There have been many types of sports shoes varying in design and material. The market-leading sports shoes are Nike and Asics. Nike is famous for its patented Air Max technology and Asics for its unique liquid cushioning element technology. These are excellent shoes in its own category. Yet, sports players are also looking for a shoe that can switch between the hi-rebound high performance sports mode and soft-cushioned regular mode conveniently. Our new design of the shoe sole tackles this task with a unique approach. We design the shoe sole into three zones according to its dynamic feature and fill the corresponding zones with different foaming material and an interchangeable compact MagLev module. This new design meets the challenge and opens up a new way for shoe manufacturing.

A single-pull tightened snowshoe binding is provided, the binding comprising: a sole plate configured to be hingedly interconnected to a snowshoe; a toe cap interconnected with the sole plate with a first anterior strap and a second anterior strap, wherein the anterior straps are configured to wrap around the lateral aspects of a toe box of a shoe inserted within the snowshoe binding, and wherein the toe cap is configured to interface with a top aspect of the shoe; a first lateral strap extending outward from the sole plate, wherein the first lateral strap is configured to wrap upward along a lateral aspect of the shoe and extend toward a posterior aspect of the shoe; a second lateral strap extending outward from the sole plate, wherein the second lateral strap is configured to wrap upward along a lateral aspect of a shoe and extend toward the posterior aspect of the snowshoe binding; a first tightening strap having a first end and a second end, the first end of the first tightening strap interconnected to a posterior aspect of the toe cap, the first tightening strap slideably interconnected with the distal end of the first lateral strap, wherein the second end of the first tightening strap is configured to span around the posterior aspect of the shoe; a second tightening strap having a first end and a second end, the first end of the second tightening strap interconnected to a posterior aspect of the toe cap, the second tightening strap slideably interconnected with the distal end of the second lateral strap, wherein the second end of the second tightening strap is configured to span around the posterior aspect of the shoe; the second ends of the first and second tightening straps interconnected by a strap tightening mechanism; wherein tightening of the first and second tightening straps simultaneously retracts the toe cap toward the sole plate, retracts the first and second lateral straps upward along a lateral aspect of a shoe inserted in the binding, and biases the shoe toward the toe cap.

A sports shoe has a lower boot portion to receive the user's foot and an upper boot portion to receive the user's lower leg. In the process, at least one first sensor in a front foot portion of the sole assembly is connected with at least one second sensor in a heel portion of the sole assembly via a multipolar flexible flat cable having an adjustable length as needed, such that a distance between the at least one first and second sensors can be adjusted to various sole lengths during the manufacturing of the sports shoe. This can be specified correspondingly for at least one third or fourth sensor in the upper boot portion and the at least one first or second sensor on the sole assembly of the sports shoe, such that an adjustment to the upper boot portion with various model-dependent height dimensions is facilitated during manufacturing.

A shoe with spikes is disclosed. The shoe includes an accommodation seat, at least one moving plate, a transmission module, a plurality of posts, a plurality of spikes, and a shoe plate. The accommodation seat includes a chamber. The moving plate is disposed in the chamber and controlled to move between a first position and a second position, and includes a plurality of push members. The transmission module is configured to move the moving plate. The posts extend from the accommodation seat toward the ground. The spikes are fixed to the posts and extend out of the chamber. When the moving plate is in the first position, the spikes protrude out of the shoe plate relative to the ground. When the moving plate is moved to the second position, the push members push the shoe plate, and the spikes do not protrude out of the shoe plate.

Disclosed is a spring-loaded boot. The invention consists of a rigid boot bound to a set of plates, with shock absorbers situated on each end of, and sandwiched between, the plates. The top plate provides the platform for binding a ski boot, and the bottom plate provides ground contact and traction. The device allows the user to bounce with pogo-like motion. The rigid shell of the boot provides the ample ankle support and protection needed for rugged terrain.

Disclosed is a spring-loaded boot. The invention consists of a rigid boot bound to a set of plates, with shock absorbers situated on each end of, and sandwiched between, the plates. The top plate provides the platform for binding a ski boot, and the bottom plate provides ground contact and traction. The device allows the user to bounce with pogo-like motion. The rigid shell of the boot provides the ample ankle support and protection needed for rugged terrain.

A base is provided for a ski boot comprising a sole and an outsole element that is positioned in a predetermined position relative to a longitudinal axis (L). The outsole element is positioned on the sole by using two projections that are carried by one or other of the sole and the outsole element and that locate in holes or cavities defined by the other. Preferably, the projections are carried by the outsole element and locate in holes or cavities defined by the sole. The projections may be integrally formed with the outsole element or the sole. Alternatively, they may be formed by injected pins, rivets, fasteners, t-nuts, or screws.

An adjustable ski binding adapter apparatus that adapt a snowboard boot for use with alpine ski bindings. The ski binding adapter apparatus includes a back support pivotally coupled to a sole plate, where the back support pivots to aid in stepping into the ski binding adapter apparatus. The sole plate is adjustable for length. Adjustable strap assemblies are coupled to the sole plate and the back support and snugly encircle and restrain the boot in the ski binding adapter apparatus. The back support and the sole plate are configured to conform to ski boot standards and attach to a conventional ski binding.

A ski boot, comprising a ski boot shell and a ski boot sole, wherein the ski boot sole comprises a front end of the ski boot sole, a rear end of the ski boot sole, a lower side of the sole and a free upper side of the sole via which the ski boot sole protrudes forwards, backwards and/or laterally beyond the ski boot shell, wherein the lower side of the sole comprises a first bearing region for placing upright on a bearing plate of a ski binding, and a second bearing region for walking without skis, wherein a width of the ski boot sole in the second bearing region is larger than a width of the ski boot sole in the first bearing region.

A ski boot frame that is attachable to a soft shell snow boot, for example a snowboard boot, for downhill skiing. The ski boot frame is constructed of multiple rigid materials to provide a user with proper support for downhill skiing. The ski boot frame further includes adjustable toe clip and heel clips for attachment to a standard downhill ski binding. The toe and heel clips are preferably adjustable to fit the frame to a plurality of sizes of ski bindings. The ski boot frame further includes a calf support that provides for a progressive forward resistance critical for downhill skiing.