Abstract: An exemplary method of controlling a vehicle from a remote location includes receiving a first signal from a vehicle-paired device and initiating a vehicle function in response to the first signal. The first signal is sent by the vehicle-paired device in response to a second signal sent from a secondary triggering device. An exemplary range extending system includes a vehicle-paired device configured to transmit a first signal to a vehicle, and a secondary triggering device that transmits a second signal to the vehicle-paired device to initiate a transmission of the first signal from the vehicle-paired device.

Abstract: A vehicle system includes a battery, and a charge controller configured to, for a first cycle, initiate charging of the battery at a first start time identified from a defined charge complete time and a first energy estimate of non-charging loads, and, for a next charge cycle and same defined charge complete time, initiate charging of the battery at a next start time, later than the first start time, identified from the same defined charge complete time and actual energy consumed by the non-charging loads during the first cycle.

Abstract: This disclosure describes systems and methods for limiting the functionality of remote start systems within vehicles. Remote start operations may be limited, for example, in response to exceeding one or more remote start limits. Limiting the remote start operations may include either preventing the initiation of a remote start request or ending an already in-progress remote start operation.

Abstract: A vehicle includes a controller, in communication with a remote server, that is configured to access, from the remote server, historical climate system and window data associated with a location and route of the vehicle. The controller is further configured to identify a geofence according to the historical climate system and window data, and responsive to the vehicle crossing the geofence, command cabin air recirculation.

Abstract: A vehicle includes a traction battery configured to be charged from an external power source via a vehicle charger, a transceiver configured to wirelessly transmit vehicle data to an external server and to wirelessly receive adaptive traction battery charging settings from the external server, an interface module configured to selectively override control of the vehicle charger based on the adaptive traction battery charging settings wirelessly received via the transceiver from the external server, a human-machine interface (HMI), and a controller in communication with a persistent on-board vehicle memory, the vehicle charger, the override module, and the HMI, the controller configured to receive manually entered traction battery charging settings via the HMI, store the manually entered traction battery charging settings in the persistent on-board vehicle memory, and selectively control the vehicle charger using the manually entered traction battery charging settings in response to the adaptive traction batte

Abstract: This disclosure describes exemplary electrified vehicle charging systems and methods for charging energy storage devices (e.g., battery packs) of the vehicles. An exemplary charging system may be configured to monitor the electrified vehicle for determining whether either a recoverable vehicle fault or a non-recoverable vehicle fault occurs during a charging event and to automatically command a charging sequence restart without unplugging a charging component from a vehicle inlet assembly in response to detecting the recoverable vehicle fault. The control system may also be configured to provide remote notification about the need to unplug and replug the charging component when the non-recoverable fault is detected or when greater than a predefined number of charging sequence restarts have been attempted.

Abstract: A vehicle includes a climate control system, an engine, a battery, and a controller. The engine and the battery are each configured to power the climate control system. The controller is programmed to, responsive to a request to precondition cabin air and an estimated battery state of charge, that would result from the climate control system preconditioning the air, being less than a threshold, start the engine to power the climate control system regardless of an initial battery state of charge.

Abstract: A system includes a computer programmed to receive impact sensor data specifying a force of an impact to a vehicle body panel. The computer is programmed to, upon determining that the force is below a collision force threshold, identify the impact as user input. The computer is programmed to actuate a vehicle component according to the user input.

Abstract: This disclosure describes exemplary electrified vehicle charging systems and methods for charging energy storage devices (e.g., battery packs) of the vehicles. An exemplary charging system may be configured to monitor the electrified vehicle for determining whether either a recoverable vehicle fault or a non-recoverable vehicle fault occurs during a charging event and to automatically command a charging sequence restart without unplugging a charging component from a vehicle inlet assembly in response to detecting the recoverable vehicle fault. The control system may also be configured to provide remote notification about the need to unplug and replug the charging component when the non-recoverable fault is detected or when greater than a predefined number of charging sequence restarts have been attempted.

Abstract: A vehicle includes a climate control system, an engine, a battery, and a controller. The engine and the battery are each configured to power the climate control system. The controller is programmed to, responsive to a request to precondition cabin air and an estimated battery state of charge, that would result from the climate control system preconditioning the air, being less than a threshold, start the engine to power the climate control system regardless of an initial battery state of charge.

Abstract: A vehicle system includes a battery, and a charge controller configured to, for a first cycle, initiate charging of the battery at a first start time identified from a defined charge complete time and a first energy estimate of non-charging loads, and, for a next charge cycle and same defined charge complete time, initiate charging of the battery at a next start time, later than the first start time, identified from the same defined charge complete time and actual energy consumed by the non-charging loads during the first cycle.

Abstract: This disclosure relates to an electrified vehicle and a method for gradually adjusting a displayed state of charge. An exemplary electrified vehicle includes a battery, a display configured to display a state of charge of the battery, and a controller configured to adjust the displayed state of charge such that the displayed state of charge gradually converges to an estimated state of charge of the battery.

Abstract: The vehicle system includes a position sensor programmed to output a distance signal representing a distance of a primary parked vehicle to a boundary. The vehicle system further includes a processor programmed to receive a parking request and determine a moving distance that is based at least in part on the distance to the boundary and an amount of space the primary parked vehicle requires to exit a parking space.

Abstract: This disclosure describes vehicle systems and methods for controlling charging of an auxiliary battery of an electrified vehicle. Exemplary charging methods align the charge management of an auxiliary battery to occur only during low cost charging windows.

Abstract: A vehicle includes a controller, in communication with a remote server, that is configured to access, from the remote server, historical climate system and window data associated with a location and route of the vehicle. The controller is further configured to identify a geofence according to the historical climate system and window data, and responsive to the vehicle crossing the geofence, command cabin air recirculation.

Abstract: An exemplary preconditioning method includes, among other things, preconditioning an electrified vehicle using power from an external source without charging a traction battery from the external source. An exemplary vehicle assembly includes, among other things, a conditioning system that preconditions an electrified vehicle using power from an external source, and a traction battery having a state of charge that does not increase as the conditioning system preconditions the electrified vehicle.

Abstract: An electric vehicle charging system includes a computing device having a processor and a memory storage device. The computing device is programmed to initiate electric charging of an electric vehicle and provide access to a different vehicle while the electric vehicle is charging. An example method that may be executed by the charging station includes detecting a first vehicle at a charging station, initiating electric charging of the first vehicle at the charging station, transmitting a lock signal to a charge cord of the charging station to lock the charge cord to the first vehicle, providing access to a second vehicle while the first vehicle is charging, detecting a return of the second vehicle to the charging station, and transmitting an unlock signal to the charge cord to unlock the charge cord from the first vehicle.

Abstract: A system includes a computer programmed to receive impact sensor data specifying a force of an impact to a vehicle body panel. The computer is programmed to, upon determining that the force is below a collision force threshold, identify the impact as user input. The computer is programmed to actuate a vehicle component according to the user input.

Abstract: A vehicle includes an ignition, selector, and controller. The ignition is configured to start and shutdown the vehicle. The selector is configured to transition the vehicle between a standard driving mode and an economy driving mode. The controller is programmed to, in response starting the vehicle after a prior shutdown with the economy mode selected, generate a notification that the vehicle was operating in the economy mode upon the prior shutdown.

Abstract: The vehicle system includes a position sensor programmed to output a distance signal representing a distance of a primary parked vehicle to a boundary. The vehicle system further includes a processor programmed to receive a parking request and determine a moving distance that is based at least in part on the distance to the boundary and an amount of space the primary parked vehicle requires to exit a parking space.