Abstract: A vehicle control system includes a brake module operably coupled to a braking system to provide a braking torque request, a steering module operably coupled to a steering system to provide a steering input request, a power supply, and a power management module. The power supply is operably coupled to the brake module and the steering module to provide power to the brake module and the steering module. The power supply has a power budget indicating a maximum power providable to the brake module and the steering module. The power management module is operably coupled to sensors to receive a power draw indication from one of the brake module or the steering module and control power draw of the other of the steering module or the brake module to maintain a combined power draw of the brake module and the steering module below the power budget.

Abstract: A vehicle control system may include a brake module operably coupled to a braking system of the vehicle to provide a braking torque request to the braking system, a steering module operably coupled to a steering system of the vehicle to provide a steering input request to the steering system, a power supply, and a power management module. The power supply may be operably coupled to the brake module and the steering module to provide power to the brake module and the steering module. The power supply may have a power budget indicating a maximum power providable to the brake module and the steering module. The power management module may be operably coupled to one or more sensors to receive a power draw indication from one of the brake module or the steering module and control power draw of the other of the steering module or the brake module to maintain a combined power draw of the brake module and the steering module below the power budget.

Abstract: A battery cell arrangement for a motor vehicle, having multiple battery cells, which each include two cell poles, a first side, a second side, a height in the direction from the second side to the first side, and a releasable degassing opening for discharging gases from the relevant battery cell in case of a thermal runaway. In case of a thermal runaway, a respective battery cell includes at least one thermal hotspot area, which is provided by at least one of the cell poles and/or the degassing opening, and the battery cell arrangement includes at least one potting compound layer, in which a section of a respective battery cell is embedded in the direction of the height.

Abstract: Methods, apparatus, systems, and articles of manufacture to extend brake life cycle are disclosed herein. An example vehicle includes a first brake associated with a first wheel of the vehicle, a second brake associated with a second wheel of the vehicle, memory, and a brake controller to execute instructions to detect a first parking event, determine, via a first sensor, a condition of the vehicle, access, from the memory, a record of a second parking event including an activation of the first brake, the second parking event preceding the first parking event, and in response to determining the condition satisfies a threshold, engage the second brake without engaging the first brake.

Abstract: A method for producing a motor car rim made of aluminum or an aluminum alloy for a wheel of a motor vehicle. The motor car rim has a rim well delimited on opposite sides by an outer flange and an inner flange, a hub with a center recess and a pitch circle diameter, as well as a rim center connecting the rim well and the hub to one another and engaging the rim well off-center in the longitudinal section. The rim center is formed with several spokes spaced apart from one another in the circumferential direction as relates to a center longitudinal axis of the motor car rim.

Abstract: Motor vehicles and methods for operating motor vehicles are disclosed herein. An example motor vehicle includes an electric drive, an electrical brake including one or more braking actuators, a drive controller communicatively coupled to the electric drive and the electrical brake, and a brake controller communicatively coupled to the electrical brake. The drive controller is to cause the one or more braking actuators to actuate in response to a signal indicating a failure of the brake controller.

Abstract: A vehicle includes a powertrain and an electric parking brake. A controller activates the electric parking brake in response to the powertrain transitioning to an off state that inhibits production of propulsive torque during an ignition cycle when a vehicle speed is less than a predetermined speed and in a presence of conditions that inhibit the powertrain from transitioning to an on state that permits production of propulsive torque.

Abstract: A method for passivating a metal surface of a light-weight metal part is disclosed, wherein a conversion layer is applied to the surface of the light-weight metal part in a passivation step. A passivation step is carried out wherein an aqueous passivation solution is used to create a calcium phosphate-containing conversion layer (5) on the metal surface of the part, said conversion layer comprising oxides and hydroxides from the material of the part and from the passivation solution and containing amino acids.

Abstract: Performance electric parking brake controllers determine braking control signals for a performance electric parking brake system of a vehicle based on differing sets of operating conditions of the vehicle. A controller is configured to electromechanically actuate rear brake calipers of the vehicle in response to a first set of operating conditions of the vehicle, to hydraulically actuate front brake calipers and the rear brake calipers of the vehicle in response to a second set of operating conditions of the vehicle, and to hydraulically actuate only the rear brake calipers in response to a third set of operating conditions of the vehicle.

Abstract: Performance electric parking brake controllers determine braking control signals for a performance electric parking brake system of a vehicle based on differing sets of operating conditions of the vehicle. A controller is configured to electromechanically actuate rear brake calipers of the vehicle in response to a first set of operating conditions of the vehicle, to hydraulically actuate front brake calipers and the rear brake calipers of the vehicle in response to a second set of operating conditions of the vehicle, and to hydraulically actuate only the rear brake calipers in response to a third set of operating conditions of the vehicle.

Abstract: Performance electric parking brake controllers determine braking control signals for a performance electric parking brake system based on a position of a parking brake lever. A parking brake lever has a first rate of resistance associated with movement in a first direction away from a neutral position and a second rate of resistance associated with movement in a second direction away from the neutral position opposite the first direction. The first and second rates of resistance are different. A controller is configured to electromechanically actuate rear brake calipers of the vehicle in response to a first set of operating conditions of the vehicle, to hydraulically actuate front brake calipers and the rear brake calipers of the vehicle in response to a second set of operating conditions of the vehicle, and to hydraulically actuate only the rear brake calipers in response to a third set of operating conditions of the vehicle.

Abstract: A vehicle includes an engine having auto-stop and auto-start conditions. The vehicle additionally includes a braking system having an auto-hold function. The auto-hold function is configured to, after braking the vehicle to a full stop, automatically apply braking torque independent of a brake pedal position. The vehicle further includes a controller configured to, in response to the engine being in the auto-stop condition, the auto-hold function automatically applying braking torque, and a gear shifter being moved out of a gear other than PARK, maintain the engine in the auto-stop condition.

Abstract: A vehicle includes a powertrain and an electric parking brake. A controller activates the electric parking brake in response to the powertrain transitioning to an off state that inhibits production of propulsive torque during an ignition cycle when a vehicle speed is less than a predetermined speed and in a presence of conditions that inhibit the powertrain from transitioning to an on state that permits production of propulsive torque.

Abstract: A vehicle includes an engine with auto-stop and auto-start functions. The vehicle additionally includes a braking system configured to apply braking torque to vehicle wheels. The vehicle further includes a controller configured to control the engine and braking system via an ACC system in response to a detected forward object. The controller is configured to automatically control the braking system in response to a distance to the detected forward object falling below a first predefined threshold and a vehicle speed falling below a second predefined threshold. In response to these inputs, the controller automatically controls the braking system to apply a braking torque to hold the vehicle stationary in the absence of powertrain torque based on a current road grade. The controller additionally controls the engine to auto-stop in response to these inputs.

Abstract: A vehicle includes an engine with auto-stop and auto-start functions. The vehicle additionally includes a braking system configured to apply braking torque to vehicle wheels. The vehicle further includes a controller configured to control the engine and braking system via an ACC system in response to a detected forward object. The controller is configured to automatically control the braking system in response to a distance to the detected forward object falling below a first predefined threshold and a vehicle speed falling below a second predefined threshold. In response to these inputs, the controller automatically controls the braking system to apply a braking torque to hold the vehicle stationary in the absence of powertrain torque based on a current road grade. The controller additionally controls the engine to auto-stop in response to these inputs.

Abstract: A method for operating a braking apparatus with a service and parking brake function, which braking apparatus can be applied both in a hydraulic manner by means of a hydraulic pressure generator and by means of an electromechanical force generator. A transfer takes place from the pressure generator, which exerts the hydraulic brake application, to the force generator, which exerts the electromechanical brake application, as soon as the braking torque is active at the braking apparatus. During the transfer, the braking torque, which is applied by the hydraulic pressure generator and the braking torque which is applied by the electromechanical force generator, is at least as high as the braking torque applied solely by the hydraulic pressure generator before the transfer.

Abstract: A method for passivating a metal surface of a light-weight metal part is disclosed, wherein a conversion layer is applied to the surface of the light-weight metal part in a passivation step. A passivation step is carried out wherein an aqueous passivation solution is used to create a calcium phosphate-containing conversion layer (5) on the metal surface of the part, said conversion layer comprising oxides and hydroxides from the material of the part and from the passivation solution and containing amino acids.

Abstract: A vehicle includes an engine having auto-stop and auto-start conditions. The vehicle additionally includes a braking system having an auto-hold function. The auto-hold function is configured to, after braking the vehicle to a full stop, automatically apply braking torque independent of a brake pedal position. The vehicle further includes a controller configured to, in response to the engine being in the auto-stop condition, the auto-hold function automatically applying braking torque, and a gear shifter being moved out of a gear other than PARK, maintain the engine in the auto-stop condition.

Abstract: Rotary packaging machine and method for filling open-mouth bags with multiple filling units disposed over the circumference and rotating along, each of which having a filling spout with a bottom filling opening, wherein the open-mouth bags can be appended by way of a motion oriented upwardly relative to the filling spout. A transfer device for transferring the open-mouth bags intended for filling to the filling units is provided. The transfer device comprises a gripping arm including a gripping unit provided thereat. The gripping arm is rotatingly disposed at the transfer device. A longitudinal speed of the longitudinal motion of the gripping arm is temporarily adapted to a peripheral speed of the circumferential motion of the filling spouts.

Abstract: A method for operating a braking apparatus with a service and parking brake function, which braking apparatus can be applied both in a hydraulic manner by means of a hydraulic pressure generator and by means of an electromechanical force generator. A transfer takes place from the pressure generator, which exerts the hydraulic brake application, to the force generator, which exerts the electromechanical brake application, as soon as the braking torque is active at the braking apparatus. During the transfer, the braking torque, which is applied by the hydraulic pressure generator and the braking torque which is applied by the electromechanical force generator, is at least as high as the braking torque applied solely by the hydraulic pressure generator before the transfer.