Wing Suspension Devices TRIZ Cases

A three-roller carriage uses concave bearing ramps to distribute weight and enable rocking motion along guide rails.

A locking device uses a hook mechanism and swing arm to secure a vehicle sliding door rail.

A pre-fixed scissor guide and rod unit simplifies window fitting installation by handling the mechanism as a single component.

A roller guide uses an offset contact surface on the rail base to shift the roller's contact point during movement.

A movable slider unit with a slide body accommodated in a mounting unit recess allows multi-directional movement and pivoting within predefined limits.

Dual trolley devices with horizontal and vertical wheels prevent large glass panels from tilting during rotation.

Overhead movement mechanism moves a door horizontally along an adjacent wall, eliminating the need for wall demolition during hinged door conversion.

A movable barrier anchor system uses a guide lock to displace a pin for secure lift cable attachment without bracket disassembly.

Thickened cable ends engage fastening plates to absorb high forces while maintaining minimal installation space between sash and frame.

A cam slide mechanism displaces a connecting bolt axially within a retaining rail, eliminating external buffers and reducing wear on link tracks.

Pre-assembled snap-in joints align automatically during closing movement, reducing manual holding effort.

A pivoting lever roller carrier uses a control incline to engage the safety cam during assembly.

An adjustable connecting arm with a movable pin reconfigures tilt turn window operation sequences, reducing production costs and storage needs.

Replacing sliding springs with a fixed projection prevents derailment while reducing assembly time.

A self-locking actuating mechanism uses a guide link and driver pin to prevent sash misalignment.

A displacement arrangement uses a rolling bearing on a control projection to guide window sash movement.

Nested rails allow the sliding door mechanism to remain concealed, resolving protrusion issues and supporting heavy doors in both directions.

Segmented hinge pins eliminate complex bending and multiple internal components, ensuring secure connection with fewer parts.

Spring suspension mechanisms reduce operational force and improve sliding precision in rail assemblies by absorbing inertia.

A sliding door support structure uses a center rail and lower rail to stabilize the door panel.

A vehicle roof bolt projection forms a complementary notch in the sliding track to ensure precise mechanical guidance.

Rotating element and cam guide adjust vertical bracing angle to compensate for sash torsion without varying connection strength.

A window sash security device uses a plastic deformation mechanism to absorb kinetic energy during detachment events.

A pretensioning device applies balancing force to the upper area of a single-leaf overhead door panel using a compression spring.

An eccentric pin engages a leaf spring in a wing bracket to adjust blocking force without modifying the sash rebate.

A lift-and-slide rail uses a ramp section to convert sliding motion into vertical movement, allowing the panel to lower automatically.

Replacing mechanical springs with hydraulic cylinders maintains consistent lifting force throughout the stroke, eliminating progressive unloading.

L-shaped brackets and spring-loaded brakes control door leaf motion to eliminate violent impacts during co-planar closure.

Segmented torsional spring balances sectional door weight via independent cable tensioning, reducing installation complexity and safety risks.

A rotary-translation opening device uses a jointed quadrilateral mechanism to enable sliding and rotary motion for coplanar wardrobe doors.

Elastic mounting isolates roller vibrations to reduce cabinet noise while self-service lubrication minimizes wear and assembly complexity.

An eccentric bolt adjusts the connecting rod stroke to prevent frame contact during lift sliding element operation.

A corner bearing uses non-matched internal and external threads to generate increased friction between the pivot pin and axle bolt.

Monolithic plate chassis merges rigid support and flexible arm to reduce design complexity while maintaining durability.

An extended cover plate conceals the movement gap and prevents dirt ingress while maintaining easy assembly access.

Oblong through-holes in the interface member decouple horizontal and vertical adjustments, resolving interference between gap dimensions during installation.

A sliding door guide device uses a bent wire connecting element to pivot and adjust the distance between the holder and guide rail.

A sliding window fitting uses a shift mechanism to adjust guide member position for improved sealing performance.

Vertical cover movement resolves large gaps between panels and restricts bidirectional sash travel in existing designs.

A movable supporting member engages adjacent panels to provide lateral stability without lower profile guide members.

A movable crossmember assembly transitions between raised and lowered positions along vehicle pillars.

A spring-loaded safety slide on a U-shaped roller carrier moves between release and securing positions during installation.

Mutually threading engagement elements lock large glass panels vertically during rotation, preventing the outward tilt caused by panel weight and size.

Non-rotating disc with reduced diameter section prevents unauthorized roller removal from running rail without extra activation steps.

A torsion spring winding tool joins two bars via a resilient connector, preventing accidental dropping while enabling easy bar orientation.

Pre-formed trim panels on a surface-mounted rail create a reception volume that retracts the door panel without wall destruction.

A bulkhead door bearing slide assembly guides the cargo vehicle door using transverse and vertical ball bearings.

A hinged adjustment lever rotates about a fixed axis to reposition the connecting part, reducing vertical dimensions and manufacturing complexity.

Mounting the center rail on the door allows a straight lower rail to secure internal vehicle space while maintaining smooth sliding operation.

Controlled thread failure dissipates kinetic energy from heavy sashes, preventing structural damage while maintaining securement until the wing stops.