Ford Global Technolgoies, LLC

Charles Everett Badger, Ii

Brandon Beauvais

Angel Fernando Porras

Jeffery R Grimes

Xu Wang

Zachary March

Navid Rahbari Asr

Toussaint Carpenter

Lila Ghannam

Heinrich Enslin

Bryan Michael Bolger

Ryan J O'Gorman

Jordan Mazaira

Josephine S Lee

Rohan Shrivastava

Ryan Hunt

Wai Hwa Fong

Matthew Fleming

Dominic Gelfuso

Ian Lawson

Jordan Firnbach

Dima Alame

A strategy selection method for estimating a charge time includes, when a target state of charge for a traction battery is a full charge, establishing an estimated time required to charge the traction battery using a first strategy, and when a target state of charge for the traction battery is less than a full charge, establishing the estimated time required to charge the traction battery using a different, second strategy.

Charge time estimating method and system

Customizable electric vehicle supply equipment (EVSE) systems may be utilized for charging electrified vehicles. Exemplary EVSE systems may include a charging cord assembly having a cable that includes an outer sheath and a lighting module housed within the outer sheath. The lighting module may be controlled to emit lighting effects for providing visual indications of various electrified vehicle charging statuses. Settings associated with the lighting effects may be customized within a human machine interface (HMI) of the EVSE system.

Customizable electric vehicle supply equipment systems

A controller initiates operation of a climate system in advance of a departure time defined by a user such that the climate system operates for a duration defined by the user before the departure time, provided that grid power from a plug is not available to power the operation. The controller also initiates operation of the climate system at a start time selected by the controller such that a temperature within a cabin achieves a target temperature defined by the user in advance of the departure time and the climate system does not operate for a duration defined by the user before the departure time, provided that the grid power is available to power the operation.

Grid power dependent preconditioning of vehicle

A vehicle includes a temperature control system, a battery configured to power the temperature control system, and a controller. The controller is programmed to, in response to a request to precondition the battery or the cabin air, an absence of receiving a signal indicative of a desired initial battery state of charge, and an actual battery state of charge being greater than a default threshold, deliver electrical power from the battery to the temperature control system at a desired value. The controller is further programmed to, in response to the request to precondition the battery or the cabin air, receiving the signal indicative of the desired initial battery state of charge, and the actual battery state of charge being greater than the desired initial battery state of charge but less than the default threshold, deliver electrical power from the battery to the temperature control system at the desired value.

Vehicle and method of preconditioning cabin air within a vehicle

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.

Electrified vehicle and method for gradually adjusting displayed state of charge

A charge system for a vehicle includes a traction battery and a controller. The controller, responsive to passage of a predetermined period of time following activation of the vehicle without detecting a wake up signal, sets a diagnostic flag. The controller further, responsive to deactivation of the vehicle, presence of the diagnostic flag, and presence of a request designating a future start time for a charge event of the traction battery, initiates the charge event regardless of the future start time. The controller may further, responsive to deactivation of the vehicle, absence of the diagnostic flag, and presence of the request designating the future start time for the charge event of the traction battery, inhibit start of the charge event until the future start time.

Scheduled automotive battery charge default to now

Responsive to a target charge level, a target charge completion time, and a maximum charge rate being sufficient to achieve the target charge level during an available charge duration defined by the target charge completion time, a controller charges the traction battery at a selected rate less than the maximum rate such that the traction battery continuously receives charge until occurrence of the target charge completion time and the traction battery achieves the target charge level at but not before the target charge completion time.

Vehicle direct current fast charging

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.

Systems and methods for limiting remote start functionality on vehicles

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.

Auxiliary battery charging systems and methods for electrified vehicles

This disclosure is directed to customizable charge status indicator systems for electrified vehicle charge port assemblies. Exemplary charge status indicator systems may include a charge port lighting module, and a human machine interface (HMI) that includes various user interfaces configured for receiving inputs for customizing different lighting effects that can be emitted by the charge port lighting module. The charge status indicator systems may further include a controller operably coupled to both the charge port lighting module and the HMI and configured for commanding the charge port lighting module to emit customized lighting effects in response to receiving input signals from the HMI.

Customizable charge status indicator systems

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 battery charging settings being unavailable.

Electric vehicle with remote adaptive charge programming using override of on-board charge programming

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.

Vehicle energy consumption during charging

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.

Vehicle-paired device range extension method and system

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.

Growing community of inventors

Westland, MI, United States of America

Charles Everett Badger, Ii