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 vehicle includes an engine and a brake system. The vehicle includes a controller configured to maintain an ignition state of the engine such that changes in an ignition state between engine start and engine stop are inhibited during a pressurization of the brake system that is prompted by the indication and initiated prior to brake pedal application. The maintained ignition state is responsive to receiving an indication of a degraded road condition from a source in a vicinity of the vehicle.