A vehicle lower structure includes: an introducing port into which air is introduced, the introducing port being provided to a front part of a vehicle; an air outlet from which the air blows, the air outlet being provided to an underfloor downward of a bumper cover in a vehicle-vertical direction, the bumper cover being located at the front part of the vehicle; and a spat provided frontward in a vehicle-longitudinal direction of a front wheel, the spat including: a front wall protruding from a front edge of the air outlet in the vehicle-longitudinal direction toward a vehicle-downward direction in the vehicle-vertical direction; and a rear wall protruding from a rear edge of air outlet in the vehicle-longitudinal direction toward the vehicle-downward direction, and the spat opening at both sides of the air outlet in a vehicle-width direction.

A front spoiler arrangement for a motor vehicle, comprising a support component, a flow guiding component, which is positioned on the support component in a movable way between a further retracted position and a further extracted position, a guiding formation, which guides the movement between the two positions and a moving actuator, which is coupled to the flow guiding component by way of a coupling element, the coupling element and at least one component of either the moving actuator and the flow guiding component are coupled to each other through a connection arrangement, which has a surmountable detent formation, which separates from each other two possible relative operating positions between a component and the coupling element, i.e. a normal operating position and an emergency operating position, wherein a retraction movement of the flow guiding component in the direction opposite to the further extracted position beyond a retracted end position is mechanically prevented.

A front spoiler arrangement for a motor vehicle, comprising a support component, a flow guiding component, which is positioned on the support component in a movable way between a further retracted position and a further extracted position, a guiding formation, which guides the movement between the two positions and a moving actuator, which is coupled to the flow guiding component by way of a coupling element, the coupling element and at least one component of either the moving actuator and the flow guiding component are coupled to each other through a connection arrangement, which has a surmountable detent formation, which separates from each other two possible relative operating positions between a component and the coupling element, i.e. a normal operating position and an emergency operating position, wherein a retraction movement of the flow guiding component in the direction opposite to the further extracted position beyond a retracted end position is mechanically prevented.

A vehicle includes a windshield having a top edge. The vehicle includes a roof extending rearward from the top edge of the windshield. The vehicle includes a sensor assembly supported by the roof, the sensor assembly including at least one of a LIDAR sensor or a camera. The vehicle includes a deflector movable from a lowered position to a raised position and supported by the roof at the top edge of the windshield forward of and spaced from the sensor assembly.

A spoiler lip for arranging on a front part of a vehicle is formed from a fiber composite plastic having at least one bidirectional reinforcing layer made of reinforcing fibers and a plastic matrix which contains an elastomer. The plastic matrix may also contain a thermoset in an embodiment of the spoiler lip.

The present disclosure is directed to a rotatable fairing panel at a rear end of a sleeper cab. The rotatable fairing panel covers an opening between a trailer attached to a vehicle and the sleeper cab of the vehicle. The rotatable fairing panel has a closed position and an opened position. At least one locking assembly locks the rotatable fairing panel in place when in the closed position. The at least one locking assembly is configured to be unlocked by a user such that the rotatable fairing panel may be rotated from the closed position to the opened position such that a user may access the opening between the trailer attached to the vehicle and the sleeper cab of the vehicle. The at least one locking assembly automatically locks when the user rotates the rotatable fairing panel into the closed position.

Apparatuses and methods reducing the amount of drag on a vehicle are provided. In some embodiments, the proposed apparatuses are configured to remain stowed in a sidewall of the vehicle when not in use, thereby maintaining the aesthetic appeal of the vehicle, while in other embodiments the apparatus is static and fixed along the sides of the vehicle. In one example, an aerodynamic apparatus includes a tapered structure, in which an inner side panel is substantially planar, and an outer side panel has a convex curvature.

A method and apparatus for controlling an airflow. The method draws air through a group of inlets. The group of inlets is located in a group of locations on the vehicle such that the group of inlets actively controls the airflow relative to an aircraft when drawing the air. The method compresses the air drawn by the group of inlets in a group of air compressor units located in an aircraft structure to form pressurized air. Further, the method sends the pressurized air through a group of exit ports in the aircraft structure. The pressurized air flowing out of the group of exit ports actively controls the airflow for an aircraft, enabling an improved performance of the aircraft.

A method and apparatus for controlling an airflow. The method draws air through a group of inlets. The group of inlets is located in a group of locations on the vehicle such that the group of inlets actively controls the airflow relative to an aircraft when drawing the air. The method compresses the air drawn by the group of inlets in a group of air compressor units located in an aircraft structure to form pressurized air. Further, the method sends the pressurized air through a group of exit ports in the aircraft structure. The pressurized air flowing out of the group of exit ports actively controls the airflow for an aircraft, enabling an improved performance of the aircraft.

A motor vehicle includes a high-mounted brake light which is arranged on a rear part of the motor vehicle, and an energy source for making available energy for the motor vehicle. A charging plate is connected to the energy source, and the charging plate is arranged in a rear portion of the motor vehicle. The rear part is a wing of a spoiler, and a receiver coil is arranged in the rear part. The receiver coil can be coupled in a wireless fashion to the charging plate for contactless transfer of energy between the brake light and the energy source.