Abstract: A vehicle and a method are provided for adjusting a position of a display in the vehicle. The vehicle includes a seat, a display, particularly a touch display, a drive and an evaluation unit. The seat is disposed in the passenger compartment of the vehicle and has a base and a backrest, which can be inclined relative to the base and can be transferred at least between a first angle of inclination and a second angle of inclination with respect to the base. The drive is designed to transfer the display between a first position and a second position. The display is disposed in the passenger compartment remote from the backrest.

Abstract: A method controls drive units for adjusting vehicle seat components. According to the method, a vehicle speed-dependent and crash-related nominal position or a vehicle speed-dependent and crash-related nominal position range are defined for at least one component. Starting from an actual position that is the same as the nominal position or from an actual position within the nominal position range, the actual position cannot be manually or automatically adjusted in the first instance or can only be adjusted in the nominal position range in the second instance, independently from the identification of a crash situation. Starting from an actual position that is different from the nominal position or outside the nominal position range, the actual position is automatically adjusted towards the nominal position or the nominal position range, preferably according to the identified defined situations, independently from the identification of a crash situation.

Abstract: A method controls drive units for adjusting vehicle seat components. According to the method, a vehicle speed-dependent and crash-related nominal position or a vehicle speed-dependent and crash-related nominal position range are defined for at least one component. Starting from an actual position that is the same as the nominal position or from an actual position within the nominal position range, the actual position cannot be manually or automatically adjusted in the first instance or can only be adjusted in the nominal position range in the second instance, independently from the identification of a crash situation. Starting from an actual position that is different from the nominal position or outside the nominal position range, the actual position is automatically adjusted towards the nominal position or the nominal position range, preferably according to the identified defined situations, independently from the identification of a crash situation.

Abstract: A communication system is provided having a plurality of FlexRay network nodes by which respective user data packets are provided in an IP data packet format or an Ethernet data packet format, and having a FlexRay bus system, by whose physical layer data are transmitted between the FlexRay network nodes. The IP data packet format or the Ethernet data packet format each having a plurality of bit positions. The FlexRay network nodes are set up such that contents of the bit positions of the user data packets are each converted onto corresponding signals of the physical layer of the FlexRay bus system.

Abstract: A communication system is provided with a plurality of FlexRay network nodes (FRK) by which respective data packets are provided in an IP data packet format or an Ethernet data packet format, and a FlexRay bus system (FRB), by whose physical layer, data are transmitted between the FlexRay network nodes (FRK). The IP data packet format or the Ethernet data packet format each has a plurality of bit positions. The FlexRay network nodes (FRK) each include a media access layer (MAC) which is set up such that the data packets provided in an IP data packet format or Ethernet data packet format are converted into a preset media-independent data format (MII), and an adaptation layer (ANP) which is set up such that the data provided in the media-independent data format (MII) are converted onto corresponding signals of the physical layer of the FlexRay bus system (FRB).

Abstract: A communication system is provided having a plurality of FlexRay network nodes by which respective user data packets are provided in an IP data packet format or an Ethernet data packet format, and having a FlexRay bus system, by whose physical layer data are transmitted between the FlexRay network nodes. The IP data packet format or the Ethernet data packet format each having a plurality of bit positions. The FlexRay network nodes are set up such that contents of the bit positions of the user data packets are each converted onto corresponding signals of the physical layer of the FlexRay bus system.

Abstract: A communication system is provided with a plurality of FlexRay network nodes (FRK) by which respective data packets are provided in an IP data packet format or an Ethernet data packet format, and a FlexRay bus system (FRB), by whose physical layer, data are transmitted between the FlexRay network nodes (FRK). The IP data packet format or the Ethernet data packet format each has a plurality of bit positions. The FlexRay network nodes (FRK) each include a media access layer (MAC) which is set up such that the data packets provided in an IP data packet format or Ethernet data packet format are converted into a preset media-independent data format (MII), and an adaptation layer (ANP) which is set up such that the data provided in the media-independent data format (MII) are converted onto corresponding signals of the physical layer of the FlexRay bus system (FRB).