A raised center frame links the dash and connection panels to form a closed section, improving distortion stiffness without a large weight increase.
Replacing welds, a joint member links the A-pillar, side sill, and front cross member into a closed loop to preserve rigidity and durability.
Asymmetric rail beads limit frontal-impact deformation, keeping high-voltage components clear of nearby parts and preserving electrical integrity.
A roll-formed hollow beam distributes side-impact forces across the vehicle floor, limiting battery-compartment intrusion and preserving storage volume.
See how a steel structure connects cast light-metal beams to a steel crossmember, distributing side-impact loads away from electric energy stores.
Cam surfaces guide side protrusions as a secondary fascia member flexes into place, supporting impact energy deflection and improved rear appearance.
A protruding joint redistributes small-overlap collision loads through the framework and suspension member to release the vehicle efficiently.
Upper and lower partitions, brackets, and a stiffener absorb side-impact energy while helping protect the vehicle floor and battery assembly.
See how a raised center frame and instrument panel shield a vehicle control device from direct sunlight while absorbing impact loads.
An internally attached side-sill reinforcement and main-body protrusion transmit rearward collision loads without added mass or cost.
Diagonal inner and outer reinforcements help the side sill resist front-end crushing and create a widthwise reaction force in small-overlap collisions.
Rotatable axles, retractable support legs, and sliding sides let this compactible vehicle expand for use and contract for storage in tight spaces.
Integrated bulkheads form multiple rocker chambers to resist side-impact intrusion while preserving battery tray space and reducing welding needs.
Arrayed resin cones and bridges absorb and redirect side-impact energy inside the side sill to protect the vehicle battery.
A spring assembly creates a semi-resilient body-to-chassis joint that permits independent movement and keeps components from becoming loose during detachment.
Large batteries can limit subframe mounting space; distributed fastening through the rear side frame and floor panel improves support rigidity.
Corrugated side-sill members resist ridge-line collapse during oblique side impacts, preserving axial crush energy absorption.
Rear-impact loading bends a localized floor-pan section to lift the spare tire forward, limiting movement toward the passenger compartment.
Non-circular pockets integrated into a cast vehicle body address uneven energy absorption and excess weight while supporting component mounting.
Learn how lateral corrugations stiffen a vehicle rocker insert, redirect side impacts, and reduce battery-tray intrusion.
Tie rods connect rear cradle extensions to front side rails, distributing impact forces and limiting cradle deformation in hybrid and electric vehicles.
Side-collision loads are dispersed through seat brackets, a floor cross member, and tunnel reinforcements to limit floor-panel deformation.
A closed-section frame stiffens the compression-side area to trigger buckling, absorb impact, and preserve cabin space.
A shell-type front pillar uses a diagonal carrier and curved side-sill region to route crash loads within a short vehicle front end.
A polygonal support element adds flat attachment faces while preserving uniform wall thickness and reducing packing dead-space.