Segmenting the magnet cross-section creates distinct magnetic zones, allowing one sensor to measure large angular ranges without increasing device complexity.
A point light source paired with distinct incremental and absolute signal arrays uses differential distances to manage optical signals.
An integrated magnet and planar coil generate electrical energy for a rotary encoder, eliminating wiring needs and reducing device complexity.
Magnetoresistive sensors detect elliptical Lissajous curves from dual-pole magnetic rulers to determine absolute position.
Intermixed sensor cells enable differential signal comparison to identify intact measurement units within automotive safety arrays.
A magnetic sensor uses a recessed conductor to simplify assembly.
A resonant rotor with capacitive filtering enhances signal strength in an inductive position sensor.
Multi-phase electrodes and a third electrode detect movable element location, resolving complexity issues from increased movement ranges.
A position encoder calculates extrapolated data from previous readings to maintain measurement continuity.
Segmented magnetic poles extend across connection areas to maintain field homogeneity, resolving installation complexity and environmental susceptibility.
Three-element flux coupling sensors cancel stray field influences to enable offset invariant position determination.
Separate scanning means for reference and incremental signals prevent Moiré torsion errors in position measuring devices.
Asymmetric offset loops generate out-of-phase harmonics that destructively interfere, improving angular position accuracy without external filtering.
Shielded conductor layers intercept feedthrough stray fields in multi-layer detectors, resolving signal strength and contamination resistance trade-offs.
An encoder uses a position estimator and storage to process data via digital filters, reducing time delay and improving control accuracy.
An encoder uses an IIR filter unit to generate second positional information from detected signals.
Stacked sensor boards with active transmit coils compensate for signal damping to maintain accurate position measurement.
A magnetic marker element with a repeating pattern detects movable switching element movement, resolving installation complexity in hard-to-reach areas.
A position detector generates periodic and abnormality signals to identify surface defects.
Segmenting electromagnetic coils and connecting segments via bridge wires reduces thickness and wiring complexity compared to prior art flexible circuit boards.
A magnetic position sensor uses perpendicular multi-pole magnet strips to determine spatial coordinates through orthogonal field components.
Parallel coils lower equivalent inductance, enabling higher capacitance to filter harmonics and reduce emissions without signal attenuation.
Segmented sheet coils with inverted phases cancel excess magnetic flux, enabling miniaturization while maintaining detection accuracy.
A position sensor evaluation device maps adjacent bit patterns to specific position values using a configurable mapping module.
An eccentric magnetic sensor detects a diametrally polarized permanent magnet on a rotating body, resolving poor sensitivity in small oscillation applications.