Mowers TRIZ Cases

A cylindrical mount with a concave protrusion and fastener holes stabilizes mated connectors on oscillating actuators to limit wear and malfunction.

Spaced positive and negative PDU housings with central evaporators and ducts improve battery cooling in electric work vehicles.

Operational data triggers airflow-based sensor cleaning in harvesting machines to clear blockages, preserve reading accuracy, and cut downtime.

Built-in display and manual controls let technicians update work vehicle parameters directly, avoiding external PCs and reducing update errors.

Maintenance settings are updated directly through the vehicle display and controls, avoiding external PCs and reducing service errors.

Resilient male and female battery contacts deform to create face-to-face contact, cutting resistance and resistive loss at high current.

A compact horizontal-shaft electric powerhead pairs a lithium-ion battery and motor to replace small engines with lower emissions and similar torque.

Detection modes change by harvester position and reaped-land mapping to avoid crop false positives while maintaining field object detection.

A forward camera view restores the blind area blocked by the chopper discharge device, helping drivers track harvest flow and crop row alignment.

A curved intermediate frame houses converters, pumps, manifolds, and line routing to protect components while reducing chassis weight and complexity.

A movable cleaning member wipes debris from a self-propelled robot camera lens, preserving vision for automated operation without manual cleaning.

An intermediate waiting position lets an autonomous mower pause for user input before vehicle return, improving travel safety and labor efficiency.

A multi-region manual switch lets one control circuit start, stop, and change motor control modes without adding interface complexity.

An intermediate chassis frame creates protected interior space for coolant, hydraulic, and electrical components while supporting the rear vehicle structure.

An offset detection arm amplifies small control-lever motion, using more of the potentiometer range for more accurate position sensing.

Optical sensors and hydraulic row units track corn height in real time to remove tassels precisely while reducing labor and yield loss.

A parallel-axis detection arm amplifies manual lever motion, using more potentiometer range for accurate position sensing.

Removable deck baffles create blade enclosures for mulching, then detach easily to switch a multi-blade mower to discharging mode.

A lift-stop positioning feature aligns the battery carrier with vehicle guides, cutting manual height adjustment and installation effort.

An angled fold-up ladder improves cab access and visibility while keeping agricultural vehicle width manageable on narrow roadways.

Predictive yield maps combine in-situ sensing with field data to auto-adjust harvester settings across varying yield zones and reduce grain loss.

Shows threshing and cleaning settings against crop-specific limits so operators can spot incorrect combine adjustments quickly.

A rod-shaped cable holder pre-mounts and guides cables inside a tubular part, simplifying assembly while protecting against damage.

Selective cab wiper control sets blade positions and intervals to keep key windows clear while reducing noise and operator distraction.

Automatic lever neutral calibration uses sensor feedback and stored position data to cut setup time and offset wear in zero-turn mowers.

Travel levers trigger the parking brake through branching paths, preventing missed brake engagement and keeping an unattended work vehicle secure.

Crop-contact elastomers detect row deviation and feed steering correction to keep high stem harvesters aligned with less driver adjustment.

A rotating, latch-secured lawnmower seat enables tool-free removal for fast access to batteries, motors, and wiring under the seat.

Branch-path travel lever positions trigger the parking brake automatically, helping self-driving work vehicles avoid missed brake engagement.

Field data and obstacle detection split farmland into coordinated harvester zones and dynamically adjust routes to avoid collisions.

In-situ sensing and predictive field maps let harvesters anticipate crop and terrain changes to stabilize feed rate and header height.

A control-value feedback check verifies that safety-critical alerts remain visible on the cab display and triggers an emergency routine if not.

An elastic member absorbs impact and deflects the robot’s working structure, reducing collision damage and easing replacement.

Position feedback predicts terrain changes and adjusts hydraulic lift pressure to keep header ground force stable and reduce wear.

Oblique wheel lugs and an offset prime mover improve mower stability on slopes while reducing the need to raise the machine for maintenance.

A split bonnet and coordinated engine-radiator fan airflow prevent hot air stagnation while keeping the radiator accessible for maintenance.