Sum-and-difference signals suppress second-order angle errors from phase deviation.
Perpendicular magnetic field components let one sensor detect trigger and selection positions without contact wear in harsh conditions.
The case uses alternating electrode subsets to focus scans on detected inputs, reducing latency and motion artifacts in capacitive sensing.
Shared conductive traces and shielded end sections boost signal strength up to three times while reducing area and improving contamination tolerance.
An encoder arrangement uses two wheels with asymmetrically offset teeth to derive binary signals for detecting absolute angular position and rotational direction.
Dual-play shafts accommodate decentering to prevent prying and maintain detection accuracy in rotation sensors.
Level shifting excitation signals allows trigger circuits to detect amplitude abnormalities that zero crossing methods miss.
A detection electrode overlaps the rotor trajectory to measure capacitance, resolving absolute angle ambiguity in rotary sensors.
Dual-plane sense coils with multi-pass loops create sinusoidal modulation to improve measurement precision without increasing device complexity.
A rotary encoder monitoring device uses orthogonal polygon approximation to compare rotation signals against switching thresholds for real-time detection.
Charge equalization between sensors reduces external terminals while maintaining measurement precision through multiplexed ADCs.
A projecting alignment structure slideably engages the encoder hub to orient the index mark against the sensor, reducing assembly time and contamination risk.
An angle sensor arrangement corrects measurement signals using adaptive coefficients derived from variable amplification factors.
A detection device uses segmented sensor groups to calculate positional relationships between a mover and stator.
Positioning a multi-channel magnetic sensor IC at a specific twist angle and displacement relative to a ring magnet centerline.
Triangular measuring tracks on a linear position sensor scale provide fine resolution and reduce harmonic interference for accurate absolute positioning.
A z-height sensor compensates for mechanical tolerances and thermal changes, improving inductive position detection accuracy.
Integrated circuit evaluates detection signals from sensing coil loops to identify connection defects without accessing inaccessible star points.