Abstract: Pedal and cleat assemblies are described. The pedal has first and second retainers biased to an engagement position for coupling the cleat. The cleat comprises first and second portions configured to be secured by the first and second retainers. The second portion has first and second urging surfaces. Either one or both of the first and second retainers is/are urged to permit the first and second portions to be secured by the first and second retainers. Either one or both of the first and second retainers is/are urged to permit the secured second portion to be released from the second retainer when a force or contact is applied by the second urging surface onto a lateral surface of the second retainer. At least one of the second urging surface and the lateral surface of the second retainer is made of a material having a measure of hardness that is greater than hardened steel. Preferably, the material is a carbide.

Abstract: The present invention is embodied in a new aerodynamic cover for a bicycle shoe and clipless bicycle pedal for improving speed when cycling. The aerodynamic cover comprises a main body including an ankle portion having a rear side, a heel portion connected to the ankle portion, and a sole portion connected to the heel portion and having an underside. An opening is formed in the sole portion for allowing a bicycle pedal to be engaged to the bicycle cleat. An outwardly extending fin stretches from the rear side of the ankle portion, around the heel portion, to the underside of the sole portion. In one embodiment, the aerodynamic cover further comprises a pedal layer, a cleat layer, and a base plate layer. A gap is defined between the pedal layer and the cleat layer. The gap inhibits excessive friction between the pedal layer and the cleat layer as the cleat is pivoted with respect to the pedal.

Abstract: A new aerodynamic cover for a bicycle shoe and clipless bicycle pedal for improving speed when cycling. The aerodynamic cover has a main body including an ankle portion having a rear side, a heel portion connected to the ankle portion, and a sole portion connected to the heel portion and having an underside. An opening is formed in the sole portion for allowing a bicycle pedal to be engaged to the bicycle cleat. An outwardly extending fin stretches from the rear side of the ankle portion, around the heel portion, to the underside of the sole portion. The aerodynamic cover may further have a pedal layer, a cleat layer, and a base plate layer. A gap is defined between the pedal layer and the cleat layer. The gap inhibits excessive friction between the pedal layer and the cleat layer as the cleat is pivoted with respect to the pedal.

Abstract: The present invention is embodied in a mounting standard for mounting a cleat assembly to a shoe sole having a curved underside portion and a plurality of mounting holes. The mounting standard is configured so that the cleat assembly can be moved forward or rearward with respect to the curved underside portion of the shoe sole without significantly affecting the distance between the cleat assembly and a user's foot. The present invention is also embodied in a shoe configured to receive a user's foot, the shoe comprising a shoe sole and a mounting standard.

Abstract: The present invention is embodied in a mounting standard for mounting a cleat assembly to a shoe sole having a curved underside portion and a plurality of mounting holes. The mounting standard is configured so that the cleat assembly can be moved forward or rearward with respect to the curved underside portion of the shoe sole without significantly affecting the distance between the cleat assembly and a user's foot. The present invention is also embodied in a shoe configured to receive a user's foot, the shoe comprising a shoe sole and a mounting standard.

Abstract: An improved pedal/cleat assembly includes a cleat that can be releasably secured to a pedal assembly without the need to contact the sole of a rider's shoe. The cleat is configured to include forward and rearward projections, as well as inward and outward feet, and the pedal assembly is configured to include a spindle, a main pedal body mounted on the spindle, and a cleat support base mounted on the main pedal body. The cleat support base includes inward and outward pads configured to support the cleat's inward and outward feet, and it mounts forward and rearward cleat retainers configured to receive and secure the forward and rearward cleat projections. A spring-bias device yieldably biases the forward and rearward cleat retainers toward each other. The pedal/cleat assembly thereby is configured such that the cleat can be secured to the pedal assembly without the need to contact any portion of the shoe sole.

Abstract: An improved cleat assembly is disclosed, the assembly containing one or more spring clips configured for releasably securing the assembly to a bicycle pedal or the like. Specifically, the cleat assembly is configured such that an improper over-tightening of the cleat onto the sole of a user's shoe has substantially no effect on the free flexing of the spring clip while it is engaging or disengaging to/from the pedal. In addition, the cleat assembly incorporates one or more soft elastomeric caps that frictionally engage the ground when the user walks about, to provide improved traction and to eliminate undesired wear of critical assembly components. Further, for embodiments of cleat assemblies of the kind incorporating one or more adjustable set screws for adjusting the assemblies' float angles, threaded apertures for the set screws are formed by the confronting surfaces of a plastic upper plate and a metallic bottom plate, wherein the threads are formed only in the plastic upper plate.

Abstract: The present invention is embodied in a new aerodynamic cover for a bicycle shoe and clipless bicycle pedal for improving speed when cycling. The aerodynamic cover comprises a main body including an ankle portion having a rear side, a heel portion connected to the ankle portion, and a sole portion connected to the heel portion and having an underside. An opening is formed in the sole portion for allowing a bicycle pedal to be engaged to the bicycle cleat. An outwardly extending fin stretches from the rear side of the ankle portion, around the heel portion, to the underside of the sole portion. In one embodiment, the aerodynamic cover further comprises a pedal layer, a cleat layer, and a base plate layer. A gap is delined between the pedal layer and the cleat layer. The gap inhibits excessive friction between the pedal layer and the cleat layer as the cleat is pivoted with respect to the pedal.

Abstract: The present invention is embodied in a mounting standard for mounting a cleat assembly to a shoe sole having a curved underside portion and a plurality of mounting holes. The mounting standard is configured so that the cleat assembly can be moved forward or rearward with respect to the curved underside portion of the shoe sole without significantly affecting the distance between the cleat assembly and a user's foot. The present invention is also embodied in a shoe configured to receive a user's foot, the shoe comprising a shoe sole and a mounting standard.

Abstract: An improved cleat assembly is disclosed, the assembly containing one or more spring clips configured for releasably securing the assembly to a bicycle pedal or the like. Specifically, the cleat assembly is configured such that an improper over-tightening of the cleat onto the sole of a user's shoe has substantially no effect on the free flexing of the spring clip while it is engaging or disengaging to/from the pedal. In addition, the cleat assembly incorporates a pair of soft plastic caps that frictionally engage the ground when the user walks about, to provide improved traction and to eliminate undesired wear of critical assembly components. Further, for embodiments of cleat assemblies of the kind incorporating one or more adjustable set screws for adjusting the assemblies' float angles, threaded apertures for the set screws are formed by the confronting surfaces of a plastic upper plate and a metallic bottom plate, wherein the threads are formed only in the plastic upper plate.

Abstract: An improved cleat assembly is disclosed, the assembly containing one or more spring clips configured for releasably securing the assembly to a bicycle pedal or the like. Specifically, the cleat assembly is configured such that an improper over-tightening of the cleat onto the sole of a user's shoe has substantially no effect on the free flexing of the spring clip while it is engaging or disengaging to/from the pedal. In addition, the cleat assembly incorporates one or more soft elastomeric caps that frictionally engage the ground when the user walks about, to provide improved traction and to eliminate undesired wear of critical assembly components. Further, for embodiments of cleat assemblies of the kind incorporating one or more adjustable set screws for adjusting the assemblies' float angles, threaded apertures for the set screws are formed by the confronting surfaces of a plastic upper plate and a metallic bottom plate, wherein the threads are formed only in the plastic upper plate.

Abstract: An improved pedal/cleat assembly provides a float range that is easily and precisely adjusted. The pedal/cleat assembly includes a pedal assembly incorporating a forward cleat retainer and a spring-biased rearward cleat retainer, and it further includes a cleat assembly that defines forward and rearward projections sized and configured to engage and be retained by the respective forward and rearward cleat retainers. The cleat assembly includes a first cleat body that defines the forward and rearward projections, and it further includes a second cleat body configured to be attached to the underside of a rider's shoe and to be secured to the first cleat body in a manner that allows limited rotation relative to the first cleat body about a cleat rotation axis. The first cleat body is free to rotate by an angular amount that is controlled by a pair of set screws. This provides a pedal float that is easily and precisely adjustable.

Abstract: A pedal for interfacing with a cleat. The pedal includes a plate, insert, spacer, and coupler. The plate includes a plate through hole, and is configured to interface with the cleat. The insert includes an insert through hole and a cam surface. The insert is located adjacent to the plate. The insert through hole is aligned with the plate through hole. The cam surface contacts the cleat when the plate interfaces with the cleat. The spacer includes a spacer through hole. The spacer is located adjacent to the insert, and the spacer through hole is aligned both with the plate through hole and the insert through hole. The coupler is introduced through the plate through insert through hole, and spacer through hole. The coupler couples the plate to the insert, insert to the spacer.

Abstract: A pedal for interfacing with a cleat. The pedal includes a plate, insert, spacer, and coupler. The plate includes a plate through hole, and is configured to interface with the cleat. The insert includes an insert through hole and a cam surface. The insert is located adjacent to the plate. The insert through hole is aligned with the plate through hole. The cam surface contacts the cleat when the plate interfaces with the cleat. The spacer includes a spacer through hole. The spacer is located adjacent to the insert, and the spacer through hole is aligned both with the plate through hole and the insert through hole. The coupler is introduced through the plate through insert through hole, and spacer through hole. The coupler couples the plate to the insert, insert to the spacer.

Abstract: A clipless pedal/cleat assembly is disclosed, having a float range that is easily and precisely adjusted. The assembly includes a pedal body and a cleat body configured to conformably mate together, and it further includes two spaced-apart engagement recesses mounted on one of the two bodies, preferably the pedal body, and a tongue assembly mounted on the other of the two bodies, thus preferably the cleat body. The tongue assembly is configured for limited rotation relative to the body on which it is mounted, about a rotation axis generally normal to the sole of the rider's shoe when the pedal body and the cleat body are mated together. The tongue assembly includes two spring-biased tongues configured for selective engagement with the two engagement recesses.

Abstract: An improved clipless pedal of the kind having forward and rearward cleat retainers configured to releasably secure the cleat of a rider's shoe and prevent an unintended release of the securement. The pedal includes a special wall/stop fixture that defines forward and rearward walls for preventing the cleat from moving forwardly or rearwardly relative to the pedal by an amount that otherwise would be sufficient to cause an unintended disengagement of the cleat from the pedal. These walls have no effect on the intended release of the cleat from the pedal, which is accomplished by rotating the shoe about an axis perpendicular to the pedal's upper face.

Abstract: An improved clipless pedal of the kind having forward and rearward cleat retainers configured to releasably secure the cleat of a rider's shoe and prevent an unintended release of the securement. The pedal includes a special wall/stop fixture that defines forward and rearward walls for preventing the cleat from moving forwardly or rearwardly relative to the pedal by an amount that otherwise would be sufficient to cause an unintended disengagement of the cleat from the pedal. These walls have no effect on the intended release of the cleat from the pedal, which is accomplished by rotating the shoe about an axis perpendicular to the pedal's upper face.

Abstract: The improved clipless pedal comprises an assembly of a generally rounded body having a top surface, a bottom surface, and circumferential edge with a metal insert. A recessed area is formed extending diametrically across each of the top and bottom surfaces. The metal insert fits within the recessed area with its top surface generally flush with the surface in which it is placed. An inset is cut into the circumferential edge to form a chord across each end of the recessed areas. The diametric distance between the insets corresponds to the spacing between the spring-biased tongues of the locking mechanism of the cleat in their relaxed condition. The pedal body is formed from a lightweight plastic or polymer. In an alternate embodiment, means are provided for varying float range of the pedal with respect to the cleat by narrowing the angle within the recessed area.

Abstract: The improved clipless pedal comprises an assembly of a generally rounded body having a top surface, a bottom surface, and circumferential edge with a metal insert. A recessed area is formed extending diametrically across each of the top and bottom surfaces. The metal insert fits within the recessed area with its top surface generally flush with the surface in which it is placed. An inset is cut into the circumferential edge to form a chord across each end of the recessed areas. The diametric distance between the insets corresponds to the spacing between the spring-biased tongues of the locking mechanism of the cleat in their relaxed condition. The pedal body is formed from a lightweight plastic or polymer. In an alternate embodiment, means are provided for varying float range of the pedal with respect to the cleat by narrowing the angle within the recessed area.

Abstract: The improved clipless pedal comprises an assembly of a generally rounded body having a top surface, a bottom surface, and circumferential edge with a metal insert. A recessed area is formed extending diametrically across each of the top and bottom surfaces. The metal insert fits within the recessed area with its top surface generally flush with the surface in which it is placed. An inset is cut into the circumferential edge to form a chord across each end of the recessed areas. The diametric distance between the insets corresponds to the spacing between the spring-biased tongues of the locking mechanism of the cleat in their relaxed condition. The pedal body is formed from a lightweight plastic or polymer. In an alternate embodiment, means are provided for varying float range of the pedal with respect to the cleat by narrowing the angle within the recessed area.