Ford Global Technolgoies, LLC

Jordan Mazaira

Angel Fernando Porras

Bryan Michael Bolger

Christopher Adam Ochocinski

Joseph George

Brett Allen Dunn

Rohan Shrivastava

Zachary March

Seth Anthony Bryan

Nicholas David Moore

Mary Bellino

Justin Barsano

Jeffrey Allen Doering

Yanan Zhao

Xiaohong Nina Duan

Charles Everett Badger, Ii

Alan Gutowski

Joseph Prescott Hickey

Ryan Hunt

Hao Wang

George Hart Vrampas

Julia Helen Buckland Seeds

Michael David Beeney

Chenliu Stephen Lu

Ashley Wiese

Erik Biberstein

Jennifer Helen Chang

Gabrielle Vuylsteke

Ashwin Hariharan

Ron Razzano

Ka Wai Kevin So Zhao

Steven Hilliard

Brandon Evans Armstrong

Alexandria Schardt

A system is provided that includes at least one battery, motor electronics, and at least one vehicle controller. The at least one battery is positioned about a battery coolant loop that provides first coolant to change a temperature of the at least one battery. The motor electronics are positioned about a motor electronics coolant loop that provides second coolant to change a temperature of the motor electronics. The at least one vehicle controller is programmed to receive a first signal indicative of a temperature of the at least one battery positioned about the battery coolant loop and to control a valve to combine the battery coolant loop with the motor electronics coolant loop such that the second coolant flows to the battery coolant loop responsive to at least a temperature of the second coolant being greater than the temperature of the at least one battery and a first offset.

System and method for motor electronics waste heat recovery and determination

While a speed of a first compressor during operation is less than a threshold speed, a speed of a second compressor during operation is prevented from falling below a minimum threshold speed that is defined by a sum of the speed of the first compressor and a predefined offset speed delta such that the minimum threshold speed changes as the speed of the first compressor changes.

Control of dual compressor climate system

A vehicle includes a traction battery, an electric machine powered by the traction battery and configured to power wheels of the vehicle, and a thermal-management system. The thermal-management system includes a battery loop, a cabin heating loop, and a valve configured to fluidly connect the battery loop and the cabin heating loop when in a first position and configured to fluidly isolate the battery loop and the cabin heating loop when in a second position. A controller is programmed to, responsive to (i) battery heating being requested, (ii) a temperature of the battery being greater than a lower threshold, and (iii) cabin heating being requested, actuate the valve to the first position to heat a cabin and the battery.

Balancing battery heating and cabin heating with shared thermal-management system

Methods and systems are provided for a battery thermal management system. In one example, a method includes increasing coolant to a battery above a currently demanded battery cooling in response to a predicted battery temperature exceeding a threshold temperature at an upcoming location.

Methods and systems for battery temperature management

A control assembly for a thermal management system for a high voltage battery of a plug-in electric vehicle may include a control valve and a control module. The control valve may be operable to control a flow of battery coolant to the high voltage battery from a refrigerant cooling circuit and from a cabin heater core cooling circuit. The control module may be configured to selectively operate the control valve to select a cooling mode, including a refrigerant only mode, a core mode, and a combined mode in which both the refrigerant cooling circuit and the cabin heater core cooling circuit provide cooling to the high voltage battery.

Opportunistic system and method for battery cooling while charging on-plug

Thermal management systems are provided for thermally managing electrified vehicle battery packs. An exemplary battery thermal management system may monitor the availability and effectiveness of a radiator for thermally managing a battery pack. A control unit may be configured to actuate a valve from an open position to a closed position that prevents the flow of the coolant to the radiator when a coolant temperature of the coolant is less than a modified ambient temperature. The modified ambient temperature may be derived as a function of a vehicle speed.

Battery thermal management systems for providing improved battery cooling as a function of vehicle speed

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 configured to power limit a battery based on a thermal exchange capacity, and a corresponding method. In particular, an example electrified vehicle includes a battery, a thermal management system configured to circulate thermal exchange fluid relative to the battery, and a controller configured to power limit the battery based on a thermal exchange capacity of the thermal exchange fluid.

Electrified vehicle configured to power limit battery based on thermal exchange capacity

A vehicle includes an electric machine, a battery, an accelerator pedal, a battery cooling system, and a controller. The electric machine is configured to propel the vehicle. The battery is configured to provide electrical power to the electric machine. The battery cooling system is configured to cool the battery in a plurality of cooling modes. A transition between cooling modes of the battery cooling system corresponds to either an increase or a decrease in battery power being utilized to cool the battery. The controller is programmed to truncate an acceleration request under certain conditions to prevent an increase in battery power output in order to reduce a rate at which the battery temperature increases and to prevent a transition to a cooling mode that requires an increase in battery power output.

Acceleration control system for an electric vehicle

This disclosure details thermal management systems for thermally managing electrified vehicle battery packs. An exemplary battery thermal management system may monitor the availability and effectiveness of a radiator for thermally managing a battery pack. A control unit may be configured to actuate a valve from an open position to a closed position that prevents the flow of the coolant to the radiator when a coolant temperature of the coolant exceeds a modified ambient temperature. The modified ambient temperature may be derived as a function of a vehicle speed.

A vehicle includes an onboard power source, a vehicle interface, and a controller. The controller, responsive to an external power application drawing power from the onboard power source, outputs a power source time to empty for display by the vehicle interface. The power source time to empty is derived from a location of the vehicle and a power drawn from the onboard power source by the external power application.

Time to empty prediction system for vehicle power source

A motor vehicle according to an exemplary aspect of the present disclosure includes, among other things, at least one power source. The motor vehicle is operable as a generator to supply power from the at least one power source to an auxiliary load. The motor vehicle also includes a controller configured to estimate a range of the motor vehicle based on a state of the at least one power source, and to command the motor vehicle to stop operating as a generator when the estimated range reaches a threshold range. A method is also disclosed.

Automatic cutoff for vehicle operable as generator

A system for a vehicle includes a traction battery, an engine, and a controller configured to inhibit requests to start the engine in response to both the vehicle being within a first radius about a previously-identified frequent destination and an available battery energy being greater than twice a total battery energy expended during a prior trip to the destination from a second radius about the destination, the second radius being smaller than the first radius.

Electric-only driving when approaching frequent destinations

A system according to an exemplary aspect of the present disclosure includes, among other things, an electrified vehicle including a battery pack, a human-machine interface configured to receive inputs setting a charging profile, and a controller. The system further includes a battery system configured to selectively charge the battery pack in response to an instruction from the controller. Further, the controller is configured to instruct the battery system to charge the battery pack consistent with the charging profile.

Electrified vehicle allowing user to set battery charging profile in-vehicle

Methods and apparatus are disclosed to facilitate vehicle locking. An example vehicle comprises an engine, wheels, a door, a door lock, a torque lock, and a processor and memory. The torque lock is to disable torque transfer from the engine to the wheels. The door lock is to secure the door. The processor and memory are in communication with the torque lock and the door lock and configured to: engage the torque and door locks based on receipt of at least one lockout code and, if received authentication information matches the at least one lockout code, disengage the torque and door locks.

Growing community of inventors

Taylor, MI, United States of America

Jordan Mazaira