Loaders TRIZ Cases

A bale fork clamps and cuts packaging using sliding teeth and comb prongs to automate material handling.

Variable speed control aligns conveyor movement with ground travel to prevent bale damage and ensure consistent positioning.

Real-time moisture sensing and predictive mapping guide selective preservative application, reducing waste while preventing crop spoilage.

Alternating rotation of a conveyor feed shoulder prevents product accumulation and jamming in the transit zone during harvesting.

A pivotable upper conveyor section adjusts discharge elevation on a grain cart.

Variable torque system overcomes material blockages to maintain reliable cutting operations.

Radially arranged fingers on a secondary feed roll urge crop material into the bale chamber inlet, reducing clogging risk in wide round balers.

Telescoping arches lower a cradle for independent loading, reducing tractor dependency and minimizing hay waste from moisture exposure.

Placing a non-magnetizable metal detector upstream of the pick-up drum detects foreign bodies before they damage cutting tools.

Contour cuts in the drum shell create integrated support bearings for conveying tines, removing retaining plates and reducing device weight.

Dynamic tilting positions control discharge flow, eliminating spillage while filling transfer trucks with a single load.

Clamping member secures tine support elements to the shaft, reducing exchange time while maintaining fixation security.

Friction-based decortication and multi-stage screening separate bast fibers from hurds while preventing dust generation.

Window-like drum openings accept tine pockets clamped by pressure plates, preventing crop clogging and reducing maintenance costs.

A grain cart auger conveyor features a skewed discharge spout that directs material laterally across the trailer width.

Segmented rotor stripper with curved hook section prevents crop entanglement on baler shafts.

A rotating tine guide supports tines outside pickup band slots, preventing deflection and crossover damage during crop gathering.

A mechanical overload protection system separates a harvester auxiliary drive from its power source to prevent component damage.

Dynamic rake arms adjust position and angle to create uniform snake line windrows, resolving uneven loading issues for balers.

Inertial sensors detect pick-up acceleration to adjust position, preventing crop intake blockage from reduced opening angles during steering.

A tine mounting bracket flange contacts the coiled spring section to inhibit lateral deflection.

Curved crank arms statically balance the shaft, eliminating welding weak spots and premature failure from torsion forces.

Control system prevents bale rolling damage by detecting slope and adjusting release location on stable terrain.

Support wheel brackets mount warning panels on a windrow pickup, eliminating manual sign attachment during transport.

Movable support structures guide root crops within bunker harvesters, eliminating damage and loss during the emptying process.

A transport device uses a conveyor unit and cage-like superstructure to move round bales.

A windguard mechanism uses a movable plate sliding over a fixed member to form a continuous guarding surface for agricultural crop handling.

Segmented shafts guided by an elastic yoke adapt to ground contours, reducing dirt ingress and raking losses.

Load-sensing hydraulic actuator adjusts crop channel width to prevent clogging in irregular harvest layers.

A fluffer assembly aerates cut crop using tines to distribute material evenly across the field.

A sliding knife unit moves laterally on guide rails to expose counter-knives, resolving jam clearance difficulties in round balers.

A bale spear device integrates a locking mechanism to secure spears within the frame structure.

Independent liquid recovery tanks and fluid connections separate juice from grape solids during transport, reducing oxidation without adding drive complexity.

A grain cart control assembly monitors PTO speed to autonomously regulate unloading auger gate position.

Control arrangement uses inclination sensors to align bale axis with slope, preventing rolling damage and ensuring safe deposition.

Counter-rotating rollers with auger flightings guide crop material inward to prevent blockages during high volume processing.

A concave tine guide ridge forces bent tines into a vertical path, preventing interference with adjacent tines and reducing breakage risk.

Pivoting side walls expand grain tank volume laterally to maintain low center of gravity.

Segmented windguard roller with independently moveable tines eliminates dead spaces to ensure consistent crop compaction and uniform bale formation.

A banknote bundle processing system forms intermediate piles and ejects bundles one-by-one for spaced conveyance.

A windrow chute roller moves crop material from the leading edge to the trailing edge during rotation.

Relocating drive gears inside the working width eliminates gaps between adjacent pickup units, ensuring complete crop collection without missed residues.

Dynamic swing frame mechanism retracts metering rollers to lower startup resistance and enables precise crop load monitoring.

A control system directs product flow from a conveyor outlet to specific storage zones based on real-time position data.

Hydraulic brushes and a conveyor belt clean hay bales on a trailer, reducing labor intensity and improving safety during handling.

Gussets connect the inner tube flange to support assembly weight and prevent grain unloading sagging.

An inclined stop ramp mediates product transfer, preventing damage while maintaining continuous conveyor speed.

Dual cameras form stereo images to locate the receiving vehicle, resolving visibility bottlenecks that cause grain spillage during unloading operations.

Segmented top and bottom frames lower independently to disengage stuck knives, eliminating manual unplugging.