Abstract: A connection device, in particular a screw connection device, including: an energy supply device; a communication device, and a sensor system, wherein the energy supply device is configured to supply the sensor system and/or the communication device with energy, wherein the communication device is configured to transfer a sensor value with the aid of the sensor system to the outside.

Abstract: A participant of a communication system includes a microcontroller and a configuration interface, wherein the configuration interface includes an electromagnetic resonant circuit directly connected to the microcontroller, configured to detect and/or to generate a magnetic signal including data to be transmitted to and/or from the participant, wherein the microcontroller is connected to at least one tuning element for tuning the electromagnetic resonant circuit, wherein the microcontroller is configured to switch at least one pin of the microcontroller, with which the at least one tuning element is connected, to one of several different operating modes in order to tune the electromagnetic resonant circuit, wherein the electromagnetic resonant circuit is connected in series between a first pin of the microcontroller and a reference potential terminal, wherein the at least one tuning element is connected between the first pin and at least one second pin of the microcontroller, wherein the microcontroller is conf

Abstract: Embodiments of the present invention refer to a method for determining the position of a target device within a communication network. Further embodiments refer to a corresponding target device including a receiving unit and a radio frequency measurement unit, to a base station or a location server including a selector and a transmitter, and to a reference device with configurable properties. Further embodiments refer to a system including a base station or a location server, a target device, and a reference device for determining the position of a target device within a communication network.

Abstract: Embodiments provide a data receiver with a unit for receiving sub-data packets configured to receive at least two sub-data packets from a data transmitter, and to combine the at least two sub-data packets to obtain a data packet that is transmitted split into the at least two sub-data packets by the data transmitter, wherein each of the at least two sub-data packets is shorter than the data packet, a unit for receiving sub-data packets configured to receive the at least two sub-data packets on at least two different carrier frequencies a unit for determining a phase difference configured to determine a phase difference between the at least two sub-data packets that is caused by the at least two different carrier frequencies and the path delay, and a unit for determining a distance difference configured to determine a distance difference between the data receiver and the data transmitter based on the determined phase difference between the at least two sub-data packets.

Abstract: Embodiments provide a data receiver with a unit for receiving sub-data packets, a unit for determining a phase difference and a unit for determining a distance difference. The unit for receiving sub-data packets is configured to receive at least two sub-data packets from a data transmitter, and to combine the at least two sub-data packets to obtain a data packet that is transmitted split into the at least two sub-data packets by the data transmitter, wherein each of the at least two sub-data packets is shorter than the data packet, wherein the unit for receiving sub-data packets is configured to receive the at least two sub-data packets on at least two different carrier frequencies. The unit for determining a phase difference is configured to determine a phase difference between the at least two sub-data packets that is caused by the at least two different carrier frequencies and the path delay.

Abstract: Embodiments relate to determining a speed of a multidimensional motion of an athlete in a global coordinate system based on multidimensional acceleration data from a multidimensional accelerometer placed at a movable limb of the athlete, the movable limb being at least one of translatory and rotatable, and the movable limb defining a local coordinate system. Based on the multidimensional acceleration data, at least one correction quantity may be determined taking into account a rotation of the local coordinate system relative to the global coordinate system during the multidimensional motion. The speed of the multidimensional motion may be determined based on an integration of the multidimensional acceleration data and in consideration of the at least one correction quantity.

Abstract: Embodiments relate to determining a speed of a multidimensional motion of an athlete in a global coordinate system based on multidimensional acceleration data from a multidimensional accelerometer placed at a movable limb of the athlete, the movable limb being at least one of translatory and rotatable, and the movable limb defining a local coordinate system. Based on the multidimensional acceleration data, at least one correction quantity may be determined taking into account a rotation of the local coordinate system relative to the global coordinate system during the multidimensional motion. The speed of the multidimensional motion may be determined based on an integration of the multidimensional acceleration data and in consideration of the at least one correction quantity.