Abstract: An exemplary charger removal method includes, among other things, transmitting a request to remove a charger from an electrified vehicle. The request is routed based on encoded information within a charger request label of the electrified vehicle. An exemplary charger removal system includes, among other things, a charge port assembly of an electrified vehicle that can transition from a locked to an unlocked position with a charger in response to a command. The system further includes a charger request label on the electrified vehicle. The charger request label contains encoded information enabling a first user to initiate a transmission of a request for the command from a second user.

Abstract: An exemplary charger removal method includes, among other things, transmitting a request to remove a charger from an electrified vehicle. The request is routed based on encoded information within a charger request label of the electrified vehicle. An exemplary charger removal system includes, among other things, a charge port assembly of an electrified vehicle that can transition from a locked to an unlocked position with a charger in response to a command. The system further includes a charger request label on the electrified vehicle. The charger request label contains encoded information enabling a first user to initiate a transmission of a request for the command from a second user.

Abstract: An exemplary charge port covering assembly includes, among other things, a biasing device configured to move to a first position when a charger is decoupled from a charge port, and to a second position when the charger is coupled to the charge port. A charge port door is moveable to a closed position when the biasing device is in the first position, and is held in an open position when the biasing device is in the second position. An exemplary charge port covering method includes, among other things, biasing a charge port door toward an open position with a biasing device in a first position, and moving the biasing device from the first position to a second position to close the charge port door.

Abstract: An exemplary charge port covering assembly includes, among other things, a biasing device configured to move to a first position when a charger is decoupled from a charge port, and to a second position when the charger is coupled to the charge port. A charge port door is moveable to a closed position when the biasing device is in the first position, and is held in an open position when the biasing device is in the second position. An exemplary charge port covering method includes, among other things, biasing a charge port door toward an open position with a biasing device in a first position, and moving the biasing device from the first position to a second position to close the charge port door.

Abstract: A storage compartment within an automotive vehicle rear body closure, such as a hatch or trunk, is accessed through a door that serves as a license plate attachment panel. The door may be part of a tub hinged along its lower edge and that occupies the storage compartment when the door is closed.

Abstract: A storage compartment within an automotive vehicle rear body closure, such as a hatch or trunk, is accessed through a door that serves as a license plate attachment panel. The door may be part of a tub hinged along its lower edge and that occupies the storage compartment when the door is closed.

Abstract: An electric charging cord is stored aboard an automotive vehicle using a cord storage unit that has at least one mounting feature. A bracket is positioned on an interior of a movable body closure, such as a hatch-back, and engages the mounting feature to removably attach the storage unit to the panel throughout movement of the body closure between open and closed positions. In a stowed position, the storage unit is held closely adjacent the body closure by a latch. When the body closure is in the raised/open position, the latch is released and the storage unit drops downward and hangs from the bracket where it may easily be removed from engagement with the bracket.

Abstract: A vehicle may include at least one controller and a battery configured to be selectively charged with energy from an off-board energy source. The at least one controller may be configured to receive user input specifying a cost minimization mode of battery charging. The at least one controller may be further configured to, in response to the input, determine a time period available for charging the battery, determine when, during the time period, a cost of energy from the off-board energy source is at a minimum or below a threshold cost, and cause the battery to be charged during at least a portion of the time period when the cost is at the minimum or below the threshold cost to minimize the cost of charging the battery.