An oblique opening in the locking lever guides a customs seal through an angled path.
A deadlatch device uses non-protruding pins and a rotating lever to allow door opening.
A mechanically linked actuator and passive unlocking mechanism secure thrust reverser doors without position sensors.
A pivoting latch locking device uses a heart-shaped cam guide to secure the mechanism with minimal parts.
A rail vehicle door locking mechanism uses a functionally dependent trigger to control bolt extension.
Integrates solenoid and stopper into a single unit, eliminating complex separate assembly steps and reducing installation time.
A flexible shaft transmits torque between axially offset lock cylinder and lock components.
A vehicle door handle lever uses a conical taper interface to secure the decorative frame with precise alignment.
A vehicle door handle uses a spacer extending from a clipping lug to maintain engagement with the retaining member during assembly.
A tailgate locking system synchronizes dual handles via a rod shaft, resolving the difficulty of operating wide vehicle tails.
A rotary actuated latch uses linear rods and a spring to self-engage without binding.
Inclined cam actuator translates push button motion into pawl rotation, eliminating manual hand insertion under the hood.
A vehicle door handle actuator uses a two-component injection molding process to bond a decorative layer onto a plastic carrier substrate.
A vehicle door handle assembly uses a circular arc guide track to pivot the support arm along a fixed radius.
Recessed sleeves and asymmetric screw heads prevent angle grinder attacks while simplifying assembly through self-aligning bolt sections.
A monolithic door release button eliminates welding to reduce production costs and skill requirements.
An interlock lever system actuates a machine hood latch member via a slot mechanism to control opening and closing movements.
A steering locking device uses a protrusion on the locking member to engage an auxiliary sliding plate, enhancing theft prevention through improved structural rigidity.
Segmenting the latch into independent modules reduces mechanical complexity while maintaining reliable latching function for vehicle fuel filler doors.
Segmented hood latch support beam fractures a weaker portion to absorb collision energy while keeping the hood closed for driver visibility.