Loaders TRIZ Cases

See how collapsible leg assemblies and lift bars enable large cooking grills to transition betw

See how movable doors on grain carts open to accommodate extended unloaders during breakthrough

See how a reusable metallic basket system merges harvesting, transport, and retail display to m

A flared semi-rigid loader moves stacked pipette tip platforms from packaging to a rack with secure alignment and less tip dislodging.

Multi-axis interfolding nests outer panels between adjacent sheets to add thickness and absorbency while reducing multi-sheet waste.

A bowed lid insert redirects hot drink flow through cooling channels to delay delivery, transfer heat, and reduce scalding risk.

In-situ sensing and predictive maps let mobile machines anticipate load shifting and spillage across a worksite for steadier automated control.

In-situ sensing and predictive maps link terrain, speed, moisture, and fill level to curb material movement, spillage, and waste.

Angled non-parallel antenna pairs on a bale handler widen RFID beam coverage, improving tag reads while reducing antenna contact risk.

Sensor-driven light colors and flash patterns show grain tank fill, machine identity, and pairing status to speed unloading in the field.

A spine-and-rib hopper with cross braces and aligned panels simplifies grain cart assembly while maintaining strength for heavy particulate loads.

Weight sensors guide material landing points during container unloading when dust disrupts optical fill estimation, improving control accuracy.

Weight-based fill profiles guide material landing points during automated unloading, maintaining accuracy when dust blocks optical estimation.

Context-aware cab displays show only process-relevant information, reducing operator overload and improving decisions in agricultural work machines.

A direct-view camera on the discharge chute removes mirror alignment errors and improves grain versus non-grain detection for disintegration control.

A mirrorless chute-mounted camera uses dual lighting and a durable viewing window to classify grain flow accurately while avoiding mirror alignment errors.

Torque sensing blocks auger folding during grain discharge, reducing spillage, drivetrain damage, and unloading downtime.

A movable tensioning strap and integrated conveying layout secure partial or uneven cargo loads faster with one operator.

A liftable hopper with augers and a bottom conveyor transfers fruit directly to trailers, keeping harvesting continuous with one operator.

A raised secondary carrier and pivoting transfer elements let one bale transporter stack four rows and double capacity within the same footprint.

Rotatable side rails and a movable rear ramp let the trailer switch between flat bed, hay bale cradle, and loading ramp modes.

An offset jointed auger extends side and forward discharge reach while folding compactly for transport and clearing tractor cabs.

Rotatable side rails and tilting ramp sections let one trailer switch between flatbed, hay bale cradle, and loading ramp modes.

A hydraulic side-discharge dump trailer lowers for loading and tilts for dumping yard waste, cutting manual lifting, injuries, and tick exposure.

Touch-selected fill targets let a harvester reposition its discharge spout automatically, improving cart filling precision without full manual takeover.

A foldable tank and coplanar chassis let a high-capacity grain cart shrink to road width limits while improving strength and transport ease.

Sensors track the receiving vehicle and trigger alerts or speed control when alignment is compromised, preventing forage spillage.

A real-time crop load marketplace and autonomous trailer handoff reduce grain elevator transit and unloading delays during harvest.

Visual and audio guidance from a commodity cart controller helps fill vehicles align faster for quicker, more precise material transfer.

Two wide-angle cameras on a crop transfer arm create stereo views to align receiving vehicles and improve grain bin filling in dust or at night.

Operator-selected fill zones let the harvester automatically reposition the spout and flap to reduce spillage while maintaining efficient trailer filling.

A rotating conveyor sidewall cuts startup resistance and helps a tilting harvest cart unload safely into high-sidewall road vehicles.

A controller-guided chute position helps operators align fill vehicles quickly and accurately, reducing loading delays in agricultural operations.

Radar and camera data identify the receiving vehicle and automate conveyor-to-bin alignment for grain transfer in dust or low light.

Two wide-angle cameras on opposite sides of the crop transfer arm enable automated vehicle alignment and more even grain bin filling in dust or at night.

Multiple baling chambers and synchronized drives raise baling capacity while preserving knotter reliability and consistent bale size.

Load cells plus an IMU correct pitch, roll, and motion noise with Kalman filtering for more accurate bin weight estimates on rough ground.

Multiple bale-forming chambers and stuffer chutes let one square baler process a single windrow in parallel while keeping bale size and knotting consistent.

A pivoting deck, conforming ramp, and adjustable side rails let one trailer carry round or rectangular bales without ramp interference.

A reconfigurable dual auger lets grain carts switch unloading sides with shared parts, improving operator comfort and reducing damage risk.

An overrunning clutch shuts down the baler pickup during overload, allowing safe manual reel clearing without automatic re-engagement.

Advance nudge alerts show direction and timing before vehicle repositioning, helping operators avoid misalignment and material spillage.

A staged navigation approach combines low-cost GNSS with onboard sensors to refine vehicle path planning for accurate container unloading.

Precalculated follower paths use equipment and kinematic models to keep grain carts aligned with combines through curves and obstacles.

A remotely positioned drone sensor avoids debris blockage and limited onboard views to improve attribute detection for agricultural machine control.

Camera and machine learning detect a receiving vehicle and guide harvester unloading alignment to cut operator effort and grain spillage.

Obstacle-aware path planning keeps a harvester and transfer vehicle aligned during unloading while avoiding collisions and spillage.

Visual nudge warnings show direction and progress of vehicle position changes during unloading, helping maintain spout alignment and reduce spillage.

Active hydraulic damping uses sensors and proportional valves to steady a harvester transfer spout, improving outlet alignment and reducing crop loss.

Sensors and a proportional hydraulic valve actively damp harvester unloading spout vibration, improving discharge alignment and reducing crop loss.

Radar-based harvester tracking helps receiving vehicles maintain alignment and fill grain bins evenly in dust, darkness, and other low-visibility conditions.

Weight-aware UAV control enables mid-air pickup of harvested crop packages from farm machines without landing infrastructure.

Weight and position data let a crop transport UAV decide pickup feasibility and move harvested packages without ground vehicles or landing.

A kinematic path generator predicts leader motion to keep follower vehicles accurately positioned with smoother steering and less discomfort.

Predictive crop maps guide harvester and receiving vehicle routes to separate or mix material by moisture and quality, cutting drying cost.

A companion vehicle adds clearer lidar views to fuse with onboard sensing, improving obstacle detection in dusty, crop-obscured off-road navigation.

Maps rake-formed swaths from vehicle reference-point data, enabling accurate swath visualization and bale path planning.

Intermediary hooking forks engage spreader bars to prevent slippage during excavator movement, resolving safety risks from direct bucket contact.

A variable speed drive system dynamically adjusts the rotational speed of a round baler pickup reel to reduce fuel consumption and improve bale shape control.

Segmented tine assemblies pivot independently to avoid debris, resolving the trade-off between crop collection efficiency and component reliability.

Pivoting spinner bodies dynamically align with varying bale axial lengths, preventing binding and ensuring even hay distribution.