Loaders TRIZ Cases

Harvest and unloading zones guide receiving machine positioning to cut harvester downtime, reduce grain spillage, and protect crop timing.

A sewn belt connector replaces noisy metal fittings, making endless conveyor belts easier to repair while extending service life.

Multiple stitched seam connections join conveyor belt ends with lower noise, durable tension transfer, and faster replacement of worn connector parts.

GPS-based position sharing estimates transport vehicle fill levels and predicts handover timing to cut empty trips and harvester wait times.

Crop maps and transfer thresholds guide harvester and receiving machine routes to prevent moisture mixing, cut waste, and keep harvests on schedule.

A two-stage bumper lets an autonomous mower slow for plant contact but stop for hard obstacles, reducing false stalls while maintaining safety.

Obstacle and turn data automatically adjust the auger, spout, and flap to keep unloading aligned, reducing grain loss and operator fatigue.

Geotagged windrow quantity data lets collection vehicles vary speed by field section, reducing bulldozing, breakage, and crop loss.

Field-location crop data guides tractor speed changes by windrow density, reducing breaking, bulldozing, and harvest loss.

A hollow harvester frame stores hydraulic oil in partitioned chambers to limit foam, prevent depletion, and save installation space.

A dual bumper detector slows an autonomous mower in plants but stops for hard obstacles, avoiding false stalls without weakening safety.

Coordinated harvester and receiving vehicle control maintains safe spacing for unloading during breakthrough passes without crop damage or delays.

Switchable downforce accumulators tune header float response for rotary and draper cutter heads, improving ground contact and reducing mud plugging.

A nested cross-bolt and sleeve retainer cuts lateral projection, enabling closer knife spacing and shorter harvest cutting length.

An articulated support and hydraulic linkage keeps the windrow merger guiding device stable on uneven ground while enabling transport lifting.

Pre-nudge operator alerts help align leading and following vehicles during unloading, reducing spillage and operator control errors.

Uses auger flow signals and cart dimensions to automate harvester unloading without cameras, supporting legacy equipment and dusty conditions.

A companion cart or drone fuses lidar and onboard sensor data to detect obstacles through dust and crop obstruction for safer off-road vehicles.

A regenerative valve raises an empty bale handler while gravity lowers it, cutting hydraulic peak power and heat rejection.

Camera and ML-based vehicle detection guides harvester unloading alignment, reducing operator burden and improving crop transfer accuracy.

Coordinates a harvester and receiving vehicle so unloading can continue during breakthrough passes without running over unharvested crops.

Camera-based guidance tracks harvester position to align the receiving vehicle during unloading, reducing operator workload and fill errors.