A vehicle body structure including: a pair of left and right first vehicle body frame members manufactured by die casting, and are provided at vehicle transverse direction outer sides of a vehicle, and are provided so as to extend in a vehicle longitudinal direction; a pair of left and right second vehicle body frame members that are made of steel plates, and are joined to front end portions of the first vehicle body frame members from substantially vehicle transverse direction inner sides, and are provided so as to extend in the vehicle longitudinal direction; and projecting portions that are provided at the first vehicle body frame members at further toward a vehicle rear side than positions where the second vehicle body frame members are joined to the first vehicle body frame members, and that project-out toward a vehicle cabin inner side with respect to the first vehicle body frame members.

An aluminum pickup bed is assembled from a stamped headboard, a stamped floorpan, and a roll formed front sill. The headboard, a floorpan flange extending downwardly from the floorpan, and a front wall of the front sill form a three piece sandwich structure. Flow drilled screws are installed into the sandwich structure from the headboard side. The front sill includes a closed front flange and an open rear flange, each of which is welded to the floorpan.

An outer panel is provided for a motor vehicle. That outer panel includes an outer panel body made from a non-ferromagnetic material and a ferromagnetic element connected to an inner surface of the outer panel body. The ferromagnetic element serves as a magnetic attachment point through the outer panel body for a magnetic accessory on the outer panel body of the motor vehicle.

The present disclosure is directed to extrusion for a vehicle component. The vehicle component includes a plurality of flanges that form a periphery of the vehicle component, a cavity that extends through the periphery of the vehicle component, a corner portion that is positioned proximate to a corner defined by a pair of the plurality of flanges, and a channel that is positioned proximate to the corner portion.

A system for managing wheel kinematics during a small overlap collision event includes a deflector apparatus. The deflector is configured to direct a wheel away from an occupant compartment of a vehicle. The deflector includes a first section arranged at an inside wall of a wheel well facing a wheel, near the base of a hinge-pillar. The first section includes a hollow structure configured to absorb energy from the collision event by plastically deforming. The deflector also includes a second section arranged at an angle to the wheel and configured to deflect the wheel laterally outwards from the vehicle away from an occupant compartment during the small overlap collision event. The deflector may be formed of extruded aluminum. The system may include an absorber arranged behind the first section and configured to further absorb energy from the collision event by plastically deforming.

This disclosure details exemplary adjustable glass track systems for vehicles. In some embodiments, the glass track systems may establish a continuous sealing plane relative to a glass pane of a frameless door. In other embodiments, the glass track systems may additionally establish a continuous sealing plane relative to a vehicle roof structure. Exemplary adjustable glass track systems may include, among other features, a tubular frame rail, a channel rail, appliques, and seals.

A frame for a personal electric vehicle includes (a) a chassis floorpan extending axially between a front and a rear and laterally between opposite sides, the floorpan having a floor and a sidewall extending upwardly from a periphery of the floor to a raised peripheral edge of the floorpan; and (b) a safety cage mounted to the chassis floorpan and comprising a plurality of interconnected tubular members defining an occupant interior. The tubular members include a plurality of pillars spaced apart from each other along the peripheral edge and fixed against the sidewall for securing the safety cage to the chassis floorpan.

A reinforcing element (10) for a motor vehicle body (1) comprising protection means (30, 31, 40, 41, 42) for protection against an impact at the rear of the vehicle, characterised in that it comprises at least two tubes (20, 22) to be positioned, generally, in the length direction of the vehicle, and a rigid contact surface (30, 31, 70) turned towards the rear, the rigid contact surface (30, 31, 70) and the two tubes (20, 22) being arranged with respect to each other in order to allow the vehicle to move in case of an impact at the rear.

An automotive frame member includes a hat member and a closing plate, in which the hat member includes a top plate, two vertical walls, and two flanges, the two vertical walls are positioned between the top plate and the flanges, respectively, the two vertical walls face each other, the two flanges are respectively joined to the closing plate, each of the two vertical walls includes plural groove parts extending in a direction vertical to a longitudinal direction of the hat member, the groove part includes a bottom surface and two side surfaces, the two side surfaces face each other, the two side surfaces are positioned on both sides of the bottom surface, and a width a of the groove part and a depth b of the groove part in a cross section parallel to the top plate, and a height c of the vertical wall in a direction vertical to the top plate satisfy relations of 0.2≤a/c≤0.3 and 0.2≤b/c≤0.3.

A body structure for a vehicle has at least one side door sill that is made up of a door sill outer part on the outer side of the vehicle and a door sill inner part on the inner side of the vehicle, in the vehicle transverse direction, which delimit a door sill cavity that extends in the vehicle longitudinal direction between a front closing profile that closes off the door sill cavity in the direction of the front wheel housing, and a rear closing profile that closes off the door sill cavity in the direction of the rear wheel housing, wherein a reinforcement element, designed as an insert part, which extends in the vehicle longitudinal direction and acts as a side collision reinforcement is situated in the door sill cavity, and wherein in the event of a head-on collision the reinforcement element is acted on by a collision force directed toward the rear of the vehicle, in particular with load on at least one connecting point at which the reinforcement element is connected to the door sill. According to the invention, to relieve load on the connecting point, the reinforcement element is spaced apart from the rear closing profile by a longitudinal clearance space. A jacking point sheet metal part extends in the vertical vehicle direction, transversely through the longitudinal clearance space, and, in a head-on collision, the jacking point sheet metal part acts as a longitudinal stop by means of which longitudinal shifting of the reinforcement element is prevented.