There is provided a misalignment detecting device being capable of detecting and correcting distortion of a spoked wheel with a simple configuration. The misalignment detecting device includes: supporting frames 12a, 12b to which the spoked wheel 30 to be inspected is set; a first light source 13 that is attached to the supporting frame and irradiates first detected light to the spoked wheel set on the supporting frame in an axial direction of the spoked wheel; a first line sensor 14 that is attached to the supporting frame so as to be capable of receiving the first detected light and detects radial distortion of the spoked wheel without contact based on the received first detected light; a second light source 15 that is attached to the supporting frame and irradiates second detected light to the spoked wheel set on the supporting frame in a direction intersecting the axial direction of the spoked wheel; and a second line sensor 16 that is attached to the supporting frame so as to be capable of receiving the second detected light and detects axial distortion of the spoked wheel without contact based on the received second detected light.

A vehicle wheel, including a rim, a hub, and a plurality of spokes, a first anchor to connect one of the spokes to one of the rim and hub at a connection interface. One of the spokes is pre-tensioned by a pre-tensioning means. The first anchor may be manipulated between: (i) a released orientation where the connection interface is longitudinally released from the spoke to permit independent longitudinal displacement therebetween; and (ii) an engaged orientation where the connection interface is longitudinally connected to said spoke to limit independent longitudinal displacement between the two and to maintain the pre-tension of said spoke. The pre-tensioning means is discreet from the first anchor.

A vehicle wheel spoke connection, including: a rim; a hub; a plurality of spokes extending between the rim and hub with a first portion connected to the rim, a second portion opposed to said first portion and connected to the hub, a span portion between the rim and the hub, and an applied tensile load along the span portion; a bracing element including the rim and/or hub. The spoke has a longitudinal axis and is composed of reinforcement fibers in a matrix. The external surface of the spoke includes a pre-formed configured surface comprising a multiplicity of laterally outwardly projecting engagement surfaces that are longitudinally spaced. The spoke is connected to the bracing element by a longitudinal engagement comprising a multiplicity of longitudinally spaced overlie engagements associated with the spoke engagement surfaces. The longitudinal engagement supports the tensile load.

A tensile element connection, comprising first and second bracing elements and a tensile element having a first portion connected to the first bracing element and a second portion opposed to the first portion and connected to the second bracing element, and an applied tensile load along the tensile element. The tensile element includes a preformed rod that is comprised of reinforcement fibers in a matrix. At a temporarily elevated temperature greater than the service temperature, a localized region of the matrix is in a softened state of increased deformability such that a localized region of the rod is deformed under pressure to include a laterally outwardly projecting engagement surface. The tensile element is comprised of said rod with the engagement surface formed therein and is connected to one of the first and second bracing elements by means of an overlie engagement at the engagement surface to restrain the tension load.

A spoked wheel truing system includes a client computer configured with a graphical user interface to collect data on a wheel. The client computer is configured to communicate with a remote server to send the collected data to the remote server, and receive from the remote server processed data comprising instructions on truing the wheel.

A spoked wheel truing system includes a client computer configured with a graphical user interface to collect data on a wheel. The client computer is configured to communicate with a remote server to send the collected data to the remote server, and receive from the remote server processed data comprising instructions on truing the wheel.