101 results about "Suspension tower" patented technology

A bridge-shaped frame member is disposed on a front side frame in front of a suspension tower so as to extend vertically and stride over a No. 4 mount. Accordingly, there can be provided a vehicle front body structure that can attain a proper energy absorption of the front side frame with its axial compression can be attained at a vehicle crash.

A motor vehicle front subframe includes a pair of main longitudinal beams each formed from an extrusion with a flange casting at the rear end and a suspension tower at the other end. Two lower longitudinal beams extend parallel to the main longitudinal beams and are connected by a cross member. Each lower longitudinal beam has a vertical rear flange and a generally horizontal front flange where it is attached to a corresponding flange face at the lower end of the adjacent suspension tower. Two intermediate longitudinal beams are attached to the suspension towers and to a main cross-member and forward of this are two crush cans to which is attached a bumper armature. The front subframe is part of a power train and chassis module which includes an engine, a longitudinally extending torque tube attached to the rear of the engine by a bell housing, a rear transmission and final drive assembly attached to a rearward end of the torque tube and a rear subframe mounted on the rear transmission and final drive assembly. The vehicle has a body with a passenger compartment and vertical pillars just forward of the passenger compartment. The body is assembled to the power train and chassis module by lowering the body with the of the vertical pillars just clear of the rear faces of the flanges and until various fixing holes in the flanges and align with those in the pillars. The body is then moved forward to close the gap between the flanges and the pillars. Suitable bolts or set screws are then inserted to secure the front subframe to the body and the rear subframe is attached to the body.

A vehicle rear body structure including: a cross member provided beneath a rear parcel shelf to connect upper ends of rear suspension towers; a strip member provided along a rear edge of a floor panel; and panel members provided between the cross member and the strip member to connect the cross member and the strip member. The panel members include a center panel and a pair of side panels arranged on outer sides in a vehicle transverse direction of the center panel, respectively. Each of the side panels is joined along an inner edge in the vehicle transverse direction thereof to the center panel by a continuous welding.

In a vehicle front structure (10), a cross member (52) which is disposed above paired side members (12) includes vehicle width-direction both end portions extending toward a rear side of the vehicle. The cross member (52) is connected with vehicle front-side portions of the paired suspension towers (42) at edges of the extending portions. Therefore, when a vehicle has a frontal collision at high speed, a collision load applied to the cross member (52) can be effectively received by the paired suspension towers (42), and can be transmitted to the paired suspensions. Thus, the cross member (52) can effectively receive the collision load, and can efficiently transmit the collision load to the rear side of the vehicle.

In a vehicle rear structure that is one example of a vehicle body structure, a rear suspension tower that is made of die-cast aluminum and a wheel housing outer that is made of a metal material having a higher fatigue strength than the die-cast aluminum of the rear suspension tower, are joined together via an extension panel that is made of a metal material having a higher fatigue strength than the die-cast aluminum of the rear suspension tower. Further, a step portion is formed between an inner peripheral portion and an outer peripheral portion of the extension panel to form a deformable portion.

A supporting portion of an inverter bracket is made of cast, and the inverter bracket is attached onto the side member to locate a vehicle rear end portion of the attachment portion to be on the front side in the vehicle, by a prescribed distance from a vehicle front surface portion of the suspension tower. When a force F is exerted from the front side of the vehicle, the side member curves outward in the vehicle width direction between one part to which the suspension tower is coupled and another part to which the inverter bracket is attached. The inverter bracket and inverter are pushed obliquely outward in the vehicle width direction, so that the contact with the master cylinder can be suppressed.

In a vehicle front structure (10), a cross member (52) which is disposed above paired side members (12) includes vehicle width-direction both end portions extending toward a rear side of the vehicle. The cross member (52) is connected with vehicle front-side portions of the paired suspension towers (42) at edges of the extending portions. Therefore, when a vehicle has a frontal collision at high speed, a collision load applied to the cross member (52) can be effectively received by the paired suspension towers (42), and can be transmitted to the paired suspensions. Thus, the cross member (52) can effectively receive the collision load, and can efficiently transmit the collision load to the rear side of the vehicle.