A lower aerodynamic screen of a front shield of a motor vehicle includes lateral air guides shaped to channel air passing under the aerodynamic screen towards front disc brakes of the vehicle, wherein each air guide is defined by two substantially vertical lateral walls and by an upper wall linked to upper edges of the lateral walls, the air guide being provided, downstream relative to a direction of flow of the air, with a window defined by rear edges of the lateral walls and the upper wall, from which the air emerges towards the disc brakes, the air guide further including a flap that is movable between a position in which it blocks the window and a position in which it is retracted from the window.

A lower aerodynamic screen of a front shield of a motor vehicle includes lateral air guides shaped to channel air passing under the aerodynamic screen towards front disc brakes of the vehicle, wherein each air guide is defined by two substantially vertical lateral walls and by an upper wall linked to upper edges of the lateral walls, the air guide being provided, downstream relative to a direction of flow of the air, with a window defined by rear edges of the lateral walls and the upper wall, from which the air emerges towards the disc brakes, the air guide further including a flap that is movable between a position in which it blocks the window and a position in which it is retracted from the window.

A brake rotor for attachment to a wheel of a vehicle may include outer and inner friction members, and a plurality of fin elements connecting the outer friction member to the inner friction member. Each fin element may include radially spaced first and second pillars that are connected by a single bridge portion to define an opening in the fin element. The opening may also be defined by an interior surface of one of the annular disks. The opening may be tapered along an entire length between a first pillar and a second pillar. A width of each fin element may taper toward a center of the brake rotor.

A brake rotor for attachment to a wheel of a vehicle may include outer and inner friction members, and a plurality of fin elements connecting the outer friction member to the inner friction member. Each fin element may include radially spaced first and second pillars that are connected by a single bridge portion to define an opening in the fin element. The opening may also be defined by an interior surface of one of the annular disks. The opening may be tapered along an entire length between a first pillar and a second pillar. A width of each fin element may taper toward a center of the brake rotor.

A system for use in connection with a wheel torque generating component in a heavy-duty vehicle. The system comprises a fluid conduit, a compressor configured to provide a pressurized air flow through the fluid conduit, a mass flow adding arrangement configured to add a fluid to the pressurized air flow in the fluid conduit, thereby increasing the mass flow of the pressurized air flow, and a flow directing device arranged downstream of the mass flow adding arrangement and configured to direct the pressurized air flow, including the added fluid, from the fluid conduit to the wheel torque generating component so as to control the temperature of the wheel torque generating component. The invention also relates to a method for use in connection with a wheel torque generating component in a heavy-duty vehicle.

A system for use in connection with a wheel torque generating component in a heavy-duty vehicle, comprising a fluid conduit, a flow creating device configured to provide a pressurized air flow through the fluid conduit, a flow directing device enabling the pressurized air flow to be directed from the fluid conduit to the wheel torque generating component so as to control the temperature of the wheel torque generating component, and a control unit configured to compare a determined first temperature of the pressurized air flow with a determined second temperature of the wheel torque generating component, wherein the control unit is configured to, based on the comparison of the first temperature and the second temperature, selectively control the flow directing device to direct the pressurized air flow to the wheel torque generating component. The invention also relates to a method.

A heat shield assembly for a wheel is disclosed. The heat shield assembly includes a heat shield having a pair of heat shield ends. A bifurcated seam mounting bracket includes a first bracket section that is fixed relative one of the heat shield ends, along with a second bracket section that is fixed relative to the other of the heat shield ends. The second bracket section may be directly mounted to the heat shield. A seam clasp section may be directly mounted to both the heat shield and the first bracket section such that the first bracket section is indirectly mounted to the heat shield.

A heat shield assembly for a wheel is disclosed. The heat shield assembly includes a heat shield having a pair of heat shield ends. A bifurcated seam mounting bracket includes a first bracket section that is fixed relative one of the heat shield ends, along with a second bracket section that is fixed relative to the other of the heat shield ends. The second bracket section may be directly mounted to the heat shield. A seam clasp section may be directly mounted to both the heat shield and the first bracket section such that the first bracket section is indirectly mounted to the heat shield.

The present invention provides a wheel hub for a vehicle, including: a) a wheel axle defining an axis of rotation for the wheel; b) a hub body rotatably coupled to the axle for rotation about the axis of rotation, the hub body defining an internal cavity; and, c) a braking assembly, including: i) at least one first annular plate disposed within the internal cavity about the axle, the at least one first annular plate rotatably fixed with respect to the hub body so as to rotate therewith about the axis of rotation; ii) at least one second annular plate disposed within the internal cavity about the axle and adjacent to the at least one first annular plate, the at least one second annular plate rotatably fixed with respect to the axle, and at least one of the first and second annular plates being slidably movable within at least part of the internal cavity; and, iii) an actuator disposed within the internal cavity and configured in use, to cause an axial load to be applied to the slidably movable plate to thereby cause the at least one first and second annular plates to frictionally engage thereby applying a braking load between the hub body and wheel axle so as to brake the wheel of the vehicle.

The invention relates to a braking device (1) of an aircraft wheel, comprising a ring (15) which has a plurality of cavities (17) in which actuators (18) are fitted in order to apply a braking force to a stack of discs (11) which extend opposite the ring. The ring is provided with a heat shield (25) which extends opposite a face of the ring directed towards the stack of discs in order to protect the ring from thermal radiation which is generated by the stack of discs.

According to the disclosure, the heat shield is provided with holes (26) through which the actuators extend and which have a sectional profile which is formed to reflect the thermal radiation away from the device.