A lattice bumper crossmember helps BEVs handle pole-center crash loads while cutting crossmember weight by at least 30%.
A tow eye bushing built into hollow vertical struts adds towing capability while preserving crash-box deformation and bumper rigidity.
A ridgeline, recessed section, and stiffening member help an automotive structural member absorb high impact energy while limiting penetration.
Facing curved webs in an extruded aluminum bumper reinforcement support each other during end crushing to improve impact resistance.
A formed bumper aperture and support tab hold the sensor flush without a separate retainer, reducing parts, cost, and assembly complexity.
A support ramp guides bumper protrusions away from the rear panel during rear impact, reducing panel damage and repair cost.
An unwelded internal flange locks into a recess during impact, helping a closed-hollow bumper beam absorb energy while limiting weight.
A bumper through-hole lets a horn mounted above the reinforcement project sound while avoiding road interference and foreign matter entry.
An extruded hollow connector links upper and lower bumper beams to absorb impact, flatten on contact, and limit vehicle intrusion.
An asymmetric joint between the sensor housing and bumper hole prevents wrong orientation and incorrect attachment during vehicle mounting.
A fiber-reinforced thermoplastic guard cuts trailer weight while preserving impact strength through a rigid insert-support structure and replaceable bumper.
A pull-out obstructing portion on an expanded tubular bumper stay boosts joining strength and reliability in dissimilar-metal beam joints.
Modular end modules with shell bodies, shields, and crash boxes improve bumper energy absorption while limiting weight and manufacturing cost.
A laterally placed vertical extruded profile helps the bumper absorb one-sided impact energy without adding excessive weight or space.
A segmented bracket and molding assembly keeps bumper-mounted radar aligned for sensing while absorbing collision forces to reduce pedestrian impact.
A hinged frame and spring-loaded locking mechanism let heavy bumpers swing into place for faster installation, removal, and secure positioning.
A staged-rigidity plate member guides front collision loads into controlled deformation, reducing pedestrian impact force and nearby part damage.
A fixing plate, crushing body, and coupling strip reinforce the bumper beam-side frame joint to absorb impact and resist tensile loads.
A polymer beam with channeled reinforcements cuts heavy-vehicle underrun guard weight while meeting strength and load absorption needs.
A one-piece contact element with a deformable hinge absorbs crash loads, limits bending moments, and simplifies vehicle front-end manufacturing.
An inner plate parallel to the outer member raises permissible load, delays buckling, and improves bumper beam energy absorption.
Variable-density foam in segmented bumper cells balances low-speed damage resistance with pedestrian impact energy absorption.