Coupling assembly between a footwear and a sport equipment comprising at least one housing on the footwear near the sole suitable for receiving a first metallic element, a binding, on the sport equipment, provided with a seat for the insertion of the footwear, the binding being equipped with at least a second metallic element positioned in the seat, the first or the second metal element being an electromagnet, which when activated is magnetically bound to the other element.

Coupling assembly between a footwear and a sport equipment comprising at least one housing on the footwear near the sole suitable for receiving a first metallic element, a binding, on the sport equipment, provided with a seat for the insertion of the footwear, the binding being equipped with at least a second metallic element positioned in the seat, the first or the second metal element being an electromagnet, which when activated is magnetically bound to the other element.

A system, method and apparatus for a digitally Controlled Variable Stiffness item of athletic equipment, such as a Ski, Snowboard, and Boots. A core of thermally responsive metal alloy, such as Nitinol is disposed within the athletic equipment. A thermal control module and controller permit the athlete to program the athletic equipment to a desired stiffness parameter. The controller may include an app operable via a mobile computing device in communication with the thermal control module.

A system, method and apparatus for a digitally Controlled Variable Stiffness item of athletic equipment, such as a Ski, Snowboard, and Boots. A core of thermally responsive metal alloy, such as Nitinol is disposed within the athletic equipment. A thermal control module and controller permit the athlete to program the athletic equipment to a desired stiffness parameter. The controller may include an app operable via a mobile computing device in communication with the thermal control module.

The present invention comprises a fairing apparatus for a snowboard comprising a raised structure that may be positioned adjacent to the user's binding, having a geometry that deflects snow or ice away from the user's bindings and boots. In various exemplary embodiments, the raised structure may comprise two forward extending ridges located near the edges of the snowboard. In various exemplary embodiments, the forward extending ridges may extend laterally beyond the edges of the snowboard and may generate lift as the apparatus moves through snow or ice.

A plate body is configured from a bottom part, a side surface part, and a flange part, and is formed in a concave shape, whereby the thickness of the bottom part of the plate body is reduced and the flexibility of a plate is increased. Reducing the thickness of the bottom part of the plate body reduces the length of screws for attaching a snowboard and prevents the screws from inhibiting the flexibility of the plate.

A plate body is configured from a bottom part, a side surface part, and a flange part, and is formed in a concave shape, whereby the thickness of the bottom part of the plate body is reduced and the flexibility of a plate is increased. Reducing the thickness of the bottom part of the plate body reduces the length of screws for attaching a snowboard and prevents the screws from inhibiting the flexibility of the plate.

A pivoting snowboard boot binding including a snowboard assembly, a binding assembly, and a locking mechanism assembly. The snowboard assembly includes a snowboard. The binding assembly includes bindings. The locking mechanism assembly connects said bindings with said snowboard. The locking mechanism assembly has a locked configuration and an unlocked configuration. The bindings can rotate with respect to the snowboard to look forward in the unlocked configuration. The bindings are locked in a predetermined position with the snowboard in the locked configuration.

A pivoting snowboard boot binding including a snowboard assembly, a binding assembly, and a locking mechanism assembly. The snowboard assembly includes a snowboard. The binding assembly includes bindings. The locking mechanism assembly connects said bindings with said snowboard. The locking mechanism assembly has a locked configuration and an unlocked configuration. The bindings can rotate with respect to the snowboard to look forward in the unlocked configuration. The bindings are locked in a predetermined position with the snowboard in the locked configuration.