A backup in-vehicle control mode keeps the traveling machine body movable when the remote operation device fails or loses power.
Longitudinal top-mounted hydrogen cylinders improve overturn protection, reduce leakage risk, and preserve tool space in autonomous farm vehicles.
Feedback control returns the turning motor to its target speed during straight travel, preventing unintended turning in a work vehicle.
Condensed exhaust water is routed into a dump box and emptied by gravity, reducing fog and visibility hazards around hydrogen vehicles.
By splitting irregular farm fields into inner and outer work regions, the route plan cuts overlap and improves autonomous vehicle coverage.
Hybrid aramid and PET or nylon crown layers cut agricultural tire weight while preserving endurance, traction, and low-pressure service life.
A coupler plate and handle let large wheel lock-ring sections separate for safer one-person removal while protecting fasteners.
Camera-based fill-level detection and map-based vehicle tracking help drivers reach the right harvester on time, cutting waiting and fuel waste.
A ring-gear brake between the planet carrier and output element cuts circumferential speed, absorbs braking energy, and serves as both holding and operating brake.
A joystick-integrated ECU and telematics module bring digital control, sensor feedback, and retrofit scalability to tractor-coupled farm machinery.
Inclined tread block leading faces at 50-75° boost soft-ground traction while preserving wear resistance and road travel capability.
An articulated link shifts forward loads from telescopic axle sliders, reducing wear while preserving adjustable wheel spacing and stability.
Current-sensor calibration detects steering clearance and presets a compensation angle to improve autonomous agricultural machine accuracy.
Sensor feedback detects wheel slip in saturated fields and adjusts hydraulic motor displacement to sustain traction and rolling friction.