Loaders TRIZ Cases

Remote-controlled locking elements pivot the cutter frame laterally, reducing manual effort during knife changes.

A pneumatic membrane inflates to slope the bin floor, directing residual grain toward the auger inlet.

Computing devices determine preferred collection paths using bale location and orientation data for mobile agricultural machines.

Segmented scraper guides pick-up tines circumferentially, preventing tine entanglement during reversal.

Servo-controlled pivoting extensions on trailer side walls enclose cargo fully while folding flat to maintain low platform height for easy loading.

Pivotable feed elements extend beyond a ramp to increase load flow capacity without enlarging the transfer station footprint.

An axial control element blocks crop flow to increase effective mass without reducing radial distance, resolving grain loss and performance trade-offs.

Segmenting the cladding from the control rod via a gap decouples structural loads, reducing mass and preventing stress on the cover during operation.

Autonomous baler steering aligns pickups via lateral offset hitches, eliminating tractor-induced crop compression and boosting baling efficiency.

Removable extension plates attach to feed assist roll cleats to prevent blockages in large volume windrows.

Hinged mounting pads absorb impact forces on uneven terrain, reducing wear and stress concentration on crop implement tines.

Replacing screw conveyors with a pneumatic system reduces fuel consumption and repair costs by eliminating moving parts subject to wear.

Segmented tine bases merge locking elements into the component, eliminating loose screws that contaminate feed and slowing repair.

A shield on a loader wagon front wall closes the infeed passage to contain harvested material during transport.

Segmented front-side and rear-side support members replace long single components to resolve the trade-off between cylinder rigidity and moving weight.

Segmented bottom floor assembly uses independent hydraulic linkages to vary channel depth, preventing clogs while maintaining consistent bale formation.

A windguard retainer holds the assembly in an elevated position to allow independent tine movement.

Flexible membrane elements tensioned between articulated expansion elements extend wall panels vertically, increasing volume without obstructing emptying.

A control system adjusts follower vehicle positions to align with lead vehicle chutes during continuous material transfer operations.

A pivoting device uses a transmission mechanism to pivot a crane gripper relative to the arm.

A drum conveyor third axle rotates freely on bearings to drive fingers via friction.

Sensor arrangement detects crop load forces on baler components to generate electrical signals for mass calculation.

An integrated fan and airflow channels enable upward grain aeration, eliminating the need for separate drying equipment.

Through-holes in coupling teeth expel trapped grain via spring force, preventing fouling during pivoting.

Air-permeable sack container enables drying of chopped plant runners while reducing heavy tank weight and pathogenic contamination risks.

Sensors measure speed and weight to trigger automated unloading, resolving the contradiction between operational efficiency and control system complexity.

Correlating near infrared content data with weight changes resolves fluctuating mass flow issues, enabling accurate yield mapping during harvesting.

Autonomous mowing vehicle transports cut plants to an intermediary harvest container for direct animal feeding.

Segmented curved blades rotate to alternate between cutting and sharpening positions, eliminating downtime while preserving gentle crop handling.

A push-off device uses a hydraulic cylinder tube as linear guidance for the push-off wall.

Computing devices determine preferred bale stacking locations and collection paths using location and orientation data.

A belt conveyor unloading system directs crop flow through a tube using a deflector to reduce energy consumption and prevent crop damage.

Resin-reinforced fabric walls replace rigid panels to increase storage volume without adding weight that causes soil compaction.

A cutting device preselection mechanism uses a hexagonal shaft with cam disks to pivot individual knives into position.

A detachable tractor front loader integrates a telescopic boom with pivotally mounted lift arms that converge in front of the engine compartment.

A support shell stabilizes double spring tines on harvesting machines by matching the drum radius, reducing vibrations that cause premature failure.

Integrated gearbox eliminates long driveshafts to improve grain cart stability.

A windguard assembly uses a segmented front roller and J-shaped tine bar to wrap around the central portion.

Arcuately spaced flaker wheels separate hay bales into intact flakes, preserving nutritional value while enabling controlled distribution.

An adjustable elevation folding auger positions the discharge end closer to receptacles, minimizing wind-related grain loss during unloading operations.

Segmented stiffening straps reinforce baler pre-cutter rotor tines, preventing bending from rocks while preserving weight and horsepower efficiency.

A windrow forming device uses a rigid frame with two pick-up mechanisms, one pivotably mounted to the other.

A crop pick-up rotor pivots tine carriers to adjust angular position based on drive shaft rotation direction.

Segmented tine attachment enables tool-free replacement while maintaining secure fixation, eliminating damage risks from complex disconnection procedures.

A pivotable loading body on a transfer cart chassis connects to detachable extension modules for field crop handling.

A pivotable unit collects stalk-like biomass laterally and feeds it into an intermediate storage buffer for continuous processing.

A displaceable lift truck uses a universal pick-up device to remove and stack individual slabs directly from warehouse shelves.

Hydraulic lift arms adjust to varying bale lengths, resolving the contradiction between stacking efficiency and device complexity.

Segmenting the body into two pivoting sections reduces surface damage while maintaining operator support.

Sliding guiding elements resolve clogging and irregular outfeed by enabling precise modulation of product density without increasing structural complexity.