259results about "Release mechanisms" patented technology

A motorcycle accessory quick-release attachment assembly is provided which consists of two or more motorcycle accessories adapted to be releasably attached to the same set of mounting studs without the use of tools. In a preferred embodiment, each motorcycle accessory includes one or more front hooks for mounting on the front mounting studs, one or more rear hooks for mounting on the rear mounting studs, and one or more latches rotatably connected to the rear hooks for securing and releasing the rear hooks to and from the rear mounting studs. Significantly, the configuration of the latches allows the accessories to be releasably attached to the same set of mounting studs. Each of the latches may be configured to receive a padlock to lock the rear hooks to the rear mounting studs. As such, the accessories can be optionally locked to the motorcycle to guard against theft.

A bicycle wheel securing structure includes a shaft member, a head member, a lever member and an adjustment member. The shaft member has a first threaded end and a second end with a center axis extending therebetween. The head member is disposed on the second end of the shaft member. The lever member is operatively mounted between the shaft member and the head member to move the shaft member in an axial direction relative to the head member in response to movement of the lever member. The adjustment member is axially adjustably coupled to the head member such that an axial position of an abutment surface of the adjustment member can be adjusted relative to the shaft member.

A rear hub has a hub shaft and a hub outer that is configured to be mounted in a freely rotatable manner to the hub shaft. The hub outer has an outer main body and an adapter. The outer main body is arranged on the radially inward side of a sprocket, and has a first rotation preventing section that engages with an engaging section 64 of the sprocket in such a manner that the outer main body cannot rotate relative to the sprocket. The adapter is mounted in a freely rotatable manner on an adapter mounting section of the outer main body. The adapter includes a second rotation preventing section that engages with the engaging section of the sprocket in such a manner that the adapter cannot rotate relative to the sprocket.

A rear hub has a hub shaft and a hub outer that is configured to be mounted in a freely rotatable manner to the hub shaft. The hub outer has an outer main body and an adapter. The outer main body is arranged on the radially inward side of a sprocket, and has a first rotation preventing section that engages with an engaging section 64 of the sprocket in such a manner that the outer main body cannot rotate relative to the sprocket. The adapter is mounted in a freely rotatable manner on an adapter mounting section of the outer main body. The adapter includes a second rotation preventing section that engages with the engaging section of the sprocket in such a manner that the adapter cannot rotate relative to the sprocket.

A bicycle component securing structure includes a shaft, a head, a lever and a pivot pin. The head has a recess with the shaft at least partially disposed therein. The lever has portions disposed on opposite sides of the head. The pivot pin couples the head and the lever to the shaft. The pivot pin has a cam section disposed between first and second end sections. The cam section is disposed within the recess to longitudinally move the shaft relative to the head in response to movement of the lever. The first end section is non-rotatably mounted in a first mating hole of the lever such that the lever and pivot pin rotate together. The first end section has a larger maximum transverse width than the second end section. The second end of the pivot pin is retained within the lever.

A quick-release system for a quick-release device, in particular for a cycle, such as a bicycle, the device being of the type including an axially extending skewer and an end support element mounted on a first end of the skewer adapted to be supported on a first tightening surface of the cycle. The quick-release system includes a tightening sub-assembly including a support surface and an actuation sub-assembly including a movable actuating mechanism, capable of axial rotation around the skewer and configured to transmit a tightening torque to the tightening sub-assembly when the device is being tightened. The system includes tightening torque limiting mechanism making it possible to limit the torque transmitted by the actuation sub-assembly to the tightening sub-assembly.

The invention relates to a quick release assembly for a bicycle, wherein the assembly comprises an axle having a first non-cylindrical end portion, a cylindrical central portion, and a second non-cylindrical end portion, wherein a diameter of one of the non-cylindrical end portions is larger than the diameter of the cylindrical central portion. The quick release assembly further comprises an insert having a non-cylindrical outer profile configured to be retained in a non-cylindrical opening and having a cam surface disposed therein, wherein the insert is sized to retain one of the non-cylindrical end portions of the axle therein. The assembly also includes a shaft sized to pass through the axle and having a cam follower on a first end and a handle on a second end, wherein the cam follower is configured to form a locking engagement with the cam surface upon an axial rotation of the handle.

A bicycle wheel release mechanism can be configured to fit between dropouts on a bicycle. The release mechanism can have a ramp member and a ramp interface that rotate relative to one another to define a secured position where the wheel is secured to a bicycle and an open position where the wheel is releasable from the bicycle. The ramp member can be keyed to the bicycle such that the release mechanism can be operated or adjusted via single-handed operation. The ramp member can be configured with a variable angle ramp to facilitate rapid application for initial rotation of the mechanism followed by slower application as clamping forces increase when the release mechanism approaches the secured position.

An axle assembly (310) has a longitudinal axis and first and second ends, the axle assembly configured for rotatably mounting a wheel and hub assembly on an axle portion or the axle assembly, the axle portion located between the first and second ends, the axle assembly configured for affixing to first and second structural members (301, 302), at least one of the structural members (302) comprising a substantially closed bore orifice (306) wheel mounting point or dropout, said dropout having a first side configured for the axle portion to extend therefrom when said axle assembly (310) is fixed to said point and a second side, the axle assembly (310) comprising a first fixing means (309) at the first end for releasably fixing the axle assembly (310) to the first structural member (302) and a second fixing means (311) at the second end fog releasably fixing the axle assembly (310) to the second structural member (301).

A bicycle component securing structure includes a shaft, a head, a lever and a pivot pin. The head has a recess with the shaft at least partially disposed therein. The lever has portions disposed on opposite sides of the head. The pivot pin couples the head and the lever to the shaft. The pivot pin has a cam section disposed between first and second end sections. The cam section is disposed within the recess to longitudinally move the shaft relative to the head in response to movement of the lever. The first end section is non-rotatably mounted in a first mating hole of the lever such that the lever and pivot pin rotate together. The first end section has a larger maximum transverse width than the second end section. The second end of the pivot pin is retained within the lever.

The present invention relates to a bicycle fork comprising an improved axle with non-round tapered ends affixed into dropouts with openings to match the axle ends through a taper-lock affixation for improving the torsional strength of the fork and facilitate ease of the axle installation. The improved axle consists of a first non-round end with interior female threads connecting an intermediate cylindrical portion which connects to a second non-round tapered end. An improved tapered split non-round nut having a cylindrical bolt possessing male threads lock the nut to the first end of the axle, wherein said bolt has an another preferred embodiment which connects a rotatable handle for ease of the axle installation.

A quick release device includes a cam portion and a lever connected to the cam portion, a cooperation unit with which the cam portion is pivotably engaged, a rod having a first threaded section at a first end thereof and the threaded section extending through the cooperation unit and into the cam portion and threadedly connected with a pin which transversely extends through the cam portion, a second end of the rod including a second threaded section which extends through a biasing unit and is connected with an adjustment member in the biasing unit. The biasing unit pulls rod in a direction away from the operation member. The biasing unit is a tubular member which accommodates the spring and the adjustment member therein.

A wheel quick release system for a bicycle or other wheeled vehicle where the wheel can be easily removed by a manual operation on only one side of the wheel hub but is prevented from unexpected separation at all times while engaged with the wheel. A laterally moving skewer mounted concentrically inside a hollow axle is equipped with a “non-touch” nut on one end and is spring loaded toward a quick release cam on the other end thereby always urging the nut against the adjacent dropout. To remove the wheel, the quick release cam is operated and the quick release side assembly is pushed axially inward and a safety mechanism is operated and held in this position while the wheel is removed from the fork dropouts. When the wheel is again inserted into the wheel fork, the skewer automatically locks onto the dropouts, and subsequently if the quick release cam is inadvertently left open by the user, the wheel will be somewhat loose but will remain safely inserted in the wheel mounts. In this way, if the bicycle or wheeled vehicle looks safe to ride, it is safe to ride.

A quick-release device includes a shank and a flange radially extending from one end of the shank. A ring is sleeved on the shank and engaged to the flange. A sleeve is co-axially connected and engaged to the ring. A washer is received in the sleeve. A shaft is co-axially connected to the shank and sequentially extending through the ring, the sleeve and the washer. A pivot is transversely mounted to a distal end of the shaft and abutting the washer. A lever is pivotally mounted onto the pivot for selectively forcedly and inwardly pushing the washer and engaged to the sleeve.

The invention discloses a fastening and connecting structure. The fastening and connecting structure comprises a parent body, an affiliated body and a fastening and connecting assembly. The fastening and connecting assembly comprises a threaded rod, a locking nut and an anti-rotation sleeve. The threaded rod penetrates the parent body and the affiliated body and is in threaded connection with the locking nut. Clamping holes are formed in the anti-rotation sleeve, or clamping sunken portions communicating with the outer circumference of the anti-rotation sleeve are arranged on the outer circumference of the anti-rotation sleeve. The anti-rotation sleeve is mounted out of the threaded rod, arranged in a first anti-rotation hole and limited in the axial direction. A first anti-rotation portion on the hole wall of the first anti-rotation hole of the locking nut cooperates with a second anti-rotation portion at the outer circumference of the anti-rotation sleeve, so that the locking nut is restricted from rotating relative to the anti-rotation sleeve. A third anti-rotation portion on the hole wall of a first anti-rotation through hole of the anti-rotation sleeve cooperates with a fourth anti-rotation portion of the threaded rod, so that the anti-rotation sleeve is restricted from rotating relative to the threaded rod. The threaded rod and the locking nut are mounted together in a manner that the threaded rod and the locking nut cannot rotate. The fastening and connecting structure has the beneficial effects that the situation that the locking nut is rotated in the reverse direction relative to the threaded rod and get loosened is avoided; and the anti-rotation sleeve can be taken out of the first anti-rotation hole conveniently, rapidly and reliably.

A quick release assembly for a bicycle wheel that includes a pair of heads disposed at generally opposite ends of a skewer rod. One of the heads includes a cam surface that is translatable relative to the head. The quick release includes an operator having a handle portion and a stem portion. The stem portion includes a cam that cooperates with the cam surface formed in one of the heads such that operation of the handle alters the distance between the heads from a first orientation wherein the heads secure a wheel to a bicycle, a second orientation wherein the heads loosely secure the wheel to the bicycle and a third orientation wherein the wheel assembly can be freely removed from the bicycle.

A quick-release device includes a shank and a flange radially extending from one end of the shank. A ring is sleeved on the shank and engaged to the flange. A sleeve is co-axially connected and engaged to the ring. A washer is received in the sleeve. A shaft is co-axially connected to the shank and sequentially extending through the ring, the sleeve and the washer. A pivot is transversely mounted to a distal end of the shaft and abutting the washer. A lever is pivotally mounted onto the pivot for selectively forcedly and inwardly pushing the washer and engaged to the sleeve.

A quick-release device includes a tubular structure and a flange radially extends from a second end of the tubular structure. A ring is sleeved on the tubular structure and selectively engaged to the flange and a sleeve is co-axially and securely connected to the ring. A shaft is co-axially connected to the tubular structure. A washer is received in the sleeve and abutting the flange of the sleeve, wherein the shaft extends through the washer. A pivot is mounted to a distal end of the second portion of the shaft. A lever is pivotally mounted onto the pivot. The lever includes a handle having a pair of ears formed on one end of the handle, wherein each ear has a pivot hole defined therein for rotatably receiving two opposite ends of the pivot and a raised portion formed thereon for selectively inwardly forcedly push the washer when fastening the quick-release.

A bicycle wheel securing structure includes a shaft member, a head member, a lever member and a radial expansion structure. The shaft member has first and second end portions. The head member is coupled at the second end portion. The lever member is operatively mounted to move the shaft member in an axial direction relative to the head member in response to movement of the lever member. The radial expansion structure is disposed at the second end portion and includes an expansion member and the second end portion of the shaft member. The expansion member has a first inclined surface and the second end portion of the shaft member has a second inclined surface that cooperates with the first inclined surface to radially expand an outer diameter of the radial expansion structure in response to movement of the lever member from a release position to an attachment position.

A quick release hub assembly, comprising a stationary axle element with a first outer face and an axially opposed second outer face and an opening that extends axially between the first outer face and the second outer face, a rotatable hub shell element that is rotatable about the axle element and a quick release skewer assembly that includes a first skewer element with a first gripping face and a first collar portion extending axially inboard of the gripping face and a second skewer element with a second gripping face and a skewer shaft connecting the first skewer element and the second skewer element. The first gripping face is axially opposed and facing the second gripping face and the axial distance between the first gripping face and the second gripping face is selectively variable. The first gripping face is axially outboard the first outer face and the second gripping face is axially outboard the second outer face and the quick release skewer assembly extends through the opening. The first skewer element is connected to the skewer shaft by means of a connection at a location that is axially inboard of the first gripping face. Preferably including a frame with a frame element with first and second mounting portions, where the first collar portion includes locating geometry to provide radially positioning alignment with the first mounting portion.

A lockable quick release mechanism is provided having a cam lever threaded onto a shaft which extends through and beyond a barrel nut, fitted in the cam lever so that it will provide interference with a padlock when locked. The cam lever has a lock hole for the padlock, and a curvature which, when locked, will stop the cam lever from being rotated more than a few degrees due to interference with the fork blade. A cam follower is provided on the shaft and has anti-rotation tabs, which fit into the clevis of the cam lever, and which engages the camming surface of the cam lever thereby preventing the cam lever from being rotated in the locked position due to the amount of friction between the cam follower and the fork tip. The cam follower is always biased by a spring against the camming surface to prevent a fork blade from being mis-positioned between the cam follower and the camming surface.