Abstract: A vehicle body structure satisfies at least one of the following (A), (B), and (C): (A) an adhesive amount per unit area of a first adhesive in a second adjacent part is smaller than an adhesive amount per unit area of the first adhesive in a first adjacent part; (B) an adhesive amount per unit area of a panel adhesive in a second panel adjacent part is smaller than an adhesive amount per unit area of the panel adhesive in a first panel adjacent part; and (C) an adhesive amount per unit area of a second adhesive in a stacking adjacent part is smaller than an adhesive amount per unit area of the second adhesive in a non-stacking adjacent part.

Abstract: A body structure of a vehicle satisfy at least one of the following (A), (B), and (C): (A) an adhesive amount per unit area of a first adhesive in a crossing part is smaller than an adhesive amount per unit area of the first adhesive in an adjacent part; (B) an adhesive amount per unit area of a panel adhesive in a panel crossing part is smaller than an adhesive amount per unit area of the panel adhesive in a panel adjacent part; and (C) an adhesive amount per unit area of a second adhesive in a second joining part crossing part is smaller than an adhesive amount per unit area of the second adhesive in a second joining part adjacent part.

Abstract: A body structure of a vehicle satisfy at least one of the following (A), (B), and (C): (A) an adhesive amount per unit area of a first adhesive in a crossing part is smaller than an adhesive amount per unit area of the first adhesive in an adjacent part; (B) an adhesive amount per unit area of a panel adhesive in a panel crossing part is smaller than an adhesive amount per unit area of the panel adhesive in a panel adjacent part; and (C) an adhesive amount per unit area of a second adhesive in a second joining part crossing part is smaller than an adhesive amount per unit area of the second adhesive in a second joining part adjacent part.

Abstract: A vehicle body structure satisfies at least one of the following (A), (B), and (C): (A) an adhesive amount per unit area of a first adhesive in a second adjacent part is smaller than an adhesive amount per unit area of the first adhesive in a first adjacent part; (B) an adhesive amount per unit area of a panel adhesive in a second panel adjacent part is smaller than an adhesive amount per unit area of the panel adhesive in a first panel adjacent part; and (C) an adhesive amount per unit area of a second adhesive in a stacking adjacent part is smaller than an adhesive amount per unit area of the second adhesive in a non-stacking adjacent part.

Abstract: A first projection portion projecting outward, in a vehicle width direction, from a front side frame is provided. A front end of the first projection portion is located at the same position, in the vehicle longitudinal direction, as a connection portion of a crash can to the front side frame or located in back of the connection portion. An outward side face of the first projection portion is configured to slant rearward and inward in a plan view. The first projection portion and a power unit are arranged to overlap each other in the vehicle longitudinal direction. Accordingly, an impact transmitted to a vehicle-compartment side in a small overlap collision can be reduced, restraining repair costs of the crash can broken in a low-speed collision as well as maintaining appropriate design flexibility of a vehicle-body front portion.

Abstract: A front subframe structure for an automotive vehicle comprises: a pair of right and left side members each provided with an arm support member for supporting a suspension arm is mounted; a cross member disposed between the left and right side members to couple together respective locations in the side members at each of which the arm support member is provided; and an oblique member extending from central portion of the cross member, in each of right and left directions of the vehicle and obliquely rearwardly and outwardly in the vehicle width direction, wherein each of the side members has a rear end joined to a rear portion of a respective one of the oblique members, and wherein the rear portion of the oblique member is provided with a tunnel-lower-frame coupling portion couplable to a tunnel lower frame, and a floor frame attaching portion attachable to a floor frame.

Abstract: A front subframe structure for an automotive vehicle comprises: a pair of right and left side members each provided with an arm support member for supporting a suspension arm is mounted; a cross member disposed between the left and right side members to couple together respective locations in the side members at each of which the arm support member is provided; and an oblique member extending from central portion of the cross member, in each of right and left directions of the vehicle and obliquely rearwardly and outwardly in the vehicle width direction, wherein each of the side members has a rear end joined to a rear portion of a respective one of the oblique members, and wherein the rear portion of the oblique member is provided with a tunnel-lower-frame coupling portion couplable to a tunnel lower frame, and a floor frame attaching portion attachable to a floor frame.

Abstract: A first projection portion projecting outward, in a vehicle width direction, from a front side frame is provided. A front end of the first projection portion is located at the same position, in the vehicle longitudinal direction, as a connection portion of a crash can to the front side frame or located in back of the connection portion. An outward side face of the first projection portion is configured to slant rearward and inward in a plan view. The first projection portion and a power unit are arranged to overlap each other in the vehicle longitudinal direction. Accordingly, an impact transmitted to a vehicle-compartment side in a small overlap collision can be reduced, restraining repair costs of the crash can broken in a low-speed collision as well as maintaining appropriate design flexibility of a vehicle-body front portion.

Abstract: A support frame is provided to extend upward and rearward from a portion of a front side frame near a suspension tower substantially straight and connect to an upper portion of a hinge pillar. Accordingly, there can be provided a front structure of an automotive vehicle that can properly restrain a forward deformation of a cabin by transmitting an impact load at a vehicle frontal crash to the hinge pillar efficiently.

Abstract: In a first step, a roof panel and a front header are joined at plural frictional spot joint portions at a front-end frictional joint area, and the roof panel and a rear header are joined at plural frictional spot joint portions at a rear-end frictional joint area. The roof panel and a side roof rail are joined at plural frictional spot joint portions at left-side and right-side frictional joint areas. Subsequently, in a second step, the members are joined at the plural rivet joint portions at a border area of the above-described joint areas, and the members are joined at plural rivet joints at a bounder area of the above-described joint areas. Accordingly, there can be provided a joining method and structure of metal members that can properly reduce deformation due to a thermal strain.

Abstract: A support frame is provided to extend upward and rearward from a portion of a front side frame near a suspension tower substantially straight and connect to an upper portion of a hinge pillar. Accordingly, there can be provided a front structure of an automotive vehicle that can properly restrain a forward deformation of a cabin by transmitting an impact load at a vehicle frontal crash to the hinge pillar efficiently.

Abstract: In a first step, a roof panel and a front header are joined at plural frictional spot joint portions at a front-end frictional joint area, and the roof panel and a rear header are joined at plural frictional spot joint portions at a rear-end frictional joint area. The roof panel and a side roof rail are joined at plural frictional spot joint portions at left-side and right-side frictional joint areas. Subsequently, in a second step, the members are joined at the plural rivet joint portions at a border area of the above-described joint areas, and the members are joined at plural rivet joints at a bounder area of the above-described joint areas. Accordingly, there can be provided a joining method and structure of metal members that can properly reduce deformation due to a thermal strain.

Abstract: A first projection portion projecting outward, in a vehicle width direction, from a front side frame is provided. A front end of the first projection portion is located at the same position, in the vehicle longitudinal direction, as a connection portion of a crash can to the front side frame or located in back of the connection portion. An outward side face of the first projection portion is configured to slant rearward and inward in a plan view. The first projection portion and a power unit are arranged to overlap each other in the vehicle longitudinal direction. Accordingly, an impact transmitted to a vehicle-compartment side in a small overlap collision can be reduced, restraining repair costs of the crash can broken in a low-speed collision as well as maintaining appropriate design flexibility of a vehicle-body front portion.