Uses carrier inertial data and equipment accelerometers to auto-align on-board orientation after reassembly without mechanical calibration.
Multiple mounting seats on a movable vertical rod expand ADAS calibration height range, reducing support changes across vehicle setups.
Adaptive trajectory segments help vehicles search for better navigation conditions when poor visibility disrupts obstacle detection and orientation.
A threaded, foldable bracket cuts ADAS calibration rig size for easier transport and assembly while preserving sensor stability and accuracy.
Comparator-based pixel digitization plus a serial binary adder cuts power and circuit size while preserving fast frame processing and image quality.
A spring-loaded clamping assembly locks the bracket slider to prevent free fall while allowing quick height adjustment for radar calibration.
A dual-loop regulator combines ADC/DAC precision control with fast analog response to deliver stable, noise-isolated voltages without external regulators.
Complementary current mirrors cancel DC currents and preserve base-emitter voltage matching for compact, accurate low-voltage LIDAR conversion.
A cam-slide suspension lets forklift scanners be adjusted manually with about 0.1° accuracy, avoiding costly servomotors and coarse clamping.
Closed-loop frequency adjustment uses mirror feedback to hold amplitude gain and keep LiDAR scanning angles stable despite resonance drift.
A focused light beam and collapsible crossbeam align vehicle fixtures accurately while reducing manual effort and storage space.
Embedded damping material and overmolding decouple array sensors from vehicle vibration, improving low-frequency sensitivity on UUVs.
A monopod with auxiliary legs, tilt sensing, and wheel rotation tracking simplifies setup while keeping surveying measurements stable and accurate.
Complementary N- and P-type current mirrors cancel base-emitter offset errors, enabling compact low-voltage V-I conversion with low power.
An aerostat lifts the antenna above ground while a UAS maps 3D far-field patterns, reducing ground effects and chamber complexity.