An embodiment rear vehicle body structure includes a rear vehicle body assembly and a rear end module connected to the rear vehicle body assembly in a length direction of a vehicle body. An embodiment rear vehicle body assembly includes a roof rail, quarter completions connected to each end of the roof rail, respectively, and a back panel connecting the quarter completions.

A glass roof arrangement, having a support frame fixedly connected to roof structure parts of a vehicle body. At least one transparent roof panel is fixedly arranged on the support frame, and a shading device is assigned to the underside of the roof panel and has a shading structure displaceable longitudinally in guide rails fastened to an underside of the roof panel. A guide profile cross-section of each guide rail is formed from an edge limb supported substantiall orthogonally on the underside of the roof panel, and a guide limb extends substantially parallel to the underside and is attached to the edge limb that a lateral guide channel for the shading structure is formed and delimited by the underside of the roof panel, the edge limb, and the guide limb.

In an automotive structural member, weight efficiency of impact resistance is improved. An automotive structural member includes: a hollow member having plane portions; and an FRP member joined to at least one section of the plane portions, wherein: the FRP member is joined to a region of at least 0.1L1 to 0.9L1 of a length L1 in a longitudinal direction of the hollow member; the plane portion is formed with an FRP joint portion being a portion to which the FRP member is joined and an FRP non-joint portion being a portion to which the FRP member is not joined, in the region of 0.1L1 to 0.9L1; a total width of the FRP joint portion is 8 to 60% of a full width of the plane portion, in the plane portion; and a flexural rigidity of the FRP member in the FRP joint portion is 30 times or more a flexural rigidity of the plane portion excluding the FRP member in the plane portion.

The present invention relates to a chassis (10) for a vehicle comprising a plurality of sandwich plate elements (100) and a plurality of connection elements (200, 200′, 200a-c) for connecting said plurality of sandwich plate elements (100). Each connection element (200, 200′, 200a-c) comprises two or more recesses (210, 220) configured to receive an edge portion (160) of one of the plurality of sandwich plate elements (100). The plurality of connection elements (200, 200′, 200a-c) comprises at least one connection element (200′, 200a-c) which has at least one external surface (202a-e) provided with a connection configuration (250a-e) for a mortise and tenon type joint. A method (20) for forming a chassis (10) for a vehicle is also provided.

A sandwich panel floor modular structure includes a sandwich panel configured to be fixed on a floor panel of a vehicle, a center rail embedded in the sandwich panel and configured to guide a console to move in a longitudinal direction of the vehicle, and seat rails embedded in the sandwich panel and spaced apart from both sides of the center rail, the seat rails configured to guide a seat to move in the longitudinal direction of the vehicle.

A sheet-like textile is used for a controlled expansion of an expansion element on a structural element in a vehicle body. The sheet-like textile is covered with an expandable material on both sides. The expansion of the expansion element in a direction perpendicular to the sheet-like textile is at least 15% greater than what it would be for an expansion element without a sheet-like textile.

A passenger car has a self-supporting body, which has a roof opening. The roof opening is outwardly delimited in the vehicle transverse direction by lateral roof rails of the body and in the vehicle longitudinal direction by a transverse element of the body connected to the roof rails. A roof apparatus has a frame and at least one roof element that overlaps with at least part of the roof opening. The roof element is retained on the frame directly and on the body by way of the frame. The frame has a transverse frame part, on which the roof element is retained directly, the transverse frame part being connected directly to the transverse element of the body.

A structural reinforcement, utilized to reinforce a structural joint of a vehicle, and method of reinforcing a structural joint of a vehicle. The structural reinforcement having a clamshell structure comprising two complimentary halves. The structural reinforcement further comprising an activatable composition.

A vehicle body includes a structural member having an inner surface defining an elongated cavity. The structural member includes an outer panel member joined to an inner panel member. A tension web secured in the cavity separates the outer and inner panel members. A reinforcement member is positioned in the cavity of the structural member. The reinforcement member contacts the transverse web and a gap is provided between the reinforcement member and the inner surface of the structural member. The reinforcement member including a base member having a plurality of bumpers extended in a width direction of the reinforcement member. The plurality of bumpers face one of the inner surface and the tension web. An adhesive secured to the reinforcement member is activatable to expand toward the inner surface to define a joint between the reinforcement member and the structural member and to at least partially fill the gap.

Both weight reduction and impact resistance of a center pillar are satisfied while increase in cost is suppressed. A center pillar inner 20 is configured to include: an inner member 21 having an opening 21a to be a place where a retractor of a seat belt is mounted and a side sill mounting portion 21b to be a place where a side sill 30 is mounted; and a CFRP member 22 joined to a surface of the inner member 21, wherein the CFRP member 22 is provided at least between the opening 21a and the side sill mounting portion 21b.