Recessed cross-member sections and through-holes cut seat frame weight while preserving stiffness and improving sitting comfort.
A bonded C-shaped bracket on the seat side frame avoids recliner shaft interference while stabilizing actuator position and bracket rigidity.
A buckle-driven locking unit engages a sector gear during a crash to restrain height link rotation and prevent seat cushion distortion.
A 3D welded thermoplastic fiber padding replaces polyurethane foam to make vehicle seats lighter, more breathable, and recyclable.
Rear cushion-pan reinforcement aligned with the ischial bones boosts early impact reaction force while keeping the seat frame simple.
Reduced-rigidity link sections help a vehicle seat connection bar resist bending and torsional loads and stay mounted in oblique collisions.
A lower-yield seat lifting link deforms under impact to absorb energy while keeping pinion and sector gears engaged.
Programmed seat-support deformation absorbs crash energy without bending the rear seat floor, preserving comfort and under-seat equipment space.
An inclined wall-fixed reinforcement rod replaces under-seat legs, preserving strength while keeping 300 mm clearance for cleaning robots.
A linked dual-slide seat layout enables multiple postures with fewer motors, cutting complexity, weight, and rear-collision deformation risk.
A weakened sacrum support section absorbs rear-impact energy while preserving seated posture during normal vehicle travel.
Reinforcing brackets across spaced rails stabilize a rotating, height-adjustable seat frame under collision loads while preserving smooth motion.
Curved side guides shift belt-guide loads into compression, limiting downward displacement and buckling under high seat belt tension.
By shifting the load sensor away from the front link shaft, this seat layout preserves height adjustment without increasing seat height or width.
Integrated mechanical and electrical seat connectors simplify part swapping while pressure sensing and actuators tune stiffness for comfort.
By attaching only three seat interfaces to the metal reinforcement, this structure cuts weight, cost, and carbon footprint.
A seat-position sensor and blocking backrest mechanism limit personal watercraft speed when the raised seat is engaged for safer low-speed use.
A flat spring and slider hold the folded back frame until the rail resets, preventing premature rearward restoration on slopes.
A compact nested mechanism pivots, extends, lowers, and tilts an OEM vehicle seat for safer wheelchair transfer without replacing factory safety features.
An angled rib and keyhole housing strengthen a shared backrest joint, preventing impact separation while keeping seat assembly simple.
A dual-hinge seat mechanism uses separate whole-seat and seatback rotation to deliver six seating modes with less mechanism complexity.
Housing the automatic belt unit inside a seat frame side member saves space, improves force flow, and supports cost-effective assembly.
Support links combine sliding and seesaw rotation to create facing and comfort seat postures with fewer parts and less cabin interference.
A nested iron and stainless steel headrest bracket uses laser brazing to cut weight, prevent rust, and simplify plating.
A linked seat frame and riser impact structure absorbs head-on collision loads while limiting inward collapse and occupant submarining.
An elastic resin collar between a seat frame hole and sliding pin suppresses collision noise while keeping the movable mechanism stable.
Intersecting slot guides and a movable journal strengthen backrest pivot adjustment, absorb belt forces, and improve rear-impact comfort.
A layered pre-form separates surface smoothness from structural rigidity, improving vehicle interior panel finish and profile tolerance.
A Hall-effect sensor detects the raised seat support and triggers motor speed limiting to prevent unsafe high-speed seat use.
Recessed and curved cross-member sections cut seat-frame weight while preserving stiffness and improving occupant fit.
Tooling aligns the drive module before welding or adhesive bonding, removing pinion-sector clearance to cut noise and improve crash resistance.