Abstract: A support structure for supporting a flat inverter located between seats aligned along the vehicle width direction is provided. A bracket supports the inverter in a horizontal position above a floor tunnel of a floor between the seats in a passenger compartment such that it is spaced apart from the floor tunnel. The bracket has a pair of rear leg portions aligned along the vehicle width direction. Middle parts of the pair of rear leg portions are formed so as to be easily bent outward or inward in the vehicle width direction. When a load is applied to the bracket due to movement of the seats during a side impact on the vehicle, the pair of rear leg portions bend, and the horizontal position of the inverter is disrupted.

Abstract: A reinforcement component is disposed in an end portion of an Fr bumper R/F as viewed in a vehicle width direction, the end portion including an outer end of the Fr bumper R/F as viewed in the vehicle width direction. Additionally, an extension projects from an outer end of a front end of an Fr suspension member as viewed in the vehicle width direction further outward as viewed in the vehicle width direction.

Abstract: A skeleton structure of a front part of a vehicle has a reinforcement member that has a higher rigidity than a bumper reinforcement and that is housed in an end, in a width direction of the vehicle, of the bumper reinforcement. With this structure, passing-through of the vehicle from a barrier during a small overlap collision is suppressed, and an amount of absorption of collision energy by the skeleton member can be increased.

Abstract: A reinforcement member has a load-receiving portion and an inclined portion. At least a part of the load-receiving portion is placed in front of a Fr side member. An end, at an inner side in the width direction, of the inclined portion matches in the width direction of the vehicle with a ridgeline at an inner side, in the width direction of the vehicle, of the Fr side member, or is provided at an outer side, in the width direction of the vehicle, in relation to the ridgeline.

Abstract: A skeleton structure of a front part of a vehicle has a reinforcement member that has a higher rigidity than a bumper reinforcement and that is housed in an end, in a width direction of the vehicle, of the bumper reinforcement. With this structure, passing-through of the vehicle from a barrier during a small overlap collision is suppressed, and an amount of absorption of collision energy by the skeleton member can be increased.

Abstract: A reinforcement member has a load-receiving portion and an inclined portion. At least a part of the load-receiving portion is placed in front of a Fr side member. An end, at an inner side in the width direction, of the inclined portion matches in the width direction of the vehicle with a ridgeline at an inner side, in the width direction of the vehicle, of the Fr side member, or is provided at an outer side, in the width direction of the vehicle, in relation to the ridgeline.

Abstract: A reinforcement component is disposed in an end portion of an Fr bumper R/F as viewed in a vehicle width direction, the end portion including an outer end of the Fr bumper R/F as viewed in the vehicle width direction. Additionally, an extension projects from an outer end of a front end of an Fr suspension member as viewed in the vehicle width direction further outward as viewed in the vehicle width direction.

Abstract: There is provided a vehicle front structure including: a power unit disposed at a front part side of the vehicle; a front side member disposed at an outer side of the power unit in a vehicle width direction the front side member extending along a vehicle front-rear direction; a protruding member provided on an outer wall of the front side member, the protruding member protruding to an outer side in the vehicle width direction relative the outer wall of the front side member; and an inclined wall formed in the protruding member, the inclined wall extending from an outer end portion of the protruding member in the vehicle width direction to an inner side in the vehicle width direction and a vehicle body rear side in the vehicle front-rear direction in a plain view.

Abstract: There is provided a vehicle front structure including: a power unit disposed at a front part side of the vehicle; a front side member disposed at an outer side of the power unit in a vehicle width direction the front side member extending along a vehicle front-rear direction; a protruding member provided on an outer wall of the front side member, the protruding member protruding to an outer side in the vehicle width direction relative the outer wall of the front side member; and an inclined wall formed in the protruding member, the inclined wall extending from an outer end portion of the protruding member in the vehicle width direction to an inner side in the vehicle width direction and a vehicle body rear side in the vehicle front-rear direction in a plain view.

Abstract: An opening-and-closing member drive control apparatus for a vehicle for driving the opening-and-closing member so as to be opened or closed by means of a driving force of a motor after an idling period or an idling section of the motor includes a moving speed detecting member, calculating means for calculating a moving speed changing value, a determining means for determining a sandwiching of an object on the basis of a relationship between the calculated moving speed changing value and a threshold value, a temperature estimating means for estimating a temperature of the motor on the basis of a rotational speed of the motor, detected in the idling period or the idling section, and correcting means for correcting the threshold value so that a determination sensitivity of the sandwiching of the object becomes greater when the estimated temperature of the motor is low than when the estimated temperature of the motor is high.

Abstract: An opening-and-closing member drive control apparatus for a vehicle for driving the opening-and-closing member so as to be opened or closed by means of a driving force of a motor after an idling period or an idling section of the motor includes a moving speed detecting member, calculating means for calculating a moving speed changing value, a determining means for determining a sandwiching of an object on the basis of a relationship between the calculated moving speed changing value and a threshold value, a temperature estimating means for estimating a temperature of the motor on the basis of a rotational speed of the motor, detected in the idling period or the idling section, and correcting means for correcting the threshold value so that a determination sensitivity of the sandwiching of the object becomes greater when the estimated temperature of the motor is low than when the estimated temperature of the motor is high.