Abstract: The present invention relates to a vehicle impact sensor device adapted to detect an impact between a vehicle (1) and a person. The sensor device (6) comprises a tubular enclosure (7) which encloses a gas-filled space (8). The tubular enclosure (7) has a first end (7a) and a second end (7b) and is arranged to extend along a bumper cover (5), when mounted to a vehicle (1). The sensor device (6) further comprises a pressure sensor (9, 9?, 11, 11?) arranged to detect pressure characteristics in the the tubular enclosure (7). The sensor device (6) also comprises a gas pulse device (11, 11?) which is connected to the tubular enclosure (7), the gas pulse device (11, 11?) being arranged to insert gas into, or withdraw gas from, the tubular enclosure (7).

Abstract: A system for determining vibration characteristics of a motor vehicle having a sensing arrangement (8) adapted to sense vibrations of the vehicle or a vehicle part, and an electronic processing means (11) adapted to apply an algorithm (12) for evaluating signals from the sensing arrangement (8) and for determining vibration characteristics based on the evaluation. The algorithm (12) includes at least one support vector machine SVM (13a . . . 13g) adapted to output a probability that the current vibration characteristic belongs to a particular pre-set type of vibration characteristic.

Abstract: A sensor assembly for a motor vehicle adapted for sensing impacts including pedestrian impacts. The sensor assembly integrates functions of pressure based sensors used in one embodiment with a compressible tube extending laterally across the front surface of the vehicle and the outboard front boundary areas of the front end of the vehicle. Both acceleration and pressure based sensors are mounted into an integrated sensor housing which is mounted in a desired position at the vehicle front fascia front boundary areas. The system optimizes pressure based sensing while providing acceleration based sensing at the lateral boundary areas where supporting structure does not enable pressure based sensing. The invention further including sensor arrangements including discrete pressure and acceleration sensors deployed for detecting pedestrian impacts at the center and front boundary areas of the vehicle front end.

Abstract: The present invention relates to a vehicle impact sensor device adapted to detect an impact between a vehicle (1) and a person. The sensor device (6) comprises a tubular enclosure (7) which encloses a gas-filled space (8). The tubular enclosure (7) has a first end (7a) and a second end (7b) and is arranged to extend along a bumper cover (5), when mounted to a vehicle (1). The sensor device (6) further comprises a pressure sensor (9, 9?, 11, 11?) arranged to detect pressure characteristics in the the tubular enclosure (7). The sensor device (6) also comprises a gas pulse device (11, 11?) which is connected to the tubular enclosure (7), the gas pulse device (11, 11?) being arranged to insert gas into, or withdraw gas from, the tubular enclosure (7).

Abstract: A sensor assembly for a motor vehicle adapted for sensing impacts including pedestrian impacts. The sensor assembly integrates functions of pressure based sensors used in one embodiment with a compressible tube extending laterally across the front surface of the vehicle and the outboard front boundary areas of the front end of the vehicle. Both acceleration and pressure based sensors are mounted into an integrated sensor housing which is mounted in a desired position at the vehicle front fascia front boundary areas. The system optimizes pressure based sensing while providing acceleration based sensing at the lateral boundary areas where supporting structure does not enable pressure based sensing. The invention further including sensor arrangements including discrete pressure and acceleration sensors deployed for detecting pedestrian impacts at the center and front boundary areas of the vehicle front end.

Abstract: The present invention concerns a switch device for verifying the locking position of an automobile seatbelt lock having at least two switch elements whose switch condition can be determined, as well as a control element that can be moved in the seatbelt lock and through which the switch condition of the switch elements can be changed. A switch device with high operating reliability is created by the fact that the switch elements are designed as sensors and the switch condition of the switch elements can be changed by an interaction between control element and sensors.