This application relates to a wind deflector for use with a vehicle sunroof, wherein the wind deflector has a relaxed position and a compressed position. The wind deflector moves between these positions dependent on the position of the vehicle sunroof.
Vehicle sunroofs are widely utilized in modern vehicles. In a vehicle sunroof, a panel moves forwardly and rearwardly within an opening in a vehicle roof. The vehicle sunroof is moved to a rearward position to provide a vehicle occupant with the feeling of an open roof. When the vehicle sunroof is open, certain challenges are raised. Wind moves into the vehicle through a forward end of the opening, creating undesirable noise and airflow.
Wind deflectors have been positioned at the forward end of the opening to address these problems. Known wind deflectors have typically extended upwardly to deflect the wind away from the opening. Traditionally, these wind deflectors are spring biased to pivot between a concealed position, and an extended, wind deflecting position, when the panel has been moved rearwardly to an open position. In general, known wind deflectors have included multiple parts, and have been relatively expensive and complex.
It would be desirable to create a simplified wind deflector that reliably moves between the wind deflecting and concealed positions.
In the disclosed embodiment of this invention, a wind deflector includes a one piece resilient member that has a relaxed position and a concealed position. A sunroof panel opens or closes an opening formed in a vehicle roof. The sunroof panel controls movement of the resilient member between the relaxed position and the concealed position. The resilient member is in the relaxed position, extending upwardly, when the sunroof panel is in a rearward or open position. When the sunroof panel moves forwardly, the sunroof panel forces the resilient member away from the relaxed position to the concealed position. The wind deflector thus provides a wind deflecting function without the need for separate springs or connecting parts.
In one example, the wind deflector includes a pivot at one end. The pivot is pivotally mounted in a frame. An opposite end of the wind deflector is slidable relative to the frame. The pivot is positioned closer to the opening than the opposite end. In one example, the opposite end includes a pin that slides within a slot. In another example, the wind deflector has a curved surface adjacent the opposite end that is slidable within a track as the wind deflector moves between the relaxed position and concealed position.
The resilient member may be formed of a single sheet of stamped spring steel. The resilient member may be thinned out at an appropriate location to assist the movement of the wind deflector to the concealed position from the relaxed position.
These and other features of the present invention can be best understood from the following specification and drawings, the following of which is a brief description.
A wind deflector 29 has a frame 24 for a resilient member 30. Frame 24 includes a slot 26 at one end and a pivot mount 28 at an opposite end. The resilient member 30 has a moving pin 34, which moves within the slot 26, and a pivot pin 36 that is pivotally mounted within the pivot mount 28.
The moving panel 22 has a contact surface 32 that forces the resilient member 30 to a concealed position as shown in
As shown in
Resilient member 30 is preferably made of a resilient material. In one embodiment, the resilient member 30 is formed as one piece from a spring steel.
As shown in
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Although preferred embodiments of this invention have been disclosed, a worker of ordinary skill in this art would recognize that certain modifications would come within the scope of this invention. For that reason, the following claims should be studied to determine the true scope and content of this invention.