A vehicle-body front structure includes a partition wall portion which demarcates a space inside a vehicle cabin, a motor arrangement portion which is formed by causing a part of the partition wall portion to bulge to an inside of the vehicle cabin and in which at least a part of a traveling motor is capable of being arranged, a reinforcement member which is inclined to be positioned lower toward vehicle rear, and a floor reinforcement which extends in a vehicle front-rear direction. A closed cross-section is configured with the motor arrangement portion, the reinforcement member, and the floor reinforcement.

A work vehicle includes a vehicle body, and a mud guard device attached to the vehicle body. The mud guard device has a cylindrical support pipe fixed to the vehicle body, a support shaft supported by being inserted into the support pipe, and a mud guard supported by the support shaft. Alternatively, the mud guard device has a support shaft fixed to the vehicle body, a cylindrical support pipe supported by the support shaft being inserted in the cylindrical support pipe, and a mud guard supported by the support pipe.

A vehicle body structure includes a fender apron member, a shock absorber housing joined to the fender apron member, and a side reinforcement member configured to connect the fender apron member and the shock absorber housing to a lower side of a front pillar and reinforce a side surface of an engine room, wherein the shock absorber housing and the side reinforcement member comprise stepped joining portions corresponding to and joined to each other.

A vehicle body structure includes a fender apron member, a shock absorber housing joined to the fender apron member, and a side reinforcement member configured to connect the fender apron member and the shock absorber housing to a lower side of a front pillar and reinforce a side surface of an engine room, wherein the shock absorber housing and the side reinforcement member comprise stepped joining portions corresponding to and joined to each other.

A fender for a vehicle includes a first set of an inner member and an outer member at a first position, and a second set of the inner member and the outer member at a second position that is longitudinally offset from the first position. The fender also includes a fabric disposed between the inner member and the outer member of the first set at a first end and the inner member and the outer member of the second set at a second end. The fabric extends longitudinally between the first set and the second set.

An apparatus includes a fender base cap bracket shaped to cover a base of a fender of a vehicle; a fender mount defined on the fender base cap bracket; and a mud flap mount defined on the fender base cap bracket. A kit has a fender base cap bracket shaped to cover a base of a fender of a vehicle, the fender base cap bracket having a fender mount defined on the fender base cap bracket, and a mud flap mount defined on the fender base cap bracket; and a mud flap structured to mount to the mud flap mount. A method involves securing a fender base cap bracket to a base of a fender of a vehicle, such that the fender base cap bracket covers the base of the fender, the fender base cap bracket defining a mud flap mount.

A vehicle body side structure is provided. A vehicle body side structure includes a front fender, a side sill garnish, and an aerodynamic duct. The front fender has a fender recess portion below a first wheel arch portion. The side sill garnish has a second wheel arch portion that faces the fender recess portion at the outer side in the vehicle width direction at interval and faces a rear end of the first wheel arch portion. The aerodynamic duct is interposed between the second wheel arch portion and the fender recess portion. The width of the second wheel arch portion gradually decreases in the front-rear direction of the vehicle body as it extends upward from the front end portion of the side sill garnish to an upper edge.

A sensor cooling and cleaning system for a vehicle includes an inlet that is coupled to an air intake of a vehicle body and positioned to receive ram air when the vehicle is in forward motion. The system includes a passive air conditioning device that is configured to remove moisture from the ram air received through the inlet to produce conditioned air. The system also includes an outlet that is positioned adjacent to and upstream of sensor to direct the conditioned air from the passive air conditioning device toward a stagnation point that is located upstream of the sensor, during the forward motion of the vehicle.

A sensor cooling and cleaning system for a vehicle includes an inlet that is coupled to an air intake of a vehicle body and positioned to receive ram air when the vehicle is in forward motion. The system includes a passive air conditioning device that is configured to remove moisture from the ram air received through the inlet to produce conditioned air. The system also includes an outlet that is positioned adjacent to and upstream of sensor to direct the conditioned air from the passive air conditioning device toward a stagnation point that is located upstream of the sensor, during the forward motion of the vehicle.

A rotating mudguard assembly having fixed and rotating parts includes a locking mechanism to limit the relative movement between the fixed and rotating parts of the assembly. The locking mechanism has a locking pin which can selectively engage with a locking plate, the pin and the plate on respective parts of the rotating mudguard assembly. The locking mechanism may be an integral part of the assembly, or the locking mechanism may be a kit of parts for installation on or retrofitting to an assembly.