Abstract: A grille shutter unit which is provided with plural shutters extending in a vehicle width direction is attached to a frame-shaped shroud, a center stay is provided to extend in a vertical direction and connect a central portion, in a width direction, of a shroud upper and a central portion, in the width direction, of a shroud lower, the grille shutter unit is attached to a back-face side of the shroud, and an actuator (driving actuator) for opening/closing the shutters is arranged at a back-face side of the center stay.

Abstract: A grille shutter unit which is provided with shutters and a frame which pivotally supports shutter shafts provided at the shutters is attached to a frame-shaped shroud which supports heat exchangers. The grille shutter unit is configured to be attached to the shroud from a back-face side of the shroud at a position located in front of the heat exchangers.

Abstract: A grille shutter unit which is provided with plural shutters extending in a vehicle width direction is attached to a frame-shaped shroud, a center stay is provided to extend in a vertical direction and connect a central portion, in a width direction, of a shroud upper and a central portion, in the width direction, of a shroud lower, the grille shutter unit is attached to a back-face side of the shroud, and an actuator (driving actuator) for opening/closing the shutters is arranged at a back-face side of the center stay.

Abstract: A grille shutter unit which is provided with shutters and a frame which pivotally supports shutter shafts provided at the shutters is attached to a frame-shaped shroud which supports heat exchangers. The grille shutter unit is configured to be attached to the shroud from a back-face side of the shroud at a position located in front of the heat exchangers.

Abstract: Disclosed herein is a structure for mounting a heat exchanger in a vehicle. The structure includes a shroud, and a mount supporting a supported portion and allowing vertical vibrations of the supported portion with respect to each side of the shroud in a vehicle width direction. The supported portion is provided on each side of the heat exchanger in the vehicle width direction. The mount body of the mount is mounted in a mounting portion located higher than a fixed portion on the side of the shroud in the vehicle width direction. The fixed portion is fixed to a body member of the vehicle. A receiver supporting a lower surface of the mount body serves as the mounting portion. A fixing bracket for fixing the mount body to the side of the shroud is provided in front of or behind the mount body of the mount in the vehicle.

Abstract: Disclosed herein is a structure for mounting a heat exchanger in a vehicle. The structure includes a shroud, and a mount supporting a supported portion and allowing vertical vibrations of the supported portion with respect to each side of the shroud in a vehicle width direction. The supported portion is provided on each side of the heat exchanger in the vehicle width direction. The mount body of the mount is mounted in a mounting portion located higher than a fixed portion on the side of the shroud in the vehicle width direction. The fixed portion is fixed to a body member of the vehicle. A receiver supporting a lower surface of the mount body serves as the mounting portion. A fixing bracket for fixing the mount body to the side of the shroud is provided in front of or behind the mount body of the mount in the vehicle.

Abstract: A reinforcement is configured to have a corner portion corresponding to a corner portion of a side sill inner. Herein, the corner portion of the reinforcement forms a reinforcement ridgeline extending in a vehicle longitudinal direction. The reinforcement is provided such that the reinforcement ridgeline and a side-sill-inner upper ridgeline formed at a corner portion of the side sill inner overlap with each other over a range from a specified area where a wheel outward displaced in a vehicle collision is capable of contacting a side sill to a connection portion where a cross member connects to the side sill inner.

Abstract: There are provided a cowl panel provided above a dash panel partitioning an engine room from a vehicle compartment and extending in a vehicle width direction, a suspension tower protruding toward an inside of the engine room and supporting a front suspension, and a connecting bracket connecting the suspension tower and the cowl panel and configured to slant rearward and upward, wherein the connecting bracket comprises a front-end flange portion and a rear-end flange portion, the front-end flange portion is joined to a slant portion formed at a rear portion of a top of the suspension tower which is configured to slant rearward and downward, and the rear-end flange portion is configured to rise upward via a bending portion and joined to a vertical wall portion of the cowl panel.

Abstract: A reinforcement is configured to have a corner portion corresponding to a corner portion of a side sill inner. Herein, the corner portion of the reinforcement forms a reinforcement ridgeline extending in a vehicle longitudinal direction. The reinforcement is provided such that the reinforcement ridgeline and a side-sill-inner upper ridgeline formed at a corner portion of the side sill inner overlap with each other over a range from a specified area where a wheel outward displaced in a vehicle collision is capable of contacting a side sill to a connection portion where a cross member connects to the side sill inner.

Abstract: There are provided a cowl panel provided above a dash panel partitioning an engine room from a vehicle compartment and extending in a vehicle width direction, a suspension tower protruding toward an inside of the engine room and supporting a front suspension, and a connecting bracket connecting the suspension tower and the cowl panel and configured to slant rearward and upward, wherein the connecting bracket comprises a front-end flange portion and a rear-end flange portion, the front-end flange portion is joined to a slant portion formed at a rear portion of a top of the suspension tower which is configured to slant rearward and downward, and the rear-end flange portion is configured to rise upward via a bending portion and joined to a vertical wall portion of the cowl panel.