are disposed within the housing. A service disconnect plug is configured to mechanically engage with the base. The service disconnect plug includes cabling configured to electrically connect the uni-terminal to a high voltage bus when the plug is engaged with the base.

Abstract: A vehicle includes a traction battery to propel the vehicle. The traction battery includes a plurality of cells that are each selectively connected to a resistor. A controller or controllers are provided that are configured to control the charging and discharging of the cells. The controller or controllers command the battery or a selected group of cells of the battery to discharge in response to a fault or triggering condition. The discharge enables the battery or the group of cells to achieve a state of charge of approximately zero or less.

Abstract: An electric vehicle has a thermal circuit connected to a traction battery and a cabin climate system, a user interface, and a controller. The controller is configured to charge the traction battery to a target state of charge, condition the traction battery to a target battery temperature, and condition a vehicle cabin to a target cabin temperature based on a charging profile based on the user input in response to receiving a user input requesting vehicle conditioning from the user interface and the traction battery being connected to an external power source. A method for controlling an electric vehicle while connected to an external power source includes charging a traction battery to a target state of charge and conditioning the battery to a target temperature according to a charging profile based on a user initiated request for vehicle conditioning.

Abstract: A park assist system may, in response to receiving a signal indicating that a remote inductive charge source is within a vicinity of a vehicle, transition from a park assist mode to a wireless charging mode. During the wireless charging mode, the park assist system generates instructions to assist a driver in positioning the vehicle relative to the inductive charge source.

Abstract: A traction battery assembly includes adjacent battery cells supported by a tray and a busbar electrically connecting the adjacent battery cells. The busbar includes a longitudinal midpoint and a pair of bowed sections joined at the midpoint. Each of the bowed sections has an actuate portion in contact with a terminal on one of the cells. The bowed sections provide increased contact with the cells when the cells have different elevations with respect to the tray. A busbar module is also disclosed. The busbar module comprises a housing and a busbar supported within the housing.

Abstract: An electric vehicle has a thermal circuit connected to a traction battery and a cabin climate system, a user interface, and a controller. The controller is configured to charge the traction battery to a target state of charge, condition the traction battery to a target battery temperature, and condition a vehicle cabin to a target cabin temperature based on a charging profile based on the user input in response to receiving a user input requesting vehicle conditioning from the user interface and the traction battery being connected to an external power source. A method for controlling an electric vehicle while connected to an external power source includes charging a traction battery to a target state of charge and conditioning the battery to a target temperature according to a charging profile based on a user initiated request for vehicle conditioning.

Abstract: A vehicle includes a traction battery having a thermal circuit, and a controller. The controller is configured to: (i) charge the traction battery using a maximum charging current defined by the lowest temperature cell while the traction battery is connected to the charger, and (ii) heat the traction battery if the lowest temperature cell is below a predetermined temperature while the traction battery is charging. A method for controlling an electric vehicle while connected to a charger includes charging the battery using a first portion of power from the charger while heating the battery using a second portion of power from the charger in response to a low cell temperature in a traction battery.

Abstract: A vehicle is provided with a motor that is connected to a storage device. The motor is configured to provide drive torque and the storage device is configured to receive power from an external supply for facilitating charging. The vehicle also includes a user interface and a controller. The user interface is configured to provide a charge level selection. The controller is configured to receive input that is indicative of a present charge value. The controller is further configured to disable charging when the present charge value corresponds to the charge level selection.

Abstract: A vehicle includes a traction battery to propel the vehicle. The traction battery includes a plurality of cells that are each selectively connected to a resistor. A controller or controllers are provided that are configured to control the charging and discharging of the cells. The controller or controllers command the battery or a selected group of cells of the battery to discharge in response to a fault or triggering condition. The discharge enables the battery or the group of cells to achieve a state of charge of approximately zero or less.