Abstract: A charge utilization control system for an electric vehicle includes a controller, an electric motor connected to the controller, a battery connected to the electric motor and an internal combustion engine connected to the controller. The controller is adapted to minimize electric charge stored in the battery as the electric vehicle approaches a charging destination for the battery.

Abstract: Systems and methods for cancelling brake torque variation in a motor vehicle are disclosed. Signals indicative of brake torque variation are received at a controller. Based on the signals, a frequency associated with the indicated brake torque variation is determined. At least one of an output time and output volume of pressurized brake fluid is adjusted based on the frequency to cancel the indicated brake torque variation.

Abstract: The present disclosure relates to various vehicle braking assemblies. Brake pedal arms include, for example, a cam block that is configured to simplify the engagement between the power booster and pedal arm. Cam block can be movable with respect to the pedal arm to manage the gap between the pedal arm and power booster in by-wire braking assemblies.

Abstract: A vehicle system includes a sensor and a processing device. The sensor is configured to detect an impact vehicle. The processing device is programmed to predict an impact zone, define a passenger zone relative to a host vehicle, and generate a control signal to move the impact zone away from the passenger zone. The passenger zone is defined at least in part on a location of at least one occupant inside the host vehicle.

Abstract: A vehicle system includes a sensor and a processing device. The sensor is configured to detect an impact vehicle. The processing device is programmed to predict an impact zone, define a passenger zone relative to a host vehicle, and generate a control signal to move the impact zone away from the passenger zone. The passenger zone is defined at least in part on a location of at least one occupant inside the host vehicle.

Abstract: A vehicle includes traction wheels, an electric machine configured to provide regenerative braking torque to the traction wheels, wheel brakes configured to provide friction braking torque to the traction wheels, and at least one power source configured to provide drive torque to the traction wheels. The vehicle additionally includes, a sensor configured to detect a forward object, and at least one controller. The controller is configured to control the power source, wheel brakes, and electric machine according to an adaptive cruise control (ACC) algorithm. The ACC algorithm is configured to command the electric machine to provide regenerative braking torque without application of the wheel brakes in response to a detected forward object and a maximum regeneration braking distance. The maximum regeneration braking distance is calculated based on a powertrain regenerative braking limit and a distance to the forward object.

Abstract: Data is collected in a vehicle relating to a potential obstacle. Based at least in part on the collected data, an obstacle is identified. At least one characteristic of the obstacle is determined. At least one torque to be applied in a vehicle powertrain is determined based at least in part on the at least one characteristic of the obstacle.

Abstract: Systems and methods are described for reducing brake drag in a brake system of a vehicle. It may be determined that the vehicle is stationary. A brake pressure of the brake system may be monitored. The monitored brake pressure may then be compared to a brake pressure criteria. A brake pressure to be applied may be regulated when the monitored brake pressure does not meet the brake pressure criteria, wherein the applied brake pressure meets the pressure criteria.

Abstract: A vehicle regenerative braking control system includes a brake pedal; a brake pedal angle sensor interfacing with the brake pedal; a vehicle braking system interfacing with the brake pedal angle sensor, the vehicle braking system adapted to implement friction braking and regenerative braking responsive to receiving a brake pedal angle input signal from the brake pedal angle sensor; and at least one of a brake pedal switch and a brake master cylinder pressure sensor interfacing with the brake pedal and the vehicle braking system. The vehicle braking system is further adapted to implement friction braking and regenerative braking responsive to input from the at least one of a brake pedal switch and a brake master cylinder pressure sensor in the event that the vehicle braking system does not receive the brake pedal angle input signal from the brake pedal angle sensor. A regenerative braking control method is also disclosed.

Abstract: A system for applying regenerative braking during high friction coefficient braking of a vehicle includes at least one controller; at least one braking sensor interfacing with the at least one controller; a vehicle powertrain interfacing with the at least one controller; a brake pedal interfacing with the at least one controller; vehicle friction brakes interfacing with the at least one controller; and the at least one controller applies anti-lock braking torque to the vehicle brakes and simultaneously applies regenerative braking torque to the vehicle powertrain responsive to input from the at least one braking sensor. A method for applying regenerative braking during high friction coefficient braking of a vehicle is also disclosed.

Abstract: A driver prompting braking system includes a detection device adapted to sense at least one object in front of the vehicle; a detection system interfacing with the detection device, the detection system adapted to detect the at least one object; and a brake coaching system interfacing with the detection system, the brake coaching system adapted to determine a brake application timing for an operator of the vehicle to avoid the object and optimize fuel economy of the vehicle. A driver prompting braking method is also disclosed.

Abstract: An automotive braking system includes a windshield wiper system, a traction wheel, and a non-friction brake system configured to apply a braking force to the traction wheel. The system also includes one or more controllers operatively connected with the windshield wiper system, and configured to, in response to a braking request, command the non-friction brake system to apply the braking force to the traction wheel. The braking force has a magnitude that depends on whether the windshield wiper system is active.

Abstract: A hybrid electric vehicle includes at least one wheel, a friction brake, a motor, and at least one controller. The friction brake is coupled to the wheel and configured to provide friction brake torque, and the motor is coupled to the wheel and configured to provide regenerative brake torque. The controller is configured to command the motor to provide a regenerative brake torque to satisfy a low frequency torque component or a high frequency torque component of a required antilock wheel brake torque during an antilock braking event.

Abstract: A system includes a first battery configured to power at least one vehicle subsystem and a second battery configured to power an electric motor to propel a vehicle. A processing device is configured to detect an inadequate power level provided from the first battery to the at least one vehicle subsystem and selectively partition the second battery to power the at least one vehicle subsystem.

Abstract: A system for controlling regenerative braking in an electrified vehicle to prevent or minimize reduction of overall braking torque during wheel slip events includes an antilock braking system adapted to transmit an antilock braking system active signal and a regeneration powertrain interfacing with the antilock braking system. The regeneration powertrain is adapted to inhibit regenerative braking torque reduction responsive to receiving the antilock braking system active signal during a high deceleration braking event. A method for controlling regenerative braking in an electrified vehicle to prevent or minimize reduction of overall braking torque during wheel slip events is also disclosed.

Abstract: Vehicle operating systems are autonomously operated. A transient in an upcoming path of the vehicle is determined from a comparison of vehicle path data and vehicle status data to a threshold of mechanism first operating system. Operational parameters for one of first and second operating systems are selected according to the comparison. The selected operational parameters are applied to the operation of the one of the first and second operating systems.

Abstract: Data is collected related to motion of a vehicle. Based on the collected data, it may be determined that a threshold associated with motion sickness is exceeded. An adjustment for a component in the vehicle may be adjusted based at least in part on the collected data.

Abstract: A hybrid or electric vehicle includes a hydraulic brake system having an active vacuum booster with an active boost control valve actuated by at least one controller. An isolation valve is disposed in a fluid circuit that fluidly connects a master cylinder to hydraulic brakes. A brake pedal is capable of moving in an initial deadband displacement range when initially depressed by an operator of the vehicle. While in the initial deadband displacement range, the controller selectively activates the isolation valve to inhibit fluid flow from at least a portion of the fluid circuit to the master cylinder based at least upon an operating state of the active boost control valve.

Abstract: A computer in a vehicle is configured to operate the vehicle in at least one of an autonomous and a semi-autonomous mode. The computer is further configured to detect at least one condition of a roadway being traveled by the vehicle, the condition comprising at least one of a restricted lane, a restricted zone, a construction zone, and accident area, an incline, a hazardous road surface. The computer is further configured to determine at least one autonomous action based on the condition, the at least one autonomous action including at least one of altering a speed of the vehicle, controlling vehicle steering, controlling vehicle lighting, transitioning the vehicle to manual control, and controlling a distance of the vehicle from an object.

Abstract: A vehicle coasting control system for a vehicle having a prime mover includes an accelerator pedal positional throughout an accelerator pedal position range; a vehicle controller interfacing with the accelerator pedal, the vehicle controller adapted to control operating speeds of the prime mover of the vehicle corresponding to positions, respectively, of the accelerator pedal within the accelerator pedal position range; and the vehicle controller is adapted to operate the prime mover at idle when the accelerator pedal is positioned at a coast zone within the accelerator pedal position range. A vehicle coasting control method is also disclosed.