Baling TRIZ Cases

A height-adjustable wrapping arm moves between positions to adapt to bale sizes while resting on the base frame.

A baler system estimates plunger load using drive element speed measurements.

An electric motor replaces belt drives to control wrap roller speed and direction, reducing mechanical complexity and calibration time.

Geometric displacement tensions the drive belt, eliminating idler wear and actuator force sensitivity.

A pivotally mounted conveying unit engages a receiving aperture to form bales and disengages to create an ejecting opening.

Baling chamber walls resist Poisson effect forces to produce rectangular bales at optimal transport densities.

A bale engagement roller actuator moves perpendicular to its axis to directly compress crop material within the chamber.

A cross-strapping device integrates lateral and longitudinal strapping mechanisms into a single unit for simultaneous package securing.

Dynamic floor positioning combined with an intermediary mat guides the leading edge of the wrap across the transition gap to prevent misalignment.

A freely rotating roller guides the press needle, eliminating direct friction with pinion teeth to reduce surface wear and maintain movement precision.

A controller adjusts the movable wall force to reduce propelling peaks, enabling high bale density without increasing drive torque.

Dynamic torque control maintains spool roller acceleration based on supply roll weight, ensuring wrap material enters the baling chamber without blockage.

Independent tensioning arms reduce belt slack during uneven bale expansion to prevent mistracking.

An access panel latch interlock mechanism prevents opening while the flywheel rotates.

A baler control system reduces hydraulic pressing pressure to clear infeed blockages without stopping the bale formation cycle.

A tractor power take-off control system coordinates with a baler using sensor data to automate engagement and disengagement.

A square baler uses a movable flow guide to direct blower air onto knotters.

Paired width reducing rollers dynamically adjust film width during wrapping to prevent fluttering and ensure smooth unwinding.

Adjustable rear wall and control surface store crop material during bale ejection, eliminating downtime and maintaining uniform density.

External guide rails and bearings constrain plunger movement, enabling quick alignment adjustments without disassembling the baler housing.

A symmetrical dog with two pointed ends pivots on a shuttle assembly to grip bales.

Segmented baler needle clamps enable side-to-side and fore-and-aft adjustments, resolving alignment issues without bending needles.

Camshaft moves clamping units between active and inactive states, reducing operational force for knife selection.

Parallel tracks in the rear door guide high-strength straps to bind bales, resolving tensile strength limits of twine while preventing strap twisting.

A bale press tying device uses a pivoting arm and gripper to secure torn lacing strands during operation.

Mounting sensors near structural reinforcements limits sidewall deformation under pressure, ensuring accurate friction and moisture readings.

Segmented crossbeams attach conveying tines to a slim drive shaft, reducing rotor weight while maintaining structural strength and adaptability.

Fluid channels in the baling chamber dissipate heat accumulation that reduces frictional force and causes crop overheating.

A variable length connecting link decouples plunger movement from crank arm rotation during crop accumulation phases.

An adjusting means shifts the power contact point on the pressing device to reduce controlling torque, easing supply reel replacement.

Estimates bale weight via moisture, density, and diameter sensors to eliminate expensive load cells and slope compensation.

Low surface energy skid plates on the feed pan minimize crop residue buildup, maintaining operational efficiency with wet crops.

External lubricant lines feed bearings from a central housing, avoiding internal clogging and lowering maintenance costs.

Flywheel-based auxiliary power system stores mechanical energy during low-load phases to reduce peak traction unit engine strain.

Dynamic side wall adjustment reduces clamping force during ejection then increases friction to brake the bale and prevent wrapping damage.

An adjustable cam track and control rod system define arbitrary feed rake motion trajectories for agricultural ram presses.

A gathering apparatus moves film edges laterally to wrap bales using a dedicated holding mechanism.

Rotating gripper assembly directs high-strength straps around bales, resolving twine removal difficulties and boosting tensile strength.

Sensor feedback determines dog engagement to prevent manual inspection and time loss.

A binding unit support roller locks rotation via a retaining mechanism to stabilize heavy material rolls during handling.

A control unit adjusts density door actuator speed using a fluid supply circuit with multiple flow sources to optimize bale chamber positioning.

External panel moves wrapping assembly outside harvester frame, eliminating manual lifting of heavy rolls during loading.

A bale wrapping control system adjusts dispensing rate and rotation speed to maintain a consistent stretch ratio.

Dual wrapping rolls with sensors measure cumulative film length to prevent bale disintegration and reduce material waste.

A square baler plunger pivots during reciprocation to compress crop material evenly.

A guide roller deflects the traction unit edge area laterally to maintain course alignment.

A baler assembly uses a pivoting gate and handler to transition between work and transport configurations.

A pivoting linkage assembly moves the rear shield and belt guide mechanism together to clear the bale ejection path.

Real-time weight sensing allows the control unit to adjust pressing pressure, resolving diameter-weight trade-offs in varying environmental conditions.

A continuous round baler accumulation chamber retains chopped forage material using a down-sloped floor conveyor and rotary chopper.