An air outlet for controlling airflow in a vehicle includes a housing having an air inlet and an air outlet, with first and second walls between the air inlet and the air outlet wherein the first wall is spaced from the second wall, an airfoil located within the housing, and a handle moveably mounted to the airfoil by a coupling.

An outlet device is provided. In operation, the outlet device generates an outlet flow and includes: a housing with an inner surface forming a channel which extends between an air inlet orifice and an air outlet orifice, a first air-directing surface which together with a first inner surface section forms a first air channel, a second air-directing surface which lies contrary to the first air-directing surface and which together with a second inner surface section forms a second air channel, a first flap which is pivotable around a first adjustment axis which runs transversely the housing centerline and a second flap which is pivotable around a second adjustment axis which runs transversely the housing centerline, an adjustment device which comprises a control device and a coupling device, wherein the coupling device is actuatable by the control device and couples the pivoting motions of the first flap and the second flap.

A variable air vent is provided. The air vent includes a housing that is mounted on a vehicle and has an open center. A ball housing is coupled to the housing and has an inner side surface that is formed in a curved surface. A ball configured has front and rear surfaces opened and a side surface that is inserted into the ball housing in a curved surface form corresponding to the ball housing. A first knob and a second knob are vertically disposed on the front and rear surfaces of the ball and a plurality of discharge range adjusting wings have a first rotating shaft that is integrally formed at one end of a flat plate. A first side of the first rotating shaft is inserted into the ball and a second side thereof includes a first wing gear inserted into the second knob.

An air outlet device for feeding air to a vehicle interior of a motor vehicle in a controlled manner includes an air flow duct and an air outlet opening element with an air outlet opening. The air flow duct is connected to the air outlet opening element and is adapted to conduct air from an interior ventilation device into the vehicle interior via the air outlet opening. The air flow duct has a first duct segment and a second duct segment, which is arranged between the first duct segment and the air outlet opening element. The first duct segment can be displaced in direction transverse to the longitudinal axis of the first duct segment. The first duct segment is designed to control a direction of the air flowing out of the air outlet opening in accordance with the displacement of the first duct segment. At least one fin-like, movable air-conducting element is arranged in the first duct segment, can be displaced together with the first duct segment, and is adapted to control a direction of the air flowing in the first duct segment and thus a direction of the air flowing out of the air outlet opening in accordance with the position of the air-conducting element.

Disclosed is a vent assembly that includes a fin/actuator sub-assembly that includes an aperture, an inner ring that includes a plurality of protrusions, each protrusion including a retention surface, and an annular retaining member, wherein when the annular retaining member is in a retaining engagement with the fin/actuator sub-assembly and the inner ring, a portion of the annular retaining member is disposed within the aperture of the fin/actuator sub-assembly, and portions of the annular retaining member contact the retention surfaces of the protrusions of the inner ring.

An air register for use in a vehicle includes a vent housing having an outlet. A frame member is operably coupled to the sidewalls of the outlet and contains a perimeter wall framing an open central portion. Disposed within the open central portion is a plurality of chambers operably coupled to the frame member and movable between first and second positions. Each chamber includes a perimeter wall having vertical and horizontal surfaces disposed in a common plane around an open interior portion.

An air conditioning blower hole apparatus is provided which is capable of suppressing a looseness of a fin, and of decreasing production costs. This air conditioning blower hole apparatus includes: a plurality of fins; and a link coupled with the plurality of fins. At least one fin includes: a fin body; a large-diameter shaft part extending from the fin body; a small-diameter shaft part extending from the large-diameter shaft part, and having a smaller diameter than a diameter of the large-diameter shaft part; and a retainer part provided at a tip of the small-diameter shaft part, and having a larger diameter than the small-diameter shaft part. The link is provided with a large-diameter hole corresponding to the large-diameter shaft part and a small-diameter hole corresponding to the small-diameter shaft part. A gap is secured between the small-diameter shaft part and the small-diameter hole.

A register includes an annular fin that can improve the directivity of air conditioning air while suppressing increase in the number of parts. A front fin includes an annular-shaped annular fin portion. A bezel has upstream side inclined surfaces formed on inner peripheral surfaces facing with each other in the shorter side direction (vertical direction) of an air blow outlet. The upstream side inclined surfaces incline toward a direction of approaching the annular fin portion from an upstream side toward a downstream side of an air blowing direction. An air conditioning air flowing in the air blowing direction is guided to the annular fin portion side by the upstream side inclined surfaces.

An airflow outlet assembly and a passenger compartment for a vehicle are disclosed. The airflow outlet assembly includes a support member and a first outlet component. The first outlet component includes a first plate and a first vane extending outwardly from the first plate. The first outlet component is supported by the support member. The airflow outlet assembly further includes a second outlet component. The second outlet component includes a second plate and a second vane extending outwardly from the second plate. The second outlet component is supported by the support member. The first and second outlet components are rotatably coupled to each other such that rotation of the first and second outlet components in opposite directions changes the position of the first and second plates and the first and second vanes relative to the support member.

On a centerline parallel to an air blowing direction inside a retainer, a ball joint with a ball is disposed. On a turning louver, a central axial support portion from which axial support portions are projected radially is disposed at the center of a cylindrical frame. The central axial support portion is attached tiltably and turnably by fitting a ball hole provided at the center with the ball. Inside the cylindrical frame, movable fins are axially supported turnably at substantially even intervals by pivots in radial directions, and the inner-side portions of each movable fin are axially supported by each axial support portion. To the front surface side center of the central axial support portion, an operation portion is fitted turnably around the centerline of the turning louver, and the operation portion is linked to the inner-side portions of each movable fin via a bevel gear mechanism.