A sub-frame mounting combination structure of a vehicle body may include a fender apron side member mounted at the rear end portion of a front side member in the longitudinal direction of the vehicle body, a first side extension disposed in the transverse direction of the vehicle body and connected to the inside of the fender apron side member, a second side extension disposed in the transverse direction and connected to the outside of the fender apron side member, a tunnel member disposed in the transverse direction connecting the first side extensions at both sides at the center portion of the vehicle body to each other, and having the same phase as the first side extension, and a cap type bracket disposed to cover the fender apron side member at a portion where the fender apron side member and the first and second side extensions are connected.

A sub-frame mounting combination structure of a vehicle body may include a fender apron side member mounted at the rear end portion of a front side member in the longitudinal direction of the vehicle body, a first side extension disposed in the transverse direction of the vehicle body and connected to the inside of the fender apron side member, a second side extension disposed in the transverse direction and connected to the outside of the fender apron side member, a tunnel member disposed in the transverse direction connecting the first side extensions at both sides at the center portion of the vehicle body to each other, and having the same phase as the first side extension, and a cap type bracket disposed to cover the fender apron side member at a portion where the fender apron side member and the first and second side extensions are connected.

Upper frames and a lower frame that connect a rear end of a coupled body composed of a side sill and a rear pillar and a rear side housing to each other are spaced apart in a vehicle up-down direction. An inclined angle at which a lower frame is inclined to be closer to a vehicle inner side toward a vehicle rear side is larger than inclined angles at which the upper frames are inclined to be closer to the vehicle inner side toward the rear side. A lower joined portion to which a rear end of the lower frame is joined is on a vehicle-width-direction inner side with respect to an upper joined portion in the rear side housing, which is composed of a single member including at least the lower frame rear-end joined portion, and the first and second upper frame rear-end joined portions, and extending therebetween.

Upper frames and a lower frame that connect a rear end of a coupled body composed of a side sill and a rear pillar and a rear side housing to each other are spaced apart in a vehicle up-down direction. An inclined angle at which a lower frame is inclined to be closer to a vehicle inner side toward a vehicle rear side is larger than inclined angles at which the upper frames are inclined to be closer to the vehicle inner side toward the rear side. A lower joined portion to which a rear end of the lower frame is joined is on a vehicle-width-direction inner side with respect to an upper joined portion in the rear side housing, which is composed of a single member including at least the lower frame rear-end joined portion, and the first and second upper frame rear-end joined portions, and extending therebetween.

A vehicle mounting structure for an electric unit 1 includes a side member 10, a suspension member 5 including a high rigidity portion 5a and a low rigidity portion 5b in a vehicle front-rear direction, and an electric unit 1 in which an inverter 2 and a motor 3 are integrated. The side member 10 includes a curved portion 10c having an upwardly convex curved shape. The curved portion 10c is disposed at a position overlapping with the inverter 2 in the vehicle front-rear direction. The electric unit 1 is fixed to the low rigidity portion 5b.

A connecting structure for a windshield with molding and a cowl louver, the cowl louver having a clamping portion with U-form longitudinal cross section formed by a first clamping portion and a second clamping portion having an engaged portion, and a molding of a first molding portion and a second molding portion and having an engaging portion, wherein the clamping portion has a contact region located ahead of the engaged portion and in contact with at least a part of the front portion of the second molding portion, and before the second molding portion is held in the clamping portion, the length of a part of the front portion in the longitudinal cross section is longer than the distance between the vehicle interior side surface of the first clamping portion and the vehicle exterior side surface of the second clamping portion in a part of the contact region.

A motor vehicle has a chassis on which vehicle wheels of an axle of the motor vehicle that are rearmost in the vehicle longitudinal direction are rotatably held. The chassis has longitudinal members, which are arranged on the rear of the motor vehicle and are mutually spaced apart in the vehicle transverse direction. The longitudinal members each have at least one length region that runs rearward and inward obliquely to the vehicle longitudinal direction behind the respective center points of the vehicle wheels with respect to the vehicle longitudinal direction.

A replacement steering and suspension support cross member is configured to replace the original cross member in an automobile that, as originally designed, could only receive small block motors into its engine bay, so that a big block motor can be installed in the engine bay. The cross member has first and second end portions that are joined, longitudinally, by a central portion. The central portion is recessed from the front and top of the end portions. The assembly further includes upper and lower control arms at each end as well as shock supports. The cross member is configured to reside at a transverse position that is behind the position of the original cross member, while the spindle mounts and shock absorber mounts are offset forward to be on the original axle axis.

A hood lifting mechanism for a vehicle having a frunk, including: at least one lifting means configured to lift a hood, and a deformable material configured to be attached to an inner surface of the hood, wherein the deformable material is configured to switch from a first position (P1) in which the deformable material is either flat or forms a dome being directed towards the inner surface of the hood into a second position (P2) in which the deformable material forms a dome being directed towards the frunk when the at least one lifting means is activated. Further, the present disclosure relates to a vehicle including such lifting mechanism and to a method for moving a hood of a vehicle.

An embodiment cowl structure of a vehicle includes a first cowl top panel formed in a bent structure to define a top space portion having an open rear surface, an upper portion of the first cowl top panel being coupled to and supporting a lower portion of a windshield glass, and a second cowl top panel coupled to the first cowl top panel and closing the open rear surface of the top space portion.