Provided is a vehicle structure including: a pipe member forming a part of a frame of a vehicle; and a wire-shaped body having flexibility, in which the pipe member includes a pipe portion forming a pipe shape and a flange portion formed to protrude from the pipe portion, and is formed of one member in which the pipe portion and the flange portion are continuous with each other, and the wire-shaped body is disposed in at least one of a first state where the wire-shaped body is disposed along the flange portion and a second state where the wire-shaped body strides over the flange portion.

Provided is a vehicle body side structure capable of improving electrodeposition coating of a center pillar, ensuring sealability of door seal members, and further ensuring strength and rigidity. The vehicle body side structure includes front flange bulging portions and rear flange bulging portions on a center pillar inner panel. Further, a center pillar stiffener has front through holes and rear through holes communicating with a first closed cross section. A center pillar outer panel includes front and rear step passages and that communicate the front and rear through holes with a second closed cross section. The center pillar stiffeners is overlapped with the front bulging portions and the rear flange bulging portions so as to form front gap passages and rear gap passages that communicate the first closed cross section with the outside.

A vehicle frame includes a first beam with a first wall and a second wall extended in a first beam longitudinal direction, wherein the first wall and the second wall are spaced from each other in a first beam transverse direction substantially perpendicular to the first beam longitudinal direction. The first beam includes at least one first beam reinforcement structure, the at least one first beam reinforcement structure including a first leg and a second leg disposed along the first beam and extended between the first wall and the second wall in the first beam transverse direction. The first leg and the second leg are angled toward each other along the first beam transverse direction from the second wall toward the first wall.

A vehicle underbody structure includes a pair of rockers that are provided on both vehicle width direction sides of a vehicle underbody and extend in a vehicle front-rear direction, a battery that is disposed centrally in a vehicle width direction center between the pair of rockers and is disposed above a vehicle floor and on the lower side of a seat, a fuel tank that is disposed in the vehicle width direction center between the pair of rockers and is disposed under the vehicle floor and further toward a rear side of the vehicle than the battery, and a waste pipe that is coupled to a drive unit provided at a vehicle front side of the battery and extends in the vehicle front-rear direction between the battery and one of the rockers.

A shock-absorbing unit may include a reinforcement part made of a composite material, which has a panel shape, two opposing end portions of which are connected to the inner panel to divide the inner space into a separation space adjacent to the outer panel and a partition space adjacent to the inner panel, and which has a coupling protrusion protruding from the inner surface thereof toward the inner panel, and a shock-absorbing part made of a composite material, which has a coupling recess formed in one side thereof to receive the coupling protrusion so as to be connected to the reinforcement part in the partition space, and the opposite side of which is connected to the inner surface of the inner panel and is supported by the inner panel.

A vehicle includes a first pillar and a second pillar spaced from the first pillar along a vehicle-longitudinal axis. A rotational actuator is disposed at the first pillar. The rotational actuator is fixed relative to the first pillar. A cable is engaged with the rotational actuator and is elongated along the vehicle-longitudinal axis to the second pillar. The cable is moveable to a deployed position by the rotational actuator and is under tension in the deployed position.

The present disclosure relates to a rocker for a vehicle and a rocker reinforcement. Examples of the present disclosure include a cross section of a rocker reinforcement comprising two convex four-sided structures with their horizontal diagonals substantially parallel to a transverse horizontal direction, and the convex four-sided structures being separated along a vertical direction.

A lateral surface member structure (100) of a vehicle body (1) includes a tubular body (110) extending in a front-rear direction of the vehicle body (1) and an impact absorbing member (120) disposed inside the tubular body (110). The impact absorbing member (120) includes a web (121) extending along the front-rear direction and flat in a vehicle width direction, a vehicle outer flange (122) joined to a vehicle outer end portion of the web (121) and extending along the front-rear direction, and a vehicle inner flange (123) joined to a vehicle inner end portion of the web (121) and extending along the front-rear direction. The vehicle outer flange (122) and the vehicle inner flange (123) each include a rib (122R, 123R) disposed so as to sandwich the web (121) from above and below and extending along the front-rear direction.

A battery case structure for an electric vehicle, includes a side member in which a flange of the side member laterally provided in a battery case is deformed or broken from a partition to absorb an impact when a side collision occurs, minimizing the impact which is caused by the collision and is provided to penetrate into a battery. Furthermore, the partition of the side member is designed based on topology optimization to secure rigidity, protecting the battery against the impact.

Reinforced rocker assembly having a closed section reinforcement located in the hollow volume formed between the rocker components, wherein the reinforcement is assembled to a rocker component in the transition zones between an upper horizontal wall and an upper flange of the rocker component and in the transition zones between a lower horizontal wall and a lower flange of the rocker component and wherein in the transition zones, the angles α and β formed between the flange and the branch of the reinforcement extending outwards of the rocker component are between 90° and 180°.