Endless Track Vehicles TRIZ Cases

Segmented support and decoupling components manage track tension and alignment, reducing labor intensity and safety risks during maintenance.

Integrated flanges distribute pretensioning forces across the rubber belt to reduce wear on individual teeth and lower noise levels.

Embedded aramid or carbon fiber tension wraps in rubber crawler chains boost tensile strength, preventing cracks and breakage under high loads.

An angled leg fractures hardpack snow to cool the engine while a coil resists deformation during reverse travel.

A crawler chassis suspension uses a pivoting element to adapt the track configuration.

Segmented track assemblies mount directly to vehicle tires via a universal frame, eliminating wheel removal costs while maintaining engagement reliability.

A crawler belt link design extends rail surface portions longitudinally to reduce contact pressure and suppress wear on the bushing hole area.

A vehicle track system uses a large diameter sprocket wheel and low tension to reduce rolling resistance on hard surfaces.

A chain repair device uses a closed roller conveyor circuit to transport track chains between workstations for efficient assembly and disassembly.

An asymmetric undulating idler wheel perimeter distributes contact pressure across track links, preventing localized scallop formation and reducing vibration.

Segmented suction cups with compliant mounting resolve uneven surface adhesion trade-offs while reducing seal wear during traversal.

A dual-track vehicle assembly uses rotating drivers and multiple paddles to maximize ground contact.

A wireless pressure sensor detects fluid pressure within a track tensioning actuator to monitor track tension and prevent disengagement.

A track coupling pin with a larger central diameter and integrated sealing means confines fluid lubricant between the pin and bushing.

Clearance notches in monolithic slide rails prevent reverse immobilization while maintaining floatation.

Embedded lateral rods positioned inwardly of contact surfaces reduce weight and noise while enabling side-hilling flexibility.

A wear sensor roller mounted to a carrier roller axle contacts track pins to measure link wear.

Replacing mechanical caps with an integrated sealing element prevents snow penetration and rust while reducing component complexity.

A treaded traction device uses a biasing assembly and tensioning mechanism to adjust orientation and maintain terrain contact.

Offset segments pivot the wheel assembly to reduce lateral wear and absorb impact forces on uneven terrain.

Segmented base bodies with upward arching ribs absorb lateral forces to prevent slipping while anchoring securely without chassis contact.

Segmented planar track links reduce manufacturing costs while maintaining structural integrity and performance.

A crawler track drive uses hydro-pneumatic damping elements and a controlled throttle device to adjust flow resistance during operation.

Angled ground engaging features on an elongate body improve traction on slippery surfaces without complex welding.

Hydraulic pull rods adjust the frame orientation on an unmanned agricultural vehicle to maintain a horizontal platform.

A urethane hybrid agricultural vehicle track embeds reinforcement material in guide-drive lugs to enhance torque transfer and traction.

Segmented lugs surrounding embedded cores compact snow between tracks, resolving lateral slip by improving packing performance and driving force transmission.

Segmented suspension plate moves vertically to maintain roller contact with the track, preventing detracking and energy loss during operation.

Bottom voids segment the track pad body into independent zones, preventing crack propagation while maintaining structural integrity under heavy loads.

Automated tensioning eliminates manual adjustment errors and reduces maintenance time while preventing chain disengagement.

Decoupling kinematics in crawler ceiling units enables accurate positioning on complex modular structures.

Offset front and rear idler wheels create unsupported lateral track zones, improving slope handling by balancing stability and maneuverability.

A track link bolt features a recessed section that houses the wear sensing device to facilitate easy mounting and removal.

Movable idler wheels along the longitudinal axis maintain ground contact, reducing ground pressure on uneven terrain.

A rear track assembly uses transverse reinforcement rods aligned with traction lugs to enhance vehicle acceleration and traction.

Mesh arrays on the track plate increase contact surface area, reducing shear separation of the polymer pad under heavy torsional stresses.

An articulated arm rotates rearward of the center of gravity to lift the chassis, resolving complexity trade-offs during obstacle ascent.

Split master link design uses spacers to distribute clamping force evenly, preventing bolt fracture during crawler belt assembly.

Segmented bosses and arcuate flanges prevent base deflection, ensuring stud stability under load.

Hollow lug cavities and embedded reinforcement rods lower drive track weight, improving acceleration on soft snow.

Segmented S-shaped lugs balance traction capability against surface damage by distributing pressure evenly across the ground.

An endless steel belt with engagement holes embeds in a rubber main body, transferring projection loads to reduce weight while preventing stretching.

Elastic pegs in radial channels eliminate axial play, reducing wear and enabling manual assembly of heavy-duty crawler tracks.

A vehicle track system uses a larger sprocket and lower tension to reduce rolling resistance.

Positioning arms attach brushes to vehicle tracks, removing clogging dirt and mud to maintain traction without stopping the vehicle.

Movable idler wheels and shorter traction lugs reduce heat buildup and peak loads, preventing premature track failure during high-speed road travel.

Resilient members allow the axle to pivot, reducing track wear and uneven load distribution on laterally uneven surfaces.