Abstract:
A pedal and cleat assembly comprises a pedal body having a first end and a second end, a first retainer mounted proximate the first end of the pedal body, and a second retainer mounted proximate the second end of the pedal body. The cleat assembly is configured to be releaseably coupled to the pedal assembly and comprises a cleat body having at least one coupling area, and at least one element shaped to be maintained within or disposed on the coupling area. The at least one coupling area is positioned at a forward or rearward end of the cleat body so that the at least one element can act as a cam surface against the first or second retainer. The at least one element is configured to rotate or articulate when maintained within or disposed on the coupling area to facilitate releasing the cleat assembly from the pedal assembly.
Abstract:
A restraining system is configured to secure and release a rider's footwear to a vehicle footrest in response to inputs to a control interface. The vehicle is typically a motorcycle or bicycle. In the case of a motorcycle, a rider's boot is restrained to a motorcycle foot peg by the action of a restraining device. Exemplary restraining device embodiments include an electromagnet or a mechanical latch. The control interface may be located on the motorcycle handlebar or on the rider's helmet. The rider can provide the inputs directly to the control interface. Alternatively, the inputs may be received from a wireless source.
Abstract:
A bicycle pedal is provided with a pedal spindle, a pedal body, a cleat engagement member and an actuation member. The pedal body is rotatably mounted on the pedal spindle. The cleat engagement member is movably mounted relative to the pedal body between a release position and an engagement position. The cleat engagement member is biased towards the release position. The actuation member is mechanically connected to the cleat engagement member. The actuation member is movably mounted relative to the pedal body from a first position to a second position such that the actuation member moves the cleat engagement member from the release position to the engagement position.
Abstract:
A bicycle pedal includes a pedal axle, a rotatable main pedal body, a first cleat securing member pivotally coupled about a first pivot axis between first and second positions, a sub member pivotally coupled to move about a second pivot axis, and at least a first biasing member disposed on the second pivot axis. The second pivot axis is farther from the pedal axle than the first pivot axis. The first biasing member is operatively disposed between the main pedal body and the first cleat securing member to bias the first cleat securing member toward the first position. The first cleat securing member and the sub member rotate together about the second pivot axis until the sub member abuts against the main pedal body, and the first cleat securing member subsequently rotates toward the second position about the first pivot axis independently from the sub member during a step-in operation.
Abstract:
A restraint is configured to restrain a rider's footwear to a motorcycle footpeg along at least a nearly vertical first axis. The footpeg extends away from the motorcycle along a second axis. The restraint is based upon a combination of a hook and a clasp. The restraint can be engaged by linearly moving the footwear alternatively along either of two axes including the first axis, and a third axis that is mutually perpendicular to the first and second axes. The restraint may also be disengaged by linearly moving the footwear along the third axis. The third axis generally passes from the heel to toe of the footwear. Moving the footwear in a backward direction (toe to heel direction) engages the restraint; moving the footwear in a forward direction (heel to toe direction) disengages the restraint.
Abstract:
A bicycle pedal has a pedal spindle, a pedal body and a step-in cleat engagement structure. The pedal body includes a tubular mounting portion rotatably mounted on the pedal spindle. The tubular mounting portion includes a center tube section that has a widthwise dimension and a lengthwise dimension as measured from the center spindle axis to an outside surface of the center tube section along reference planes that are substantially perpendicular to each other. The widthwise dimension is substantially perpendicular to a cleat pedaling force direction applied to the pedal spindle, as viewed along in a direction of the center spindle axis. The outside surface of the center tube section has an overall transverse cross sectional shape that includes a generally convex arc that extends a majority of the outside surface of the center tube section on a side of the reference plane that faces the cleat engagement structure.
Abstract:
A bicycle pedal with automatic engagement and disengagement, including a body rotatably mounted on a pedal axle one side including a front hoop and a rear hoop, each hoop having two branches connected by a crossmember, at least one of the hoops being mounted to rotate about a geometrical axis parallel to that of the pedal and being spring-loaded toward the other hoop by spring means, the space between the hoops being adapted to receive and to clamp a cycling shoe cleat; the spring-loading means of the hoop are situated, in a direction orthogonal to the branches of the hoop, outside the space between the branches; the pedal body includes exterior arms spaced from the interior arms to form yokes having facing orifices in which two coaxial individual axles, respectively associated with each branch, are engaged and supported, and the individual axles composing the articulation axle of the rotary hoop.
Abstract:
A clipless pedal with a modularized engagement mechanism for detachably securing with the cleat on a rider's shoe is disclosed. The engagement structure includes a fixing seat, an annular frame, a depressor, two torsion springs, a shaft and a regulator bolt. The fixing seat is pivotally connected on the annular frame by inserting the shaft. The two torsion springs are put around the shaft. The depressor has a threaded hole in which the regulator bolt screws. By rotating the regulator bolt, the depressor can be linearly moved. Two ends of each the torsion separately bear against the fixing seat and depressor. The annular frame can be swung relative to the fixing seat when it is forced and restored by the torque from the torsion springs when it is not forced. The torque of the torsion springs can be regulated by linear movement of the depressor. The engagement mechanism can be fastened on a pedal body to form a clipless pedal.
Abstract:
A bicycle pedal is provided with a pedal spindle, a pedal body, a first cleat engagement member and a positioning member. The pedal body is rotatably mounted on the pedal spindle. The cleat engagement member is movably mounted to the pedal body between a release position and an engagement position. The positioning member is movably coupled relative to the pedal body between a first position and a second position. The positioning member moves the first cleat engagement member to the release position while the positioning member is moving from the second position to the first position. The positioning member moves the first cleat engagement member to the engagement position while the positioning member is moving from the first position to the second position.
Abstract:
A bicycle pedal is provided with a pedal spindle, a pedal body, a cleat engagement member and an actuation member. The pedal body is rotatably mounted on the pedal spindle. The cleat engagement member is movably mounted relative to the pedal body between a release position and an engagement position. The cleat engagement member is biased towards the release position. The actuation member is mechanically connected to the cleat engagement member. The actuation member is movably mounted relative to the pedal body from a first position to a second position such that the actuation member moves the cleat engagement member from the release position to the engagement position.