Abstract: A method for dynamic error compensation of a position sensor and a position sensor are disclosed. In the method, a calculated speed of a moving target for a current determined position is compared to a calculated running average of the speed of the moving target over a certain number of determined positions and if the calculated speed of the moving target for the current position is within a first window around the calculated running average of the speed of the moving target over the certain number of determined positions the dynamic angle error is not re-calculated for the current determined position, and/or if the calculated speed of the moving target for the current determined position exceeds a second window the previously calculated running average is deleted and the calculation of the running average of the speed of the moving target over a certain number of determined positions is restarted.

Abstract: An accurate position sensor that operates over a long range is provided. The position sensor can include a first sensor coil having a first number of periods over a range of motion of a target; and a second sensor coil having a second number of periods over the range, wherein the first number of periods is different from the second number of periods, and wherein the first sensor coil and the second sensor coil are arranged with respect to one another such that the target engages both of them simultaneously. In some embodiments, the first number of periods is one and the second number of periods is greater than one. In some embodiments, the first number of periods is greater than one and the second number of periods is greater than the first number of periods.

Abstract: An inductive position sensor including at least one transmit coil, an absolute position receive coil pair, a high-resolution position receive coil pair and a conductive moving target, the absolute position receive coil pair and the high-resolution receive coil pair together define a measurement area of the inductive position sensor and the moving target can move in this measurement area, the absolute position coil pair has a first sine receive coil and a first cosine receive coil, both having one period over the measurement area of the inductive position sensor, the high-resolution position receive coil pair has a second sine receive coil and a second cosine receive coil, both having at least two periods over the measurement area of the inductive position sensor, the absolute position receive coil pair and the high-resolution position receive coil pair are arranged in the same area of a printed-circuit board of the inductive position sensor.

Abstract: A pressure-regulating device for a fuel consumption measurement system includes a fuel supply line which supplies fuel to a consumer, a fuel return line, a bypass line which branches off from the fuel supply line, a pressure regulator which sets a free flow cross-section in the bypass line, a pressure sensor arranged at the fuel supply line downstream of where the bypass line branches off, a control unit electrically connected to the pressure sensor, and a pressure-reducing element arranged in the fuel supply line upstream of the pressure sensor and downstream of the branch of the bypass line. The bypass line fluidically connects the fuel supply line to the fuel return line and feeds fuel from the fuel supply line to the fuel return line while bypassing the consumer. The pressure sensor provides pressure measurement values. The control unit regulates the pressure regulator depending on the pressure measurement values.

Abstract: An accurate position sensor that operates over a long range is provided. The position sensor can include a first sensor coil having a first number of periods over a range of motion of a target; and a second sensor coil having a second number of periods over the range, wherein the first number of periods is different from the second number of periods, and wherein the first sensor coil and the second sensor coil are arranged with respect to one another such that the target engages both of them simultaneously. In some embodiments, the first number of periods is one and the second number of periods is greater than one. In some embodiments, the first number of periods is greater than one and the second number of periods is greater than the first number of periods.

Abstract: A pressure-regulating device for a fuel consumption measurement system includes a fuel supply line which supplies fuel to a consumer, a fuel return line, a bypass line which branches off from the fuel supply line, a pressure regulator which sets a free flow cross-section in the bypass line, a pressure sensor arranged at the fuel supply line downstream of where the bypass line branches off, a control unit electrically connected to the pressure sensor, and a pressure-reducing element arranged in the fuel supply line upstream of the pressure sensor and downstream of the branch of the bypass line. The bypass line fluidically connects the fuel supply line to the fuel return line and feeds fuel from the fuel supply line to the fuel return line while bypassing the consumer. The pressure sensor provides pressure measurement values. The control unit regulates the pressure regulator depending on the pressure measurement values.

Abstract: In one embodiment a circuit arrangement for disturber detection comprises an input for receiving an input signal, the input being adapted to be coupled to an antenna, a receiver circuit coupled to the input which is configured to provide a demodulated signal as a function of the input signal, and a disturber rejection circuit which is coupled to an output of the receiver circuit. Therein the disturber rejection circuit is configured to provide a first signal indicative of a low energy disturber and/or a second signal indicative of a square envelope disturber, the first and second signals being provided as a function of the demodulated signal at respective outputs of the disturber rejection circuit. Furthermore, a lightning detector and a method for disturber detection are described.

Abstract: A position sensor device to determine a position of a moving device comprises a detection unit to detect a signal generated by the moving device and an evaluation unit to determine a first position (?0(t1)) specifying the position of the moving device at a first time (t1). An error distance determination unit determines a velocity of the movement of the moving device and at least one error distance (?err1, ?err2, ?err3) specifying a distance by which the moving device moves on between the first time (t1) and a second time (t2) in dependence on the velocity and a propagation delay time (Tpd). A position correction unit is configured to determine a corrected position (?corr) in dependence on the at least one error distance (?err1, ?err2, ?err3) and the first position (?0(t1)).

Abstract: A position sensor device to determine a position of a moving device comprises a detection unit to detect a signal generated by the moving device and an evaluation unit to determine a first position (?0(t1) specifying the position of the moving device at a first time (t1). An error distance determination unit determines a velocity of the movement of the moving device and at least one error distance (?err1, ?err2, ?err3) specifying a distance by which the moving device moves on between the first time (t1) and a second time (t2) in dependence on the velocity and a propagation delay time (Tpd). A position correction unit is configured to determine a corrected position (?corr) in dependence on the at least one error distance (?err1, ?err2, ?err3) and the first position (?0(t1)).

Abstract: In one embodiment a circuit arrangement for disturber detection comprises an input for receiving an input signal, the input being adapted to be coupled to an antenna, a receiver circuit coupled to the input which is configured to provide a demodulated signal as a function of the input signal, and a disturber rejection circuit which is coupled to an output of the receiver circuit. Therein the disturber rejection circuit is configured to provide a first signal indicative of a low energy disturber and/or a second signal indicative of a square envelope disturber, the first and second signals being provided as a function of the demodulated signal at respective outputs of the disturber rejection circuit. Furthermore, a lightning detector and a method for disturber detection are described.

Abstract: An integrated circuit (10) has an internal RC-oscillator (20) for providing an internal clock signal (CLI) having an adjustable oscillator frequency. The integrated circuit (10) further comprises terminals (101, 102) for connecting an external LC tank (30) having a resonance frequency and a calibration circuit (40) which is configured to adjust the oscillator frequency based on the resonance frequency of the LC tank (30) connected during operation of the integrated circuit (10). An internal auxiliary oscillator (46) is connected to the terminals (101, 102) in a switchable fashion and is configured to generate an auxiliary clock signal (CLA) based on the resonance frequency. The calibration circuit (40) comprises a frequency comparator (47) which is configured to determine a trimming word (TRW) based on a frequency comparison of the internal clock signal (CLI) and the auxiliary clock signal (CLA). The LC tank (30) to be connected is an antenna for receiving a radio signal.

Abstract: A wake-up method for a multi-channel receiver comprises the following steps: checking for activity on every available channel by switching from one channel to the next thereby activating and subsequently deactivating one channel after the other; when activity is detected at least on one of the available channels, switching on all channels, measuring a respective received signal strength in every channel and performing a comparison of received signal strengths between all channels; and selecting the channel with the highest received signal strength. Further a multi-channel wake-up receiver is presented.

Abstract: An integrated circuit (10) has an internal RC-oscillator (20) for providing an internal clock signal (CLI) having an adjustable oscillator frequency. The integrated circuit (10) further comprises terminals (101, 102) for connecting an external LC tank (30) having a resonance frequency and a calibration circuit (40) which is configured to adjust the oscillator frequency based on the resonance frequency of the LC tank (30) connected during operation of the integrated circuit (10). An internal auxiliary oscillator (46) is connected to the terminals (101, 102) in a switchable fashion and is configured to generate an auxiliary clock signal (CLA) based on the resonance frequency. The calibration circuit (40) comprises a frequency comparator (47) which is configured to determine a trimming word (TRW) based on a frequency comparison of the internal clock signal (CLI) and the auxiliary clock signal (CLA). The LC tank (30) to be connected is an antenna for receiving a radio signal.

Abstract: A frequency divider and a method for frequency division are disclosed that can achieve a balanced duty cycle when performing a frequency division with an odd division ratio, independently of an input frequency.

Abstract: A wake-up method for a multi-channel receiver comprises the following steps: checking for activity on every available channel by switching from one channel to the next thereby activating and subsequently deactivating one channel after the other; when activity is detected at least on one of the available channels, switching on all channels, measuring a respective received signal strength in every channel and performing a comparison of received signal strengths between all channels; and selecting the channel with the highest received signal strength. Further a multi-channel wake-up receiver is presented.

Abstract: A frequency divider comprises a cascade of at least two triggered delay elements (FF1, FF2, . . . ), a reference frequency input (FIN) and a clock output (FOUT). The triggered delay elements (FF1, FF2) are configured to forward a state of an input signal at a respective data input (D1, D2) to a respective data output (Q1, Q2) either for a rising clock edge of a clock signal at a respective clock input (C1, C2) or for a falling clock edge of the clock signal, depending on a control signal at a respective trigger control input (PH1, PH2). Clock inputs (C1, C2) of the delay elements (FF1, FF2) are coupled to the reference frequency input (FIN). The data input (D1) and the trigger control input (PH1) of the first delay element (FF1) of the cascade are coupled to the data output (Q2, QN) of the last delay element (FF2, FFN) of the cascade. The data input (D2, . . . ) and the trigger control input (PH2, . . . ) of further delay elements (FF2, . . . ) of the cascade are coupled to the data output (Q1, . . .