Abstract: In some embodiments, a method of correcting for errors in a rotational position sensor having a sine signal and a cosine signal is presented. The method includes compiling data from the sine signal and the cosine signal over a period of rotation of a motor shaft; determining offset correction parameters from the data; correcting the data with the offset correction parameters; determining amplitude difference parameters from the data; correcting the data with the amplitude difference parameters; determining phase difference parameters from the data; correcting the data with the phase difference parameters; and using the offset correction parameters, the amplitude difference parameters, and the phase difference parameters to correct the sine signal and the cosine signal.

Abstract: The invention relates to an inductive proximity switch. The object of the invention to present a very simplified inductive position sensor, which can be reliably used for detecting a zero crossing of its output voltage when a target moves by will be solved by an inductive proximity switch comprising a transmitter coil, a receiver coil, an integrated circuit for excitation of the transmitter coil and a signal processing unit for processing a received signal from the receiver coil, wherein an oscillator excites a resonant circuit comprising the transmitter coil and a parallel capacitor for inducing a voltage in the receiver coil, wherein the receiver coil comprises two symmetrical segments with opposite orientation that are connected in series, wherein the transmitter coil surrounds the segments of the receiver coil or the transmitter coil is surrounded by the segments of the receiver coil.

Abstract: The invention relates to an inductive proximity switch. The object of the invention to present a very simplified inductive position sensor, which can be reliably used for detecting a zero crossing of its output voltage when a target moves by will be solved by an inductive proximity switch comprising a transmitter coil, a receiver coil, an integrated circuit for excitation of the transmitter coil and a signal processing unit for processing a received signal from the receiver coil, wherein an oscillator excites a resonant circuit comprising the transmitter coil and a parallel capacitor for inducing a voltage in the receiver coil, wherein the receiver coil comprises two symmetrical segments with opposite orientation that are connected in series, wherein the transmitter coil surrounds the segments of the receiver coil or the transmitter coil is surrounded by the segments of the receiver coil.

Abstract: In some embodiments, a method of correcting for errors in a rotational position sensor having a sine signal and a cosine signal is presented. The method includes compiling data from the sine signal and the cosine signal over a period of rotation of a motor shaft; determining offset correction parameters from the data; correcting the data with the offset correction parameters; determining amplitude difference parameters from the data; correcting the data with the amplitude difference parameters; determining phase difference parameters from the data; correcting the data with the phase difference parameters; and using the offset correction parameters, the amplitude difference parameters, and the phase difference parameters to correct the sine signal and the cosine signal.

Abstract: An arrangement and a method for controlling an array of light-emitting diodes includes a capacitor arranged in series with an electronic switch between one end of a first segment of the array and a constant-current source. A first terminal of the capacitor is connected to the one end and a second terminal of the capacitor is connected to the switch. The switch is connected to a control unit for control purposes.

Abstract: An arrangement and a method for controlling light-emitting diodes divided into segments of an array are provided. The second terminals of all segments in the array are connected to a constant current source via one respective switching element per terminal, resulting in formation of a number n of stages, each of which has an n-th segment and an associated n-th switching element. When the amplitude of the input alternating voltage is at zero volts, all switching elements in all n stages are through-switched. An n-th reference voltage and an node voltage measured at the second terminal of a segment in stage n+1 are compared, and if the n-th reference voltage is less than the node voltage, the switching element of the n-th stage is blocked.

Abstract: A device for detecting the angle of incidence of radiation on a radiation incidence surface (14) comprises at last two first pairs (36) of photodiodes comprising first photodiodes (30) arranged along a first axis (12) and connected in series in a pair-wise manner. Each of the first photodiodes (30) comprises a space-charge zone (32) having a space-charge zone face (34) oriented towards the radiation incidence face (14). Further, the device is provided with a a shading mask (46) arranged at a distance (44) above the space-charge zone faces (34) of the first photodiodes (30) and comprising radiation-transmitting areas (48). Each radiation-transmitting area (48) is assigned to the space-charge zone faces (34) of the two first photodiodes (30) of a first pair (36) of photodiodes.

Abstract: A method for automatically assigning addresses in a bus system with a bus, a plurality of participating units connected to the bus and a control device for issuing control signals to the units also coupled to the bus, where each unit comprises an actuator and an actuator driving device for displacing the actuator along a displacement path defined by two end positions, is characterized by the following steps: storing, in the control device, operating data sets that, upon adjustment of the actuators from one end position to another end position, describe expected operation parameters of the actuator driving devices of the units, these set parameters being different for each actuator driving device, and storing address data that are also different and are assigned to the different set parameters; the control device causes the actuator driving devices of the units to move the respective assigned actuators to the one end position; the control device then causes the actuator driving devices of the units to move the

Abstract: A device for detecting the angle of incidence of radiation on a radiation incidence surface (14) comprises at last two first pairs (36) of photodiodes comprising first photodiodes (30) arranged along a first axis (12) and connected in series in a pair-wise manner. Each of the first photodiodes (30) comprises a space-charge zone (32) having a space-charge zone face (34) oriented towards the radiation incidence face (14). Further, the device is provided with a a shading mask (46) arranged at a distance (44) above the space-charge zone faces (34) of the first photodiodes (30) and comprising radiation-transmitting areas (48). Each radiation-transmitting area (48) is assigned to the space-charge zone faces (34) of the two first photodiodes (30) of a first pair (36) of photodiodes.

Abstract: The NMOS transistor is provided with a semiconducting substrate (12) which is p-doped and comprises a top side (14), and with a first region (16) which is n-doped and placed into the substrate by diffusion from the top side (14) of the substrate (12). Further, the transistor comprises a second region (18) arranged within the n-conducting region (16), which is n-doped and introduced into the substrate from the top side (14) of the substrate (12), and a field oxide layer (20) which is arranged on the top side (14) of the substrate (12) and limits the p-conducting region (16) on all sides. The top side comprises a source region (22) and a drain region (24) which are n-doped and arranged within the p-conducting region (18) at a distance to each other. A gate oxide layer (26) is arranged on the top side (14) of the substrate (12) between the source and the drain regions (22, 24).