A hub and a wheel having such a hub. The hub includes a hub shell and an axle to rotatably receive the hub shell. The hub shell is provided with circumferential hub flanges for accommodation and defined orientation of a plurality of spokes. Each of the spokes includes a spoke body and a spoke head. The hub flanges include a plurality of accommodation sections to receive one spoke head each. The accommodation sections are axially disposed on the hub flanges. Each of the accommodation sections has one spoke feed-through assigned to it, through which an accommodated spoke can be guided out of the accommodation section. Two spoke feed-throughs each are provided with one joint and circumferentially closed outlet opening in the hub flanges. The hub flanges enclose the outlet opening integrally.

A hub and a wheel having such a hub are provided. The hub includes a hub shell and an axle to rotatably receive the hub shell. The hub shell is provided with circumferential hub flanges serving for accommodation and defined orientation of a plurality of spokes. Each of the spokes has a spoke body and a spoke head. The hub flanges include a plurality of accommodation sections receiving a spoke head each. Each of the accommodation sections has one spoke feed-through assigned to it through which an accommodated spoke can be guided out of the accommodation section. The hub flange includes two different types of accommodation sections. A first type includes a circumferentially closed spoke feed-through and a second type, a circumferentially opened spoke feed-through.

A tubeless spoked wheel including a rim and a hub connected with wire spokes includes a rim that has no through-hole and is narrow in the vehicle width direction. A plurality of internal threads are aligned circumferentially in an annular raised portion arranged along the centerline of a rim. A connecting member that is hollow and has an external thread on its outer periphery is screwed into each internal thread. Each connecting member is pre-engaged with a distal end of a spoke in a rotatable manner. Each spoke bends at a position outward from the connecting member, tilts toward a hub, and has its basal end connected to a right or left flange of the hub with a nipple. The spokes are connected to the annular raised portion to narrow the rim in the vehicle width direction. The spokes are rotatably supported on the connecting members.

A spoke for an at least partially muscle-powered bicycle and wheel including a spoke where the spoke comprises a spoke body with a hub-side, first end and a rim-side, second end and the first end and the second end are remote from one another. The spoke body is elongated and includes at least one first center region disposed closer to the first end than to the second end, and at least one second center region disposed closer to the second end than to the first end. The first center region and in the second center region of the spoke body each include flattened cross-sections substantially accommodated in a longitudinal plane. In the second center region the spoke body is configured more asymmetric than in the first center region.

A wheel with high strength flexible spokes of the present invention, including a rim and hub, and spokes between the rim and hub made of fibrous material that causes the spokes to be both lighter in weight and stronger than comparable steel spokes. The spokes are also flexible and resilient such that they can bend while retaining their integrity and strength. The wheel includes a nipple within the rim that receives the high strength spoke and allows for flexibility in adapting the spoke to wheels having differing shapes and sizes.

A bicycle disc wheel or spoked wheel (10) is disclosed, comprising a hub (12), a rim (14) and at least one disc or spoke-type structural element (60) integral with the hub (12) and the rim (14), wherein said at least one structural element (60) is pretensioned. A process for manufacturing thereof comprises the sequential steps of providing a hub (12) and a rim (14), applying a compression on the rim (14) towards the hub (12) elastically deforming it, rendering at least one disc or spoke-type structural element (60) integral with the hub (12) and the rim (14), and removing the compression onto the rim (14) applied in step a).

A method of mounting a non-pneumatic tire onto a hub to provide a non-pneumatic wheel is provided. Certain portions of spokes of the non-pneumatic tire are connected to grooves along the hub. The tire is repeatedly rotated and deformed to allow the remaining portions of the spokes to be connected with the grooves in order to fully mount the tire onto the hub.

A vehicle wheel including a rim, a hub, and a plurality of spokes extending with a span portion between the rim hub. The rim and/or hub constitutes a bracing element. A connecting element is connected to the bracing element and includes an external surface, an internal cavity. A spoke has a longitudinal axis and an external spoke surface that that overlaps the internal cavity in an overlap region, and a pre-formed lateral spoke surface. The connecting element is crimped to create a crimped joinder with the spoke such that the connector surface is pressed and plastically deformed to displace the internal cavity toward the spoke surface in the overlap region to cause a lateral connector surface to laterally overlap the lateral spoke surface to create an overlie engagement and/or to increase a lateral overlap between a lateral connector surface and the lateral spoke surface in an overlie engagement. The overlie engagement supports spoke tensile load.

A bicycle hub comprises a tubular body and a spoke attachment part. The tubular body has a rotational axis. The spoke attachment part includes an attachment opening through which a spoke is to extend. The attachment opening includes a first end opening through which the spoke is to extend, and a second end opening through which the spoke is to extend. The second end opening is provided outward of the first end opening in a radial direction perpendicular to the rotational axis. The second end opening has a first maximum length and a second maximum length. The first maximum length is defined in a circumferential direction defined about the rotational axis. The second maximum length is defined in an axial direction parallel to the rotational axis. The first maximum length is larger than the second maximum length.