Abstract: In a method for parameterising at least one device (30), at least one environmental value (31) of the device is determined via at least one sensor and/or an automation component. It is checked whether parameters are allocated to the at least one environmental value in a parameter database (32). If parameters are allocated to the at least one environmental value (31) in the parameter database (32), the device (30) is parameterised with parameters from the parameter database (32). If no parameters are allocated to the at least one environmental value (31) in the parameter database (32), the device (30) is parameterised with new parameters. The new parameters are then allocated (54) to the at least one environmental value (31) in the parameter database (32).

Abstract: In a method for operating a system, which has a plurality of sensors (21, 22, 23), the sensors (21, 22, 23) provide first sensor data (11) to a primary process (31). Furthermore, the sensors (21, 22, 23) provide second sensor data (12). At least a part of the first sensor data (11) and the second sensor data (12) is subjected to an analysis (13). A result (16) of the analysis (13) is used in at least one secondary process (33) of the primary process (31).

Abstract: The invention relates to an air exhaust valve (1). The air exhaust valve (1) comprises an inner baffle element (10) located at a radially inside position and an outer baffle element (20) located at a radially outside position and surrounding said inner baffle element (10) for defining an air flow space (70) between said inner baffle element (10) and said outer baffle element (20). There are provided an inner plurality of slits or grooves in said inner baffle element (10) and/or an outer plurality of slits or grooves (21) in said outer baffle element (20).

Abstract: An evaporator includes an inlet in a lower manifold, an outlet in an upper manifold, and a multiport tube extending between the lower manifold and the upper manifold. The multiport tube provides a flow path between the lower manifold and the upper manifold. One of the outer side walls of the multiport tube is provided with a first evaporator section with a first heat receiving surface and a second evaporator section with a second heat receiving surface, the first and second evaporator sections passing a heat load received via the respective first and second heat receiving surfaces to a fluid in said multiport tube. The first and second heat receiving surfaces form an angle with each other to align with and contact different surfaces of an object to be cooled.

Abstract: The at least one value is respectively determined from at least one measured value of the sensors (20-29) in a method for determining at least one physical value in a space (10) in which several sensors (20-29) are arranged which are set up to measurer the at least one value, for several positions (30) in the space (10) where there is no sensor (20-29). A system which is set up in order to determine the at least one physical value in the space (10) has several sensors (20-29) which are arranged in the space (10). Furthermore, it has a database, in which information about the space (10) is stored, and a computer which is set up in order to determine the at least one value by means of the method.

Abstract: The at least one value is respectively determined from at least one measured value of the sensors (20-29) in a method for determining at least one physical value in a space (10) in which several sensors (20-29) are arranged which are set up to measurer the at least one value, for several positions (30) in the space (10) where there is no sensor (20-29). A system which is set up in order to determine the at least one physical value in the space (10) has several sensors (20-29) which are arranged in the space (10). Furthermore, it has a database, in which information about the space (10) is stored, and a computer which is set up in order to determine the at least one value by means of the method.

Abstract: In a method for operating a system, which has a plurality of sensors (21, 22, 23), the sensors (21, 22, 23) provide first sensor data (11) to a primary process (31). Furthermore, the sensors (21, 22, 23) provide second sensor data (12). At least a part of the first sensor data (11) and the second sensor data (12) is subjected to an analysis (13). A result (16) of the analysis (13) is used in at least one secondary process (33) of the primary process (31).

Abstract: A method for the remote control of a function of a vehicle by a mobile operating device, involves enabling or disabling the function of the vehicle, such as an autonomous function for maneuvering into or out of a parking space, based on a sensed movement of the operating device. Enablement of the function requires that the sensed movement is a micromovement, a micromovement being a movement that is limited in the extent thereof and/or in the dynamics thereof.

Abstract: A generator switch including an encapsulation lying at ground potential and an electrical conductor arranged in an insulated fashion inside the encapsulation and at high-voltage potential, as well as a gravity-driven cooling device having an evaporator and a condenser arranged above the evaporator and a coolant. The cooling device is formed as a closed loop-type coolant circuit. During operation of the generator switch, a level of the liquid coolant in the line system in a static cooling device is at least as high as the upper end of the insulating section in the insulator.

Abstract: An evaporator includes an inlet in a lower manifold, an outlet in an upper manifold, and a multiport tube extending between the lower manifold and the upper manifold. The multiport tube provides a flow path between the lower manifold and the upper manifold. One of the outer side walls of the multiport tube is provided with a first evaporator section with a first heat receiving surface and a second evaporator section with a second heat receiving surface, the first and second evaporator sections passing a heat load received via the respective first and second heat receiving surfaces to a fluid in said multiport tube. The first and second heat receiving surfaces form an angle with each other to align with and contact different surfaces of an object to be cooled.

Abstract: A method for the remote control of a function of a vehicle by a mobile operating device, involves enabling or disabling the function of the vehicle, such as an autonomous function for maneuvering into or out of a parking space, based on a sensed movement of the operating device. Enablement of the function requires that the sensed movement is a micromovement, a micromovement being a movement that is limited in the extent thereof and/or in the dynamics thereof.

Abstract: The invention relates to a method for the remote control of a function of a motor vehicle by means of a vehicle-external electronic unit, in which the vehicle-external electronic unit (7) is checked during the driving event of the motor vehicle (1) in that the vehicle-external electronic unit (7) triggers an operation, the result of which is checked for correctness by a control device (3) of the motor vehicle (1).

Abstract: A method for operating a vehicle in at least one parking process situation involves allocating at least one predetermined vehicle-specific or parking process situation-specific function to the at least one predetermined parking process situation of the vehicle. Whether the vehicle is in the at least one predetermined parking process situation is determined and the predetermined vehicle-specific or parking process situation-specific function allocated to the at least one predetermined parking process situation is presented to a vehicle user for activation or automatically activated when the vehicle is in the at least one predetermined parking process situation.

Abstract: A generator switch including an encapsulation lying at ground potential and an electrical conductor arranged in an insulated fashion inside the encapsulation and at high-voltage potential, as well as a gravity-driven cooling device having an evaporator and a condenser arranged above the evaporator and a coolant. The cooling device is formed as a closed loop-type coolant circuit. During operation of the generator switch, a level of the liquid coolant in the line system in a static cooling device is at least as high as the upper end of the insulating section in the insulator.

Abstract: A method of moving a vehicle from a start position to end position when the end position cannot be detected by the vehicle's built-in sensors involves determining the start position by a mobile terminal or by the vehicle and determining the end position by the mobile terminal. A driving trajectory of the vehicle is planned within the vehicle, a driving maneuver of the vehicle is initiated by the vehicle or the mobile terminal, and the planned driving maneuver is carried out to reach the end position.

Abstract: A method for operating a vehicle in at least one parking process situation involves allocating at least one predetermined vehicle-specific or parking process situation-specific function to the at least one predetermined parking process situation of the vehicle. Whether the vehicle is in the at least one predetermined parking process situation is determined and the predetermined vehicle-specific or parking process situation-specific function allocated to the at least one predetermined parking process situation is presented to a vehicle user for activation or automatically activated when the vehicle is in the at least one predetermined parking process situation.

Abstract: A method of moving a vehicle from a start position to end position when the end position cannot be detected by the vehicle's built-in sensors involves determining the start position by a mobile terminal or by the vehicle and determining the end position by the mobile terminal. A driving trajectory of the vehicle is planned within the vehicle, a driving maneuver of the vehicle is initiated by the vehicle or the mobile terminal, and the planned driving maneuver is carried out to reach the end position.

Abstract: The invention relates to a method for the remote control of a function of a motor vehicle by means of a vehicle-external electronic unit, in which the vehicle-external electronic unit (7) is checked during the driving event of the motor vehicle (1) in that the vehicle-external electronic unit (7) triggers an operation, the result of which is checked for correctness by a control device (3) of the motor vehicle (1).

Abstract: A method and a device for the remote control of a function of a vehicle is disclosed. A wireless communication connection is established between a portable operating device and the vehicle. A gesture executed by a user is detected by the portable operating device and transmitted, for controlling the function, to the vehicle by the communication connection. The function is executed if the detected gesture corresponds to a predefined gesture allocated to the function. The predefined gesture corresponds to a continuous movement and the function is executed only as long as the gesture executed by the user is detected.

Abstract: A method for performing an automatic parking process of a vehicle involves offering a user a selection between at least two parking maneuver for implementing by a driver assistance system in the vehicle. The first parking maneuver is a direct parking maneuver in which an automatic parking process is performed from the start position directly to the target position along the trajectory. The second parking maneuver involves providing a break point the parking trajectory so that a user can disembark the vehicle at the break point and prior to the target position.