Baling TRIZ Cases

An actuator-driven cutting assembly changes slice thickness during operation, improving food processor versatility without stopping the motor.

A magnet and internal sensor verify container closure in a food cutting machine, replacing wear-prone switches and reducing accident risk.

A movable feed tube lid enlarges food loading for bigger items, then resets to a sealed safe state when the motor starts.

A removable feed tube, extensible shaft, and double-sided discs increase processing versatility without adding storage space or cost.

Floor force and rotor speed sensing give baler operators real-time hay intake feedback to prevent clogging and maintain efficient throughput.

A two-link baler door lifts vertically to keep the twine box enclosed from dust while giving safer operator access.

Sensors verify whether ground tools are still in soil and block speed or steering actions during transport and headland turns.

Camera-based windrow tracking learns from prior harvesting passes to guide balers accurately when GPS cannot follow wind-displaced crop rows.

Automated dual clutch stop control locks the tractor at preset speed to trigger bale wrapping with less lag, brake use, and manual intervention.

Joining belt ends directly in the roller system with stitching or adhesive cuts endless belt assembly time while maintaining strong, durable connections.

Measured crop weight or moisture is linked to baler position to update field maps and improve baling efficiency and later field management.

Dynamic clutch control matches tractor input power to baler flywheel demand, preventing engine stalling and improving bale formation.

A two-speed gear assembly lets a baler spin up a heavy flywheel with lower startup torque, reducing engine stall risk and preserving fuel efficiency.

Harvester travel data maps only true windrows, enabling tractor guidance paths that cut baling time, distance, and manual path setup.

Terrain-aware control moves the baling vehicle to a stable ejection point, drops the round bale, and returns to resume work.

Switchable hydraulic supply modes let baler density doors apply high or low pressure, enabling variable bale density without complex electronics.

A displaceable geared collar adds a low-start ratio for baler flywheel acceleration, easing PTO clutch load before shifting to operating speed.

GNSS steering keeps an in-line bale wrapper on a selected route, producing straight or shaped bale columns with more uniform spacing.

Bale size feedback triggers tractor braking and baler speed adjustment before wrapping, reducing hold time and boosting baling output.

Dual-acting cylinders switch between piston-only and dual-side fluid supply so baler density doors can form bales across varying crop densities.

An electrically switched hydraulic manifold lets a baler run multiple functions through two tractor remotes, cutting manual line changes.

Pressure-sensed hydraulic floor sections open the crop feeding channel to clear clogs while preserving bale formation during harvesting.

Coordinated brake-roller control matches wrap-roll speed to each baling phase, preventing entanglement and enabling clean material separation.

Location and crop parameter sensing update a field map with moisture and density distribution to improve baling efficiency and field management.

Axial clutch switching stores and releases torque to absorb power peaks, reduce drivetrain vibration, and smooth uneven agricultural loads.

Synchronized brake and cutting action controls wrapping roller tension in round balers to prevent entanglement, tearing, and miscuts.

Sensors and automated vehicle maneuvering place round bales at terrain-aware ejection points to reduce rolling and preserve field workflow.

A dog clutch paired with an overrunning clutch handles baler torque reversal without a permanent friction brake, cutting energy loss.

Scissors linkages keep the movable platen aligned while recompressing round bales into square bales for denser truck loading.

A staged hydraulic fluid path speeds baler tailgate opening for quicker bale ejection while limiting bale wrap damage and system complexity.

A slow-release locking mechanism and cylinder assembly keep bale eject doors controlled under residual bale pressure, preventing unsafe opening and damage.

An adjustable accumulator buffers crop material so harvesting can continue while the baling system prepares and deposits bales.

A dual-notch twine holder varies clamping force to form and release loop knots, enabling higher bale compression without twine breakage.

Selectively displaceable panels and deflectors guide bale drop through chute windows to control ground orientation and improve collection efficiency.

Angled support surfaces, a displacement member, and an impeller turn multi-row bale output into single-file discharge for faster collection.

Sensors identify bale wrap type so the baler can brake segmented film or cut continuous film for faster wrapping and secure bale retention.

Rotating augers compact cotton to raise accumulator capacity, while sensing and pivot control prevent bridging during unloading.

Axial lift markings aligned to the roll’s center of gravity help baler wrap rolls avoid tilting and enable stable loading.

Wireless bale length adjustment lets operators change knotter trigger thresholds remotely while sensor feedback maintains bale formation control.

An intermediate storage conveyor lets a round baler keep taking in harvested material during binding and ejection, cutting downtime and energy waste.

A tractor-linked heat exchanger cools baler hydraulic fluid without direct fluid mixing, reducing cooler complexity, contamination, and damage risk.

Multiple crop constituent sensors guide bale density, wrap tension, and preservative control to improve feeding value and bale stability.

A pre-positioned wrapping table and brake roller guide round bales from chamber to wrapper without sticking or overshooting on slopes.

Constituent sensors track dry matter, protein, starch, fiber, and oil so balers can adjust density, wrap tension, and preservative use.

Automatic slope detection switches the wrapping table position to keep round bales stable during uphill transfer and wrapping.

A flexible curtain, conditioner element, and grip member keep slippery film tongues aligned, preventing curl and feed failure in round balers.

A parallel power-split drive train uses side gears and a flywheel to deliver high ram torque while cutting weight and redesign effort.

Independent tying units let each baler chamber knot bales at different times, handling uneven crop feed while preserving bale quality.

A braced bale discharge tipper uses ground support elements and spacers to control side unloading and avoid damage on uneven terrain.

A coupled support element engages the ground only during bale ejection, enabling stable round bale tipping with one actuator and less damage risk.

Actuator-controlled knife retraction and frame positioning prevent rotor strikes and knife jamming during harvester maintenance.

Embedded adhesive activated by heat, brush, or fluid bonds overlapping wrap layers to hold bale shape without relying on netting or string.

Continuous tank monitoring and moisture-based dosing help balers avoid preservative shortages, reduce waste, and maintain bale quality.

Acoustic sensing tracks crop pickup and bale pressing phases, helping tractor-baler combinations detect blockages and adjust power and speed.

Multiple operators are needed for manual bale wrap handling; a sliding arm, clamp, and winch enable single-operator storage transfer.

A control unit compares baler energy consumption with PTO demand and adjusts combination speed to prevent overload and underload.