A chassis for an electric vehicle, comprises a left side frame and a right side frame made of a material comprising carbon fibre, at least one lower structural member connected with and extending across the left side frame and the right side frame, and a plurality of upper structural members connected with and extending across the left side frame and the right side frame. The lower structural member provides support for one or more rechargeable battery packs.

A vehicle side member includes: a main member portion which extends in a longitudinal direction of a vehicle; a front-side mounting portion which is one-piece construction with a front portion of the main member portion; a rear-side mounting portion which is one-piece construction with a rear portion of the main member portion; and a damper mounting portion which is one-piece construction with the main member portion, and in which a top end of a damper is received and mounted.

A cabin module has the form of a self-supporting structural body of multiple walls which delimit a cabin area. The walls are made of a continuous blank, wherein in the edge regions of walls directly following one another, the outer layer is in each case designed to be continuous and deformed, and the inner layer is interrupted by a separating section. At least one first lateral wall, a base wall, a second lateral wall, and a roof wall are provided. End sections of the blank are connected to one another when the walls are erected. A motor vehicle is equipped with such a cabin module.

An impact protection reinforcement of a vehicle construction, which is supportively fastenable in the vehicle construction against the action of external mechanical extraordinary load conditions and comprises the following features: an elongated profile element with a longitudinal center line and a transversal center line arranged transversely to the longitudinal center line, which has in the longitudinal direction at each end side a fastening end and a central part therebetween, wherein the central part consists of a circumferentially closed hollow profile with a base layer and a top layer arranged opposite to the base layer, which are connected to each other via lateral faces, and the fastening ends each have a flat shape with at least two fastening points which are spaced apart differently from the transversal center line and the longitudinal center line and are provided as welding connection points to the vehicle construction.

Shock absorber assembly structures are disclosed. An example shock absorber disclosed herein includes a shock absorber mount coupled to an end of the shock absorber, the shock absorber mount including a recess to receive a locating rib of a vehicle body, and an aperture to receive a fastener to couple the shock absorber mount to an attachment boss of the vehicle body.

A vehicle body lower part structure includes: a floor panel; and a vehicle body frame member including a frame body, an inner side wall, a joint flange projecting inward in a vehicle width direction from an inner surface of the inner side wall in the vehicle width direction, and having a joining surface on which an end of the floor panel in the vehicle width direction is stacked and to which the end of the floor panel in the vehicle width direction is joined, and a recess provided to the frame body, recessed outward in the vehicle width direction from the inner surface of the inner side wall in the vehicle width direction, and having a surface that is continuous and flush with the joining surface of the joint flange.

An automobile structural member being a hollow automobile structural member having: a top wall part; a bottom wall part facing the top wall part; and a first heightwise wall part and a second heightwise wall part being a pair of heightwise wall parts that connect to the top wall part and the bottom wall part, the automobile structural member including: a first reinforcing part having one end portion joined to the top wall part and the other end portion joined to the bottom wall part; and a second reinforcing part having one end portion joined to either the first heightwise wall part or the second heightwise wall part, and the other end portion joined to the first reinforcing part, in which a plurality of the second reinforcing parts are provided along a height direction of the heightwise wall part.

A hybrid structural assembly for a motor vehicle includes a casting and a structural inlay. The casting includes a plurality of structural components joined together in a casting process to form structural load paths and extending in a plurality of directions in a 3D space. The casting includes a cast-allowable alloy material. The structural inlay is secured to at least one of the structural components. The structural inlay includes a material having at least one of a higher ductility and a higher toughness than the cast-allowable alloy material.

The present disclosure relates to a chassis (300) for a vehicle, the chassis (300) comprising a plurality of sandwich plate elements (100) and a plurality of connection elements (200), wherein the sandwich plate elements (100) each comprise a plate core (150) and a first and second plate skin (110, 120) and wherein each connection element (200) comprises two or more recesses (210, 220), each recess (210, 220) being adapted to receive an edge portion (160) of one of the plurality of sandwich plate elements (100) such that at least a portion of the sandwich plate element (100) interacts with the recess (210, 220), thereby connecting said plurality of sandwich plate elements (100) to form said chassis (300). The disclosure also relates to a vehicle comprising a chassis (300), a method for forming a chassis (300) and a kit of parts for assembling a chassis (300).

A vehicle component for a vehicle has a component body which extends longitudinally in a longitudinal direction, wherein the component body has deformation zones which are spatially distributed in the longitudinal direction and are formed in the component body of sheet metal material. At least two locally distributed and spaced-apart deformation zones have different tensile strengths configured to influence a deformation course of the component body upon a force acting on the component body.