Paired magnetic sensors detect a moving magnet's position without mechanical contact, eliminating wear and extending lifespan.
Segmented driver and sensor coils with opposite switching directions generate differential voltage signals for precise inductive detection.
A rotary sensor arrangement uses symmetrically paired magnetic field sensors to generate sum and difference values for evaluation.
A magnetic sensor system tracks relative displacement between an amputee residuum and prosthetic socket liner.
Cascaded permanent magnets encode position via unique magnetic fields, extending sensor dynamic range in harsh environments.
Moving amplifiers after output terminals and using RC filters eliminates parasitic pulses, reducing measurement errors in high-speed industrial automation.
An encoder scale with an inclined magnet pair enables magnetic field sensors to detect absolute position through varying field angles.
Intermediary radial stop directs reaction forces into the machine part, eliminating eccentricity errors during mounting.
Segmented receiver conductor traces on a multi-layer circuit board prevent short circuits while maintaining precise angular position measurement.
Semicircular bridge circuits arrange serpentine magnetoresistive elements to reduce field differences and improve position detection accuracy.
A resonant phase sensing system measures displacement via periodic phase information to detect user interactions.
A linear variable differential transformer uses a tertiary winding to provide high-resolution position output within a standard envelope.
A lens array generates overlapping sine wave signals to calculate relative displacement in optical encoders.
A low-dielectric constant area in the substrate reduces capacitive coupling between electrodes, maintaining detection precision across larger movement ranges.
Variable time receive electrode sensing current integration windows identify defective electrodes in capacitive touch panels.