A vehicle is disclosed. The vehicle includes a passenger cabin; a steering wheel having a hub and a rim; and a ventilation system having a first air outlet for discharging a first jet of air, and a second air outlet for discharging a second jet of air. The first jet of air projects through a gap between the hub and the rim, and the second jet of air intersects and deflects the first jet of air.

A vehicle dashboard includes a trim panel defining an airflow opening. At least one register duct defines a register opening. The at least one register duct is disposed adjacent to the trim panel and the register opening aligns with the airflow opening. At least one demister duct defines a demister opening. The at least one demister duct is disposed adjacent to the trim panel and the demister opening aligns with the airflow opening. A first air deflector slidably engaged with the at least one register duct. A second air deflector slidably engaged with the at least one register duct.

A vehicle interior ventilation system has air outlet slots in a dashboard or a different panel of the vehicle. A display is provided in the dashboard or the different panel, on which display the air flow direction of an airflow resulting from the airflows coming from the air outlet slots can be displayed.

A vehicle has a windshield, a cladding element having a front surface, which faces the windshield, a rear surface, which faces away from the windshield, and a top surface, which is arranged between the front surface and the rear surface and is angled toward the front surface and rear surface. An airflow element has a wall element, a grille element and an air inlet. At least the front surface and the top surface of the cladding element have a recess in which the wall element and the grille element are arranged. The grille element is designed to direct air from the airflow element to the windshield.

A heating system for a windshield of a vehicle, in which a fan unit is configured to produce a hot air flow at the inner side of the windshield. In order to enable efficient heating of a windshield of an electric vehicle, there is provision for the heating system to have an at least predominantly transparent partition unit, which in a shielding position is secured in the vehicle in such a manner that it is arranged in the longitudinal vehicle direction between at least a predominant portion of the windshield and an inner region which is provided for passengers, whereby the hot air flow can be guided at least partially in a heating region between the windshield and the partition unit.

A vehicle is disclosed. The vehicle includes a passenger cabin; a steering assembly including a steering wheel mounted on a steering column assembly; and a ventilation system having a first air outlet for discharging a first jet of air, and a second air outlet for discharging a second jet of air. The first air outlet and the second air outlet are located on the steering column and the second jet of air intersects and deflects the first jet of air.

A vehicle air feeding system for introducing air with smell associated with a component of a vehicle powertrain into a vehicle passenger compartment. The air feeding system includes an air inlet located adjacent the component of the powertrain, an air outlet located in the vehicle passenger compartment, and an air duct arrangement providing a flow path from the air inlet to the air outlet and configured for guiding air with smell associated with the component of the vehicle powertrain from the air inlet to the air outlet.

An air outlet device for an air-conditioning system of a vehicle includes an air outlet assembly disposed at air vents of the air-conditioning system and a control unit. The air outlet assembly includes a plurality of first air doors and a plurality of driving components, the plurality of driving components are respectively connected to the plurality of first air doors, and each driving component is configured to drive the corresponding first air door. The control unit is connected to the plurality of driving components, and is configured to control the plurality of driving components to drive the plurality of first air doors to open or close independently.

In a defroster structure, a first guide member is provided further toward a vehicle front side than a front-rear partitioning wall and at a vehicle transverse direction outer side, at an interior of a blow-out port. A second guide member is provided further toward a vehicle rear side than the front-rear partitioning wall and at the vehicle transverse direction outer side, at the interior of the blow-out port. The first guide member and the second guide member respectively extend toward the vehicle transverse direction outer side from a vehicle lower side toward a vehicle upper side.

An air duct assembly for a vehicle air distribution system includes a first duct defining a first passage and a second duct defining a second passage separate from the first passage. The first and second passages are fluidly connected to a common outlet for flowing air to a windshield of the vehicle. The assembly further includes a third duct defining a third passage for flowing air to a side glass of the vehicle. The second and third passages are fluidly connected to a common inlet for receiving air from the blower motor. The third passage is fluidly connected to a lateral outlet that is separate from the common outlet, with the lateral outlet flowing air to a side glass of the vehicle. The assembly further includes at least one acoustic baffle disposed within the second passage and configured to reduce a transmission of the blower noise through the second passage.