Abstract: A method for operating a driving assistance system. The method includes operating at least one sensor device in a host vehicle for monitoring the surroundings of the host vehicle; recognizing a fast-moving vehicle that is traveling in a first lane adjacent to a second lane in which the host vehicle is traveling, and determining a travel speed of the fast-moving vehicle in a travel direction of the host vehicle, based on a travel speed of the host vehicle or of a following vehicle or of a preceding vehicle, by the sensor device and by a control device; identifying a movement of the fast-moving vehicle as a passing operation of the host vehicle or of the following vehicle or of the preceding vehicle; and identifying a change in the movement of the fast-moving vehicle as an abortion of the passing operation.

Abstract: A method for assisting a driver during the deactivation of a highly automated driving mode of a vehicle. In this context, a takeover signal, which represents a takeover of control of the vehicle by the driver, and auxiliary information are read in. The auxiliary information includes image information representing the driver and/or vehicle-control information representing a control of the vehicle by the driver. In a further step, a degree of attentiveness of the driver is determined, using the takeover signal and the auxiliary information. Finally, using the degree of attentiveness, an assistance signal is output to assist the driver during the takeover of control, by activating at least one driver-assistance function of the vehicle.

Abstract: In a method for correcting at least one collision parameter determined by an anticipatory environment-sensor system of a vehicle and in a corresponding integrated safety system of the vehicle, a common time basis is established in the vehicle, a signal age and/or a latency time of at least one collision parameter is ascertained based on the common time base and on a time stamp that is output together with the at least one collision parameter, the at least one collision parameter is corrected based on the ascertained signal age and/or ascertained latency time, and the corrected parameter is output to at least one precrash function prior to an impact.

Abstract: A method for operating a control device of a motor vehicle driving by automation. The method includes determining a location of the motor vehicle, and acquiring driving-environment data of the motor vehicle, a control characteristic of the control device of the motor vehicle being formed in such a way that a driving behavior of at least one other road user is influenced in defined manner.

Abstract: A method for operating a driving assistance system. The method includes operating at least one sensor device in a host vehicle for monitoring the surroundings of the host vehicle; recognizing a fast-moving vehicle that is traveling in a first lane adjacent to a second lane in which the host vehicle is traveling, and determining a travel speed of the fast-moving vehicle in a travel direction of the host vehicle, based on a travel speed of the host vehicle or of a following vehicle or of a preceding vehicle, by the sensor device and by a control device; identifying a movement of the fast-moving vehicle as a passing operation of the host vehicle or of the following vehicle or of the preceding vehicle; and identifying a change in the movement of the fast-moving vehicle as an abortion of the passing operation.

Abstract: A method for providing an activation signal activating a vehicle occupant protection device includes reading in passenger compartment data from a passenger compartment detection unit and seat belt data from a seat belt sensor. The passenger compartment data represent a passenger compartment of the vehicle. The seat belt data represent a seat belt fastening angle of a seat belt of the vehicle at a belt reversing point relative to a reference axis of the vehicle. The method also includes determining, based on the passenger compartment data, a piece of seat position information representing an occupancy state of a vehicle seat by an occupant and a relative position of the seat relative to the vehicle; ascertaining an occupant class, representing a physical characteristic of the occupant, using the seat position information seat belt data; and generating the activation signal using the seat position information and the occupant class.

Abstract: A method and a system for controlling a driving function of a vehicle, whereby in a first operating state, the driving function is controlled by a vehicle guidance system, and in a second operating state, the driving function is controlled by a command of a driver, a transition from the first operating state to the second operating state being accomplished with the aid of an orderly handover through a preset handover procedure when it is recognized that a predetermined first condition is fulfilled, or with the aid of a handover in a fallback solution when it is recognized that a predetermined second condition is fulfilled.

Abstract: A method for ascertaining data of a traffic situation with a first vehicle and at least one second vehicle trailing the first vehicle, the method including a) ascertaining at least one defined parameter of the first vehicle, b) ascertaining a traffic situation in front of the first vehicle by the first vehicle and/or by the second vehicle, c) evaluating the information ascertained in steps a) and b) in a defined manner, and providing the information evaluated in step c) to the second vehicle at least at the start of a passing maneuver of the first vehicle conducted by the second vehicle.

Abstract: A method for controlling a vehicle. A piece of hazard area information, which represents at least one hazard area in the surroundings of the vehicle, and a piece of approach information, which represents an approach to the vehicle of at least one further vehicle driving next to the vehicle, are read in. Using the approach information, at least one collision parameter of a collision between the vehicle and the further vehicle is ascertained. Finally, a control signal is generated, using the collision parameter and the hazard area information, to steer the vehicle in a direction facing away from the hazard area.

Abstract: A method for assisting a driver during the deactivation of a highly automated driving mode of a vehicle. In this context, a takeover signal, which represents a takeover of control of the vehicle by the driver, and auxiliary information are read in. The auxiliary information includes image information representing the driver and/or vehicle-control information representing a control of the vehicle by the driver. In a further step, a degree of attentiveness of the driver is determined, using the takeover signal and the auxiliary information. Finally, using the degree of attentiveness, an assistance signal is output to assist the driver during the takeover of control, by activating at least one driver-assistance function of the vehicle.

Abstract: A method for transforming data of a sensor. First data of a first sensor of a first vehicle and a first position are initially provided. The first data include a first distance and a first direction to an object. The first position includes a location of the first sensor at which the first data were ascertained. A second position of a second vehicle is additionally provided. The first data are subsequently converted into transformed data based on the first position and the second position, the transformed data including a second distance and a second direction. The second distance is a distance between the object and the second position. The second direction is a direction between the object and the second position. The transformed data are subsequently output.

Abstract: A method includes steps of detecting an object in an environment of a motor vehicle; in a first phase, tracking the object with respect to the motor vehicle with the aid of a first movement model of the motor vehicle; detecting a collision of the motor vehicle with an obstacle; and in a second phase, tracking the object with respect to the motor vehicle with the aid of a second movement model of the motor vehicle.

Abstract: A method for the non-volatile storing of trigger data for a vehicle, including: detecting a trigger event; emitting a first trigger identification identifying the trigger event, and/or emitting a first participant identification identifying the vehicle; storing the first trigger data of the vehicle in a non-volatile manner, and a method for the non-volatile storing of trigger data for a participant, in particular of a further vehicle and/or a further infrastructure unit, including: receiving a first trigger identification and/or a first participant identification identifying a vehicle; and storing trigger data of the participant in a non-volatile manner.

Abstract: A method for providing an activation signal activating a vehicle occupant protection device includes reading in passenger compartment data from a passenger compartment detection unit and seat belt data from a seat belt sensor. The passenger compartment data represent a passenger compartment of the vehicle. The seat belt data represent a seat belt fastening angle of a seat belt of the vehicle at a belt reversing point relative to a reference axis of the vehicle. The method also includes determining, based on the passenger compartment data, a piece of seat position information representing an occupancy state of a vehicle seat by an occupant and a relative position of the seat relative to the vehicle; ascertaining an occupant class, representing a physical characteristic of the occupant, using the seat position information seat belt data; and generating the activation signal using the seat position information and the occupant class.

Abstract: In a method for correcting at least one collision parameter determined by an anticipatory environment-sensor system of a vehicle and in a corresponding integrated safety system of the vehicle, a common time basis is established in the vehicle, a signal age and/or a latency time of at least one collision parameter is ascertained based on the common time base and on a time stamp that is output together with the at least one collision parameter, the at least one collision parameter is corrected based on the ascertained signal age and/or ascertained latency time, and the corrected parameter is output to at least one precrash function prior to an impact.

Abstract: A method for ascertaining data of a traffic situation with a first vehicle and at least one second vehicle trailing the first vehicle, the method including a) ascertaining at least one defined parameter of the first vehicle, b) ascertaining a traffic situation in front of the first vehicle by the first vehicle and/or by the second vehicle, c) evaluating the information ascertained in steps a) and b) in a defined manner, and providing the information evaluated in step c) to the second vehicle at least at the start of a passing maneuver of the first vehicle conducted by the second vehicle.

Abstract: A method and a system for controlling a driving function of a vehicle, whereby in a first operating state, the driving function is controlled by a vehicle guidance system, and in a second operating state, the driving function is controlled by a command of a driver, a transition from the first operating state to the second operating state being accomplished with the aid of an orderly handover through a preset handover procedure when it is recognized that a predetermined first condition is fulfilled, or with the aid of a handover in a fallback solution when it is recognized that a predetermined second condition is fulfilled.

Abstract: A method for controlling a vehicle. A piece of hazard area information, which represents at least one hazard area in the surroundings of the vehicle, and a piece of approach information, which represents an approach to the vehicle of at least one further vehicle driving next to the vehicle, are read in. Using the approach information, at least one collision parameter of a collision between the vehicle and the further vehicle is ascertained. Finally, a control signal is generated, using the collision parameter and the hazard area information, to steer the vehicle in a direction facing away from the hazard area.

Abstract: A method for transforming data of a sensor. First data of a first sensor of a first vehicle and a first position are initially provided. The first data include a first distance and a first direction to an object. The first position includes a location of the first sensor at which the first data were ascertained. A second position of a second vehicle is additionally provided. The first data are subsequently converted into transformed data based on the first position and the second position, the transformed data including a second distance and a second direction. The second distance is a distance between the object and the second position. The second direction is a direction between the object and the second position. The transformed data are subsequently output.

Abstract: A method includes steps of detecting an object in an environment of a motor vehicle; in a first phase, tracking the object with respect to the motor vehicle with the aid of a first movement model of the motor vehicle; detecting a collision of the motor vehicle with an obstacle; and in a second phase, tracking the object with respect to the motor vehicle with the aid of a second movement model of the motor vehicle.