An air deflection ring that is configured to be attached to a wheel of a motor vehicle that includes a barrel including a cylindrical inner surface and an opposing cylindrical outer surface, a plurality of spokes that are each separated by an opening and attach the barrel to a center of the wheel. The air deflection ring includes a cylindrical mounting ring that is configured to be fixed to the cylindrical inner surface of the barrel, and an air deflection flange that extends radially inwardly toward the center of the wheel from the cylindrical mounting ring. The cylindrical mounting ring is configured to be fixed to the cylindrical inner surface of the barrel at a location positioned immediately adjacent to the plurality of spokes, and the air deflection flange is configured to direct a flow of air away from the openings during rotation of the wheel.

A wind-diverting apparatus for minimally shielding only the faster-moving drag-sensitive uppermost wheel surfaces from headwinds reduces overall vehicle drag. The apparatus includes various upper wheel fairings of FIGS. 1-6. Each fairing shields a primary vehicle-drag-inducing upper wheel surface from headwinds otherwise impinging directly thereon.

Aerodynamic wheel covers may include a hub assembly coupled with a hub of a large vehicle, such as a truck. A base assembly may be coupled to the hub assembly, and a disk assembly may be coupled with the base assembly such that removal and installation of the disk assembly may be accomplished without tools.

A method for producing a one-piece cast vehicle wheel, the wheel having at least one hub portion connected to a wheel rim via at least one spoke oriented in the radial direction of the wheel, in which at least one lost core is inserted in a molding of the casting machine, the one-piece vehicle wheel is cast, and the lost core is removed from the cast vehicle wheel and thereby forms at least one opening in the spoke. A one-piece cast vehicle wheel formed by the method is also provided.

An insert rubber for improving aerodynamics of a tire and an installation method thereof, and provides an insert rubber for improving aerodynamics of a tire and an installation method thereof, in which, by eliminating a space which is located between a bead of a tire and a flange of a rim, airflow is prevented from being introduced between the bead and the flange while a vehicle travels, and the space between the bead and the flange is filled with the insert rubber, thereby preventing turbulence from being generated in the space between the bead and the flange.

An adapter assembly that allows a wheel cover to be attached to a wheel has an insert, a plug, a key and a wrench. The insert attaches through a hole in the wheel cover and has prongs that lock behind a cap lip of the wheel. The plug is screwed into the insert via the wrench, and plug threads push out on the prongs, securing them behind the cap lip. The key is inserted into a locking space between the outer surface of the plug and the inner surface of the insert.

A variable aerodynamic wheel includes: a spoke wheel having a plurality of spokes connecting a hub and a rim together are spaced apart from each other, and a plurality of through spaces defined between the plurality of spokes to allow air to pass therethrough; a variable flap rotatably disposed in the plurality of through spaces of the spoke wheel, and configured in a shape to cover an associated through space so as to open or close the associated through space according to a rotation angle thereof; and a drive unit disposed in the spoke wheel, and connected to the variable flap such that the rotation angle of the variable flap is adjusted as rotational power is transmitted.

A wheel cover assembly for a vehicle wheel is provided. The wheel cover assembly includes a mounting apparatus and a wheel cover. The mounting apparatus is adapted for mounting on lug nuts of a vehicle wheel. The mounting apparatus is adjustable in both axial and radial directions. Dual quick release connections releasably connect the wheel cover to the mounting apparatus. The wheel cover may include a plurality of ventilation openings, and a plurality of radially extending fan blades may be disposed on an inner surface of the wheel cover.

The present disclosure is directed to a wheel cover that is coupled to a wheel of a vehicle utilizing a mounting assembly that has a bearing block. A retainer assembly in combination with the bearing block of the mounting assembly allows the wheel cover to be coupled to the wheel in a manner such that the wheel cover does not rotate with the forward and backward rotation of the wheel when the vehicle is being driven. The wheel cover covers the wheel and partially covers a gap or space between a tire of the wheel and a fender of the vehicle, which increases the aerodynamic performance of the vehicle. The retainer assembly provides at least one degree of freedom such that the wheel cover may move with the wheel when steering the vehicle in a leftward direction and a rightward direction.

A bicycle disc wheel comprises a first disc panel and a second disc panel. The first disc panel has a first side outer surface and a first side inner surface and the second disc panel has a second side outer surface and a second side inner surface. The first side outer surface radially extends from a first disc panel outer perimeter to a center opening and the second side outer surface radially extends from a second disc panel outer perimeter to the center opening. The second side inner surface faces the first side inner surface. A brace is coupled to the first side inner surface and the second side inner surface that provide radial and axial structural support to the disc panels.