A capacitive sensor includes a first electrode structure; a second electrode structure that is counter to the first electrode structure, wherein the second electrode structure is movable relative to the first electrode structure and is capacitively coupled to the first electrode structure to form a capacitor having a capacitance that changes with a change in a distance between the first electrode structure and second electrode structure; a signal generator configured to apply an electrical signal at an input or at an output of the capacitor to induce a voltage transient response at the output of capacitor; and a diagnostic circuit configured to detect a fault in the capacitive sensor by measuring a time constant of the first voltage transient response and detecting the fault based on the time constant and based on whether the first electrical signal is the pull-in signal or the non-pull-in signal.

An example sensor includes a PCB mounted in an internal chamber of housing, wherein the PCB comprises calibration electrical contact points; a sealing grommet mounted in the internal chamber, wherein the sealing grommet comprises an axial hole aligned with the calibration electrical contact points, thereby providing access to the calibration electrical contact points of the PCB; a grommet plug disposed in the axial hole of the sealing grommet; a sensing element disposed in the housing and electrically-coupled to the PCB via an electrical connection; an encapsulant sealing material deposited on the sealing grommet and the grommet plug; and an external cable connected to the PCB and extending through the sealing grommet and through the encapsulant sealing material.

A position sensor, wherein the position sensor detects the movement of a target relative to a sine receiver coil and a cosine receiver coil and generates a corresponding sine signal and a corresponding cosine signal, and a method for error detection of a position sensor.

A position sensor, wherein the position sensor detects the movement of a target relative to a sine receiver coil and a cosine receiver coil and generates a corresponding sine signal and a corresponding cosine signal, and a method for error detection of a position sensor.

A test device and a calibration method thereof are disclosed. The test device for calibrating a test equipment, which is used to test a waterproof level of an electronic apparatus, comprises: two plates, which are pressed against each other with pressure, wherein minor gap between the two plates are used as water leakage path.

Recalibrating a micromechanical sensor. The sensor is assigned a signal processing device for correcting the sensor signal on the basis of at least one previously determined initial trim value that is selected such that, given a defined sensor excitation, a production-related deviation of the sensor signal from a target sensor signal is compensated. The method for recalibrating the sensor includes: applying a defined electrical test excitation signal to the sensor structure, acquiring the corresponding sensor response signal, ascertaining a trim correction value for the at least one initial trim value on the basis of a previously determined relation between the sensor response signal and the trim correction value, and determining at least one current trim value for correcting the sensor signal, the determination of the at least one current trim value taking place on the basis of the at least one initial trim value and the ascertained trim correction value.

Techniques are described with respect to addressing at least one sensor abnormality associated with a vehicle. An associated method includes receiving a first measurement value from a first sensor among a plurality of sensors associated with a vehicle and receiving a second measurement value from a second sensor among the plurality of sensors. The method further includes identifying at least one sensor abnormality based upon an inconsistency between the first measurement value and the second measurement value. In an embodiment, the at least one sensor abnormality results from at least one sensor defect, at least one vehicle security fault, or a combination thereof. The method further includes completing at least one predefined action to address the at least one sensor abnormality.

Techniques are described with respect to addressing at least one sensor abnormality associated with a vehicle. An associated method includes receiving a first measurement value from a first sensor among a plurality of sensors associated with a vehicle and receiving a second measurement value from a second sensor among the plurality of sensors. The method further includes identifying at least one sensor abnormality based upon an inconsistency between the first measurement value and the second measurement value. In an embodiment, the at least one sensor abnormality results from at least one sensor defect, at least one vehicle security fault, or a combination thereof. The method further includes completing at least one predefined action to address the at least one sensor abnormality.

In accordance with one or more embodiments herein, an agricultural machine (100) comprising sensors is provided. The agricultural machine (100) comprises a number of sensor programming devices (110), each comprising a unique set of sensor programming instructions, and is arranged to comprise one single corresponding sensor device (120) for each of the sensor programming devices (110). Each sensor programming device (110) is mounted in a programming position (115) adjacent a sensor position (125) for the corresponding sensor device (120), and each sensor device (120) is arranged to be mounted in the sensor position (125) and automatically receive the sensor programming instructions from the corresponding sensor programming device (110). This ensures that if a sensor device (120) is moved from one sensor position (125) to another sensor position (125), it automatically receives a different set of programming instructions.

In accordance with one or more embodiments herein, an agricultural machine (100) comprising sensors is provided. The agricultural machine (100) comprises a number of sensor programming devices (110), each comprising a unique set of sensor programming instructions, and is arranged to comprise one single corresponding sensor device (120) for each of the sensor programming devices (110). Each sensor programming device (110) is mounted in a programming position (115) adjacent a sensor position (125) for the corresponding sensor device (120), and each sensor device (120) is arranged to be mounted in the sensor position (125) and automatically receive the sensor programming instructions from the corresponding sensor programming device (110). This ensures that if a sensor device (120) is moved from one sensor position (125) to another sensor position (125), it automatically receives a different set of programming instructions.