Assembly of a rim and of a flexible adapter, intended to make up, with a tyre, a rolling assembly. The rim having a mounting well that is extended axially by a boss, a rim seat and a rim flange that extends the rim seat axially on the outside, with a bearing face of substantially radial orientation. The adapter having an axially inner end intended to rest on the rim seat, an axially outer end and a substantially cylindrical body that connects the axially inner end and the axially outer end and is intended to receive, in cooperation with the axially outer end, a tyre bead. The rim seat of the rim has an inclination relative to the axis of rotation of between ?2 and +6 degrees, the angle being counted as positive when the virtual vertex of the substantially frustoconical seat is situated axially on the outside.

Assembly of a rim and of a flexible adapter, intended to make up, with a tyre, a rolling assembly. The rim having a mounting well that is extended axially by a boss, a rim seat and a rim flange that extends the rim seat axially on the outside, with a bearing face of substantially radial orientation. The adapter having an axially inner end intended to rest on the rim seat, an axially outer end and a substantially cylindrical body that connects the axially inner end and the axially outer end and is intended to receive, in cooperation with the axially outer end, a tyre bead. The rim seat of the rim has an inclination relative to the axis of rotation of between ?2 and +6 degrees, the angle being counted as positive when the virtual vertex of the substantially frustoconical seat is situated axially on the outside.

A road wheel for a tracked vehicle includes a first rim half and a second rim half operatively connected to the first rim half. The first rim half includes at least a first portion that is angled away from the second rim half. The second rim half includes at least a first portion that is angled away from the first rim half. A hollow cavity is formed between the first portion of the first rim half and the first portion of the second rim half.

A wheel (1) includes a rim (2) and a wheel center (3) made from a fiber reinforced composite material. The wheel center (3) includes a tubular middle section (6) having a center opening (7) extending in the direction of a wheel axis (19) and having a first and a second end (8, 9). A hub (5) includes a first flange ring (10) and a second flange ring (11). At least one of the flange rings (10, 11) and the tubular middle section (6) are interconnected to each other by a form fit interconnection (12, 13).

A rim for a tire for means of displacement preferably for heavy loads at low-speed. The rim may include a main tubular body having a cylindrical surface extending between two lateral edges, a bead-seat having a greater diameter than the cylindrical surface of the tubular body and overlapped to it and at least a side-ring being overlapped to one of the lateral edges for the lateral containment of the tire. The rim may include compensating means interposed between the cylindrical surface of the tubular body and the bead-seat and in contact with them to realise a compensation in thickness.

A wheel assembly includes a first rim piece for engaging a rotatable axle; and a second rim piece for engaging the rotatable axle. The first rim piece has axially extending curved friction plates for engaging a first side of a spoke structure of a tire. Axially outer ends of the friction plates engage axially extending lugs of the second rim piece to form a single split wheel assembly.

An apparatus and methods are provided for a bead-locking wheel for mechanically coupling a tire to a wheel rim of an off-road vehicle. The bead-locking wheel includes a barrel for mounting the tire and a bead lock face for fastening the barrel and tire to a wheel hub of the vehicle. The bead lock face is fastened to a shoulder disposed around an outboard end of the barrel. The shoulder and an outboard flange of the barrel cooperate with a periphery of the bead lock face to mechanically retain an outboard bead of the tire. Mechanically retaining the outboard bead facilitates a relatively low inflation pressure within the tire to accommodate off-road conditions and high tractive forces. The bead lock face maximizes a positive offset and backspacing of the bead-locking wheel to accommodate a relatively wide hub and spindle assembly while maintaining an advantageous steering geometry and track width.

An apparatus and methods are provided for a bead-locking wheel for mechanically coupling a tire to a wheel rim of an off-road vehicle. The bead-locking wheel includes a barrel for mounting the tire and a bead lock face for fastening the barrel and tire to a wheel hub of the vehicle. The bead lock face is fastened to a shoulder disposed around an outboard end of the barrel. The shoulder and an outboard flange of the barrel cooperate with a periphery of the bead lock face to mechanically retain an outboard bead of the tire. Mechanically retaining the outboard bead facilitates a relatively low inflation pressure within the tire to accommodate off-road conditions and high tractive forces. The bead lock face maximizes a positive offset and backspacing of the bead-locking wheel to accommodate a relatively wide hub and spindle assembly while maintaining an advantageous steering geometry and track width.

An aircraft wheel assembly that includes first and second hub components having an axis and respective first and second sets of circumferentially spaced apart interface elements. The first and second hub components may be rotatable relative to one another about the axis between a first position and a second position. In the first position, the first set of interface elements is axially movable relative to the second set of interface elements. In the second position the first set of interface elements axially overlaps the second set of interface elements to prevent axial movement of the first hub component relative to the second hub component.

An aircraft wheel assembly that includes first and second hub components having an axis and respective first and second sets of circumferentially spaced apart interface elements. The first and second hub components may be rotatable relative to one another about the axis between a first position and a second position. In the first position, the first set of interface elements is axially movable relative to the second set of interface elements. In the second position the first set of interface elements axially overlaps the second set of interface elements to prevent axial movement of the first hub component relative to the second hub component.