Abstract: A wheel cover apparatus for a vehicle includes an upper planar section for at least partially covering the wheel outer side of a steerable wheel, a lower planar section for at least partially covering the wheel outer side of the steerable wheel, an adjustment device for adjusting a position and/or orientation of the upper planar section and a positioning device for positioning the lower planar section. The upper planar section can be arranged on a body of a vehicle so as to be pivotable about a first pivot axis extending in the longitudinal direction of the vehicle. The upper planar section and the lower planar section are connected to each other so as to be pivotable about a second pivot axis extending in the longitudinal direction of the vehicle. The upper planar section is coupled to the adjustment device in such a manner that, in a functional installed state in the vehicle, the upper planar section is movable relative to the wheelhouse by means of the adjustment device.

Abstract: An independent wheel suspension for a two-track vehicle has a wheel carrier, a vibration damper designed and arranged in the manner of a damper strut, and a leaf spring element, which has, in particular, a fiber composite material or is made from a fiber composite material. The leaf spring element is oriented at least approximately in the transverse direction of the vehicle and is designed to provide a suspension function and, together with the vibration damper, to guide a vehicle wheel fastened to the wheel carrier when the independent wheel suspension is installed in a vehicle for functional usage. The leaf spring element is connected, on the wheel carrier end, to the wheel carrier via two rubber bearings, each having a bearing axis and a central bearing point, so as to be rotatable about the respective bearing axis of each rubber bearing and is designed to be connected, on the vehicle body end, to an axle support in a torsion-resistant manner and/or directly to a vehicle body.

Abstract: An independent wheel suspension for a two-track vehicle has a wheel carrier, a vibration damper designed and arranged in the manner of a damper strut, and a leaf spring element, which has, in particular, a fiber composite material or is made from a fiber composite material. The leaf spring element is oriented at least approximately in the transverse direction of the vehicle and is designed to provide a suspension function and, together with the vibration damper, to guide a vehicle wheel fastened to the wheel carrier when the independent wheel suspension is installed in a vehicle for functional usage. The leaf spring element is connected, on the wheel carrier end, to the wheel carrier via two rubber bearings, each having a bearing axis and a central bearing point, so as to be rotatable about the respective bearing axis of each rubber bearing and is designed to be connected, on the vehicle body end, to an axle support in a torsion-resistant manner and/or directly to a vehicle body.

Abstract: A method is provided for charging a battery-operated vehicle having a chargeable traction energy store and a system for autonomously guiding the vehicle with a charging vehicle having an energy generator and/or an energy store. The method forms at least one electrical coupling between the battery-operated vehicle and the charging vehicle via an autonomous driving manoeuver of the battery-operated vehicle and/or the charging vehicle. A charging of the traction energy store of the battery-operated vehicle occurs via the energy generator and/or the energy store of the charging vehicle during the driving of the paired battery-operated vehicle and charging vehicle.

Abstract: A method controls a user interface and an air-conditioning unit of a vehicle. The user interface includes display and operating elements. The method displays a plurality of the elements on the user interface, receives at least two operation parameters of the air-conditioning unit, determines one or more display parameters for a first element from the plurality of elements on the basis of the at least two operation parameters, and displays the first element on the basis of the one or more display parameters.

Abstract: A method controls a user interface and an air-conditioning unit of a vehicle. The user interface includes display and operating elements. The method displays a plurality of the elements on the user interface, receives at least two operation parameters of the air-conditioning unit, determines one or more display parameters for a first element from the plurality of elements on the basis of the at least two operation parameters, and displays the first element on the basis of the one or more display parameters.

Abstract: A method is provided for charging a battery-operated vehicle having a chargeable traction energy store and a system for autonomously guiding the vehicle with a charging vehicle having an energy generator and/or an energy store. The method forms at least one electrical coupling between the battery-operated vehicle and the charging vehicle via an autonomous driving manoeuver of the battery-operated vehicle and/or the charging vehicle. A charging of the traction energy store of the battery-operated vehicle occurs via the energy generator and/or the energy store of the charging vehicle during the driving of the paired battery-operated vehicle and charging vehicle.

Abstract: An underbody panelling part of a wheel axle near the wheel arch of a motor vehicle has a main part, the covering surface of which is variable, and a fastening structure for fixed connection to the body and/or a fastening structure for fixed connection to a transverse link of the motor vehicle. In the mounted state the covering surface can be varied with the steering angle.

Abstract: An underbody panelling part of a wheel axle near the wheelhouse of a motor vehicle includes a substantially flat main part, a first mounting point provided on the main part, which first mounting point can be rotatably connected to a transverse link of the motor vehicle, and a second mounting point provided on the main part, which second mounting point can be coupled to a wheel carrier or a steering rod. The underbody panelling part can be pivoted about the first mounting point when the wheel carrier is pivoted. A subassembly having the underbody panelling part is also provided.

Abstract: An independent suspension for a vehicle includes a spring-link suspension structure which is made from a fibrous composite material, is substantially U-shaped when viewed in the vehicle longitudinal direction. Ends of upper and lower members are secured to the vehicle body or a carrier connected thereto. At least one of these securements has no rotational degree of freedom about an axis extending in the vehicle longitudinal direction, while a wheel hub is connected to the base of the U-shaped spring-link suspension structure in order to secure a vehicle wheel. At least one of the members is secured to the vehicle body or to the carrier in a substantially rigid manner i.e. aside from low levels of elasticity, and no further wheel guiding suspension link is provided that substantially extends in the vehicle longitudinal direction. As a result, in order to achieve a desired toe-in increase when braking, a recess is provided in at least one of the members.

Abstract: An underbody panelling part of a wheel axle near the wheelhouse of a motor vehicle includes a substantially flat main part, a first mounting point provided on the main part, which first mounting point can be rotatably connected to a transverse link of the motor vehicle, and a second mounting point provided on the main part, which second mounting point can be coupled to a wheel carrier or a steering rod. The underbody panelling part can be pivoted about the first mounting point when the wheel carrier is pivoted. A subassembly having the underbody panelling part is also provided.

Abstract: An underbody panelling part of a wheel axle near the wheel arch of a motor vehicle has a main part, the covering surface of which is variable, and a fastening structure for fixed connection to the body and/or a fastening structure for fixed connection to a transverse link of the motor vehicle. In the mounted state the covering surface can be varied with the steering angle.

Abstract: An independent suspension for a vehicle includes a spring-link suspension structure which is made from a fibrous composite material, is substantially U-shaped when viewed in the vehicle longitudinal direction. Ends of upper and lower members are secured to the vehicle body or a carrier connected thereto. At least one of these securements has no rotational degree of freedom about an axis extending in the vehicle longitudinal direction, while a wheel hub is connected to the base of the U-shaped spring-link suspension structure in order to secure a vehicle wheel. At least one of the members is secured to the vehicle body or to the carrier in a substantially rigid manner i.e. aside from low levels of elasticity, and no further wheel guiding suspension link is provided that substantially extends in the vehicle longitudinal direction. As a result, in order to achieve a desired toe-in increase when braking, a recess is provided in at least one of the members.

Abstract: A vehicle wheel suspension has a suspension spring, by which the vehicle body is proportionally supported on a supporting bracket of the wheel suspension. The wheel load acting upon a pertaining wheel as a result of this support is changeable in that the transmission ratio at a shift lever provided in the load path of the support and swivelably disposed at the vehicle body with respect to the latter can be changed by an actuator. Parallel to the load path containing the shift lever and a first suspension spring element, an additional load path with a second suspension spring element effective between the vehicle body and the pertaining wheel is provided. The transmission ratio at the shift lever may be changed over a wide range by displacement of the supporting point of the first suspension spring element or a transmission rod supported with its other end at the supporting bracket of the wheel suspension.

Abstract: A single-pivot suspension strut axle for a passenger car, includes a wheel carrier/pivot bearing carrying the wheel and a brake disk non-rotatably connected with the wheel relative to a rotational axis thereof. A suspension strut is fastened to the wheel carrier/pivot bearing and, at another end, is supported at the vehicle body. The wheel carrier/pivot bearing is guided by a supporting joint situated close to the wheel center plane by a lower control arm, representing an A-arm, and by a tie rod. A section of the control arm connected with the supporting joint projects through the ring-shaped brake disk. A leaf spring element oriented in the transverse direction of the vehicle provides proportional support for the vehicle body on the wheel, and is supported, on one side, at the control arm and, on another side, directly or indirectly, at the vehicle body.

Abstract: A vehicle wheel suspension has a suspension spring, by which the vehicle body is proportionally supported on a supporting bracket of the wheel suspension. The wheel load acting upon a pertaining wheel as a result of this support is changeable in that the transmission ratio at a shift lever provided in the load path of the support and swivelably disposed at the vehicle body with respect to the latter can be changed by an actuator. Parallel to the load path containing the shift lever and a first suspension spring element, an additional load path with a second suspension spring element effective between the vehicle body and the pertaining wheel is provided. The transmission ratio at the shift lever may be changed over a wide range by displacement of the supporting point of the first suspension spring element or a transmission rod supported with its other end at the supporting bracket of the wheel suspension.

Abstract: A swivel bearing of a wheel suspension is connected to a longitudinal control arm via two joints at different heights viewed in a longitudinal direction of the vehicle, in an articulated manner such that the joints determine a steering axis of rotation extending primarily perpendicularly when viewed from the side, and which has a negative scrub radius. Each transverse control arm is attached to the longitudinal control arm via one rubber mount or joint having a minimal degree of rotary freedom. The swivel bearing is guided by a tie rod, which is supported on a soft rubber bearing. The tie rod is connected to an actuator adjuster element, whose actuator is arranged substantially in a center of the vehicle and acts for the two rear wheels thereof. The tie rod is moveable substantially in the transverse direction to minimally steer the rear wheel.

Abstract: A swivel bearing of a wheel suspension is connected to a longitudinal control arm via two joints at different heights viewed in a longitudinal direction of the vehicle, in an articulated manner such that the joints determine a steering axis of rotation extending primarily perpendicularly when viewed from the side, and which has a negative scrub radius. Each transverse control arm is attached to the longitudinal control arm via one rubber mount or joint having a minimal degree of rotary freedom. The swivel bearing is guided by a tie rod, which is supported on a soft rubber bearing. The tie rod is connected to an actuator adjuster element, whose actuator is arranged substantially in a center of the vehicle and acts for the two rear wheels thereof. The tie rod is moveable substantially in the transverse direction to minimally steer the rear wheel.

Abstract: A rear axle of a two-track motor vehicle is provided. The vehicle may have an independent wheel suspension with lower rods, which guide a wheel carrier, and an upper guide device, which engages with an extension arm of the wheel carrier. The extension arm guides in a region above a wheel mounted on the wheel carrier. The upper guide device is formed by a physical guiding path comprising a guide element, which can be displaced along said guiding path.