Abstract: An apparatus includes a bearing assembly of a first camshaft and a second camshaft on a cylinder head of an internal combustion engine. The first camshaft has a first recess where a tool is insertable into the first recess and the second camshaft has a second recess where the tool is insertable into the second recess. A cylinder head hood is attached to the cylinder head where the cylinder head hood has a first through-opening matched with the first recess and a second through-opening matched with the second recess. A first wall area of the cylinder head hood that at least partially delimits the first through-opening and a second wall area of the cylinder head hood that at least partially delimits the second through-opening are disposed at different heights.

Abstract: A parking lock device includes a parking lock wheel, a locking pawl moveable between a locked position and an unlocked position, and an operating piston displaceable along a displacement axis. A movement of the locking pawl between the locked position and the unlocked position can be effected. The parking lock device also includes a latch lever pivotable about a pivot axis, and a solenoid by means of which the latch lever can be pivoted from one position to the other position. The pivot axis runs perpendicularly to the displacement axis.

Abstract: A vehicle has a steering device with a manually actuatable steering input unit for manual gripping and inputting steering commands. The steering input unit has a one-piece or multi-piece gripping surface that is manually grippable for inputting steering commands, and a cleaning device for cleaning the gripping surface. The steering input unit is movable between a usage position, in which it can be gripped by the driver, and a non-usage position in which it cannot be gripped by the driver. The cleaning device has at least one cleaning box arranged on the vehicle and having or containing a cleaning device for cleaning the gripping surface. In the usage position the steering input unit is arranged outside the cleaning box at least in the region of the gripping surface and in the non-usage position it is arranged inside the cleaning box at least in the region of the gripping surface.

Abstract: A method for determining a set speed of an assistance system for controlling a longitudinal movement of a vehicle involves checking a route ahead of the vehicle with a predefined total route length to determine whether, on this total route length, there are areas with a free-flowing traffic state, areas with a slow-moving and/or congested traffic state, and areas with a gridlocked traffic state. A route length of each area is determined. Depending upon these determinations, it is decided whether the set speed is to be defined by the assistance system and to which of multiple predefined speed values the set speed is to be set.

Abstract: A vehicle door arrangement includes a first closing element arranged on a vehicle door and a second closing element arranged on a bodywork of the vehicle. The first and closing elements can be connected to each other in a positive looking manner to hold the door on the bodywork. A door handle is connected to a sensor for detecting a pressure input or a pulling input of a user on the door handle. The sensor is connected to a control unit, which controls a locking actuator and a door opening actuator. The locking actuator separates the first and second closing elements, and the door opening actuator opens the vehicle door relative to the bodywork. The control unit controls the locking actuator to separate the first closing element and the second closing element in response to a detected pressure input or pulling input, and to control the door opening actuator to open the door relative to the bodywork.

Abstract: A door lock arrangement of a vehicle door of a vehicle includes a first closing element arranged in a lock mouth of the vehicle door and a second closing element arranged on a body of the vehicle. The first and second closing elements can be brought into positive-locking engagement with each other to hold the door on the body. A damping device absorbs kinetic energy of the door during a closing movement of the door within a predetermined limit opening angle of the vehicle door relative to the body and slows down the closing movement of the door. The damping device has an impact element arranged on the door in a displaceable manner relative to the door or on the body in a displaceable manner relative to the body. The impact element is connected to an actuator, which applies a pre-tensioning force of the door directed in an opening direction of the door while the first and second closing elements are engaged with each other.

Abstract: A door handle for a vehicle door of a motor vehicle includes a carrier plate, a handle cavity, and an extendable handle part. At least one lighting device arranged in/on the carrier plate or on the handle part is provided with at least one lighting element and/or a light guide element. The handle part is adjustable between a retracted non-use position, a partially extended intermediate position, and an extended use position. The at least one lighting element and/or the at least one light guide element, when the handle part is in its partially extended intermediate position, at least partially illuminates a gap present between the handle part and the handle cavity. When the handle part is extended, at least one lighting element and/or the at least one light guide element illuminates at least parts of the handle part, of the handle cavity, and/or of an area surrounding the handle part.

Abstract: A vehicle seat has a seat base, a carriage, and an adjusting device. The adjusting device is formed in such a way that the vehicle seat is adjustable vertically or the inclination is adjustable by the adjusting device. The adjusting device has a rotation device arranged on the carriage such that the seat base is rotatable relative to the carriage about a vertical axis by the rotation device. The adjusting device includes a strut, a first end of which is pivotably attached to the carriage or to a rotation base fixed to the carriage and a second end of which is pivotably attached to the seat base. The adjusting device has first and second linear actuators. The seat base is supported on the first linear actuator, the second linear actuator, and/or the strut. The first and second linear actuators cooperate to adjust the vehicle seat.

Abstract: A ventilation device of a vehicle includes an air outflow opening disposed on an upper side of a backrest of a seat of the vehicle such that an airflow from the air outflow opening flows in a direction of a roof of the vehicle. A plurality of air guiding elements are pivotably mounted in a region of the air outflow opening where an air volume of a front partial airflow and a rear partial airflow is settable by the plurality of air guiding elements. A further air guiding element is disposed on the roof in a region of the airflow where the airflow is dividable and deflectable by the further air guiding element.

Abstract: Methods, computer-readable storage media including computer instructions, and systems for reducing power consumption or greenhouse gas emissions. In some examples, a method includes determining a context of a vehicle, selecting a particular smart mode from among multiple smart modes that are associated with the vehicle, the particular smart mode being associated with deactivation or moderation of one or more vehicle components that draw battery power or that contribute to greenhouse gas emissions, and transmitting a message to deactivate or moderate the one or more vehicle components of the vehicle according to the selected, particular smart mode.

Abstract: A method for predicting a traffic situation for an automatically operating vehicle involves constantly recording the surroundings of the vehicle and predicting a traffic situation of the vehicle is predicted for a future point in time using recorded surroundings data and prediction parameters. Upon reaching the future point in time, a current real traffic situation is recorded, the current real traffic situation is compared to the predicted traffic situation, and it is determined in the comparison whether a prediction error was present during the prediction. In the event of a prediction error, the prediction parameters are corrected.

Abstract: A method for controlling the movement of a vehicle in an automatic driving operation involves, during the automatic driving operation, the vehicle capable of being operated both in a regular operating mode and in an emergency operating mode. When a functional impairment of the regular operating mode is established, a switch from the regular operating mode to the emergency operating mode is carried out. In the emergency operating mode, the vehicle is guided automatically to an emergency stop position. In the emergency operating mode, the vehicle is braked with a deceleration profile which contains three deceleration phases, namely a first deceleration phase with a momentary strong braking, a second deceleration phase with a somewhat longer moderate braking, and a third deceleration phase with a strong braking lasting until the vehicle has come to a standstill or until the vehicle driver of the vehicle takes over a vehicle guidance of the vehicle.

Abstract: A method for operating a lane guidance system involves determining a time period from the time of a request from the lane guidance system to a vehicle user to touch the steering handle until the occurrence of a sensor signal caused by a touch of the steering handle in the sensor region and comparing it with a predetermined time window. An activation option of the lane guidance system is blocked in the event that the determined time duration is greater than the predetermined time window. In the event of a first request to touch the steering handle after an idle state, an activation option of the lane guidance system is disabled until a subsequent idle state.

Abstract: An operating unit includes a touch-sensitive operating area and control unit. The control unit determines an activation location on the operating area from the information relating to the touched regions. If the activation location is in a predefined field, the control unit performs a function assigned to the field. The control unit determines the activation location from a position on or in the region of a boundary line bounding a fingertip and that is at the front in the direction of movement of the finger on the surface of the operating area, only when a determined speed of movement of a course of the regions of the touched operating exceeds a predefined limit value. Otherwise, the activation location is determined from an area centroid of all regions of the operating area which have been touched by the finger at a point in time.

Abstract: A hybrid transmission for a vehicle includes a transmission input shaft extending in a transverse direction, at least one countershaft arranged parallel to the transmission input shaft, a clutch device arranged coaxially with respect to the transmission input shaft and which has at least one clutch, and a differential having a differential input gear. A rotational axis of the differential input gear is arranged parallel to the transmission input shaft. The transmission also includes an electric machine having a rotor with a rotor rotational axis arranged parallel to the transmission input shaft and a transmission control device. As viewed in a longitudinal direction perpendicular to the transverse direction, the differential input gear, the transmission input shaft, and a transmission controller including the transmission control device are arranged in succession in the sequence specified.