Abstract: A drive for adjusting an adjustable element of a motor vehicle, the drive having a drive train with two drive portions, which can be adjusted relative to one another along a geometric drive axis between a retracted position and an extended position and which comprise a plurality of train components which are coupled to one another to transmit force or torque so as to transmit a force introduced into the drive connections, wherein the drive comprises a feed gear for carrying out in particular linear drive movements along the geometric drive axis, one of the two drive portions having a drive unit with a drive motor, downstream of which the feed gear is arranged, the drive motor having a motor shaft that has a geometric motor shaft axis and transmits a torque generated by the drive motor, and a bearing arrangement with at least one motor shaft bearing.

Abstract: Instrumented mouthguards include components such as accelerometer modules that enable monitoring of head movements of a mouthguard wearer. Various embodiments that provide instrumented mouthguard devices and components configured for use in instrumented mouthguard devices, including flexible circuit board substrates. In some embodiments, the flexible circuit board substrate is configured to allow sizing irregularities resultant from customization of the mouthguard body to a specific wearer.

Abstract: Instrumented mouthguards include components such as accelerometer modules that enable monitoring of head movements of a mouthguard wearer. Various embodiments that provide instrumented mouthguard devices and components configured for use in instrumented mouthguard devices, including flexible circuit board substrates. In some embodiments, the flexible circuit board substrate is configured to allow sizing irregularities resultant from customization of the mouthguard body to a specific wearer.

Abstract: Technology disclosed herein relates to sensor-enabled mouthguards. Embodiments have been particularly developed to provide sensor-enabled mouthguards configured to enable monitoring of head impact data via multiple accelerometers, and data processing methods configured to analyse data derived from multiple accelerometers carried by a sensor-enabled mouthguard. This finds application, for example, in the context of managing brain injury risks in the context of sporting activities.

Abstract: Technology disclosed herein relates to monitoring of effects relevant to head impacts and/or injuries in humans. Embodiments of the invention have been particularly developed for enabling real-time monitoring of head impact data for participants in contact sports systems. This finds application, for example, in the context of managing brain injury risks in the context of sporting activities.