Abstract: A latching system used for a rotary closure of a shoe.

Abstract: Various embodiments of a system and associated methods for an improved rotary closure for tensioning a tensioned lacing element are disclosed herein. In particular, the improved rotary closure includes an adjuster component in association with a tensioning component to incrementally counter-rotate the tensioning component and a tensioned cylindrical device, enabling micro-adjustment of the rotary closure without complete de-tensioning of the tensioned cylindrical device.

Abstract: A latching system used for a rotary closure of a shoe.

Abstract: Various embodiments of an improved rotary closure to prevent jamming when rotated in a particular direction and allow de-tensioning of the spool are disclosed herein.

Abstract: A latching system used for a rotary closure of a shoe.

Abstract: Various embodiments of a system and associated method for a micro-adjustable traction element are disclosed herein. The micro-adjustable traction element system includes an outsole for positioning along a substrate of a shoe. The outsole secures a traction element to the outsole while enabling positional micro-adjustment of the traction element along the outsole. In one embodiment of the micro-adjustable traction element system, for each traction element positioned along the outsole, the outsole includes a receiver element configured for variable positioning within a pocket of the outsole to receive the traction element.

Abstract: Various embodiments of a system for an improved rotary closure including a dial cover for ease of gripping and customizability are described herein.

Abstract: Various embodiments of an improved rotary closure to prevent jamming when rotated in a particular direction and allow de-tensioning of the spool are disclosed herein.

Abstract: A rotary closure with a latching system that latches together the components of the rotary closure in a snap-fit engagement is disclosed. The latching system includes a latching extension defining first and second legs each defining a respective tang configured for coupling the latching extension to the distal-most keyway for assembling the components of the rotary closure together.

Abstract: Various embodiments of a rotary closure with a latching system that latches together the components of the rotary closure in snap-fit engagement are disclosed.

Abstract: Various embodiments for a latching system used for a rotary closure of a shoe are disclosed.

Abstract: A traction cleat applicable for use in field sports is provided with dynamic traction elements having larger radial thickness, cross-sectional area and mass than dynamic elements in golf shoe cleats. The strength of a locking arrangement for the cleat in a shoe-mounted receptacle is enhanced by providing an annular array of spaced locking stubs on the receptacle to engage a similar array of spaced locking posts on the cleat.

Abstract: A traction cleat applicable for use in field sports is provided with dynamic traction elements having larger radial thickness, cross-sectional area and mass than dynamic elements in golf shoe cleats. The strength of a locking arrangement for the cleat in a shoe-mounted receptacle is enhanced by providing an annular array of spaced locking stubs on the receptacle to engage a similar array of spaced locking posts on the cleat.

Abstract: A thinner shoe mounted receptacle results from a thin cleat attachment flange received in a shallow receptacle cavity. An angled interface between the cleat and receptacle provide a friction fit engagement to minimize inadvertent disengagement of the cleat and receptacle. Rotational locking occurring inside or outside the cavity further prevents inadvertent cleat rotation. Multiple positionally synchronized angular stops positively define the final angular orientation of the cleat in the receptacle.

Abstract: A traction cleat applicable for use in field sports is provided with dynamic traction elements having larger radial thickness, cross-sectional area and mass than dynamic elements in golf shoe cleats. The strength of a locking arrangement for the cleat in a shoe-mounted receptacle is enhanced by providing an annular array of spaced locking stubs on the receptacle to engage a similar array of spaced locking posts on the cleat.

Abstract: A thinner shoe mounted receptacle results from a thin cleat attachment flange received in a shallow receptacle cavity. An angled interface between the cleat and receptacle provide a friction fit engagement to minimize inadvertent disengagement of the cleat and receptacle. Rotational locking occurring inside or outside the cavity further prevents inadvertent cleat rotation. Multiple positionally synchronized angular stops positively define the final angular orientation of the cleat in the receptacle.

Abstract: A thinner shoe mounted receptacle results from a thin cleat attachment flange received in a shallow receptacle cavity. An angled interface between the cleat and receptacle provide a friction fit engagement to minimize inadvertent disengagement of the cleat and receptacle. Rotational locking occurring inside or outside the cavity further prevents inadvertent cleat rotation. Multiple positionally synchronized angular stops positively define the final angular orientation of the cleat in the receptacle.

Abstract: A thinner shoe mounted receptacle results from a thin cleat attachment flange received in a shallow receptacle cavity. An angled interface between the cleat and receptacle provide a friction fit engagement to minimize inadvertent disengagement of the cleat and receptacle. Rotational locking occurring inside or outside the cavity further prevents inadvertent cleat rotation. Multiple positionally synchronized angular stops positively define the final angular orientation of the cleat in the receptacle.

Abstract: A thinner shoe mounted receptacle results from a thin cleat attachment flange received in a shallow receptacle cavity. An angled interface between the cleat and receptacle provide a friction fit engagement to minimize inadvertent disengagement of the cleat and receptacle. Rotational locking occurring inside or outside the cavity further prevents inadvertent cleat rotation. Multiple positionally synchronized angular stops positively define the final angular orientation of the cleat in the receptacle.