A snowboard hook including a flat bottom component, to be secured to a top surface of a snowboard, and a curved top component, wherein a bottom edge of the curved top component is orthogonally coupled to a first edge of the flat bottom component. The curved top component includes: a vertical portion, including the bottom edge of the curved top component; and a horizontal portion, wherein the horizontal portion protrudes in a curved manner from the vertical portion to an approximately horizontal position near a top edge of the curved top component.

A snowboard hook including a flat bottom component, to be secured to a top surface of a snowboard, and a curved top component, wherein a bottom edge of the curved top component is orthogonally coupled to a first edge of the flat bottom component. The curved top component includes: a vertical portion, including the bottom edge of the curved top component; and a horizontal portion, wherein the horizontal portion protrudes in a curved manner from the vertical portion to an approximately horizontal position near a top edge of the curved top component.

Described herein include various embodiments of a binding assembly that assist with coupling a user's foot to a sport board. A foothold or binding upper that captures a user's foot can be coupled to a part of the binding assembly thereby enabling the binding assembly to secure the user's foot to the sport board. The binding assembly can include a chassis that has at least two connector receptacle that each allow an attachment feature (e.g., mounting screw) to extend therethrough and secure the binding assembly to the sport board. Each of the connector receptacles can be angled such that a longitudinal of the connector receptacle is positioned at an angle relative to a top surface of the sport board.

A snowboard binding includes a baseplate configured to secure to an upper surface of a snowboard a high back and straps secure to the baseplate. A drive plate is secured to the upper surface of the baseplate and has a stiffness effective to change ride properties of the snowboard. The drive plate may include a laminate structure including one or more composite layers such as fiberglass, carbon fiber, aluminum, or titanium. A carriage may mount the drive plate to the snowboard and may define a recess for receiving the drive plate. Tabs may extend from the lower surface of the carriage and engage corresponding apertures in the baseplate. The tabs may have hooked end portions to secure the carriage to the baseplate.

Described herein include various embodiments of a binding assembly that assist with coupling a user's foot to a sport board. A foothold or binding upper that captures a user's foot can be coupled to a part of the binding assembly thereby enabling the binding assembly to secure the user's foot to the sport board. The binding assembly can include a chassis that has at least two connector receptacle that each allow an attachment feature (e.g., mounting screw) to extend therethrough and secure the binding assembly to the sport board. Each of the connector receptacles can be angled such that a longitudinal of the connector receptacle is positioned at an angle relative to a top surface of the sport board.

A binding strap assist mechanism. The binding strap assist mechanism can be retrofitted onto standard snowboard binding straps to bias the binding straps into the open configuration, thus guiding the straps way from the foot area of the binding. Binding straps pass through the binding strap assist mechanism so that tensile forces along the length of each of these binding straps during use is not significantly conveyed to the binding straps assist mechanism. The tensile forces are thus isolated to the binding straps which are intended to carry such forces. The present invention provides a safe and convenient feature to snowboard bindings and other bindings. If the binding strap assist mechanism breaks or fails to function, the binding straps will continue to function as normal, resulting in no safety concerns to user.

Described herein include various embodiments of a binding assembly that assist with coupling a user's foot to a sport board. A foothold or binding upper that captures a user's foot can be coupled to a part of the binding assembly thereby enabling the binding assembly to secure the user's foot to the sport board. The binding assembly can include a chassis that has at least two connector receptacle that each allow an attachment feature (e.g., mounting screw) to extend therethrough and secure the binding assembly to the sport board. Each of the connector receptacles can be angled such that a longitudinal of the connector receptacle is positioned at an angle relative to a top surface of the sport board.

A snowboard binding includes a baseplate configured to secure to an upper surface of a snowboard a high back and straps secure to the baseplate. A drive plate is secured to the upper surface of the baseplate and has a stiffness effective to change ride properties of the snowboard. The drive plate may include a laminate structure including one or more composite layers such as fiberglass, carbon fiber, aluminum, or titanium. A carriage may mount the drive plate to the snowboard and may define a recess for receiving the drive plate. Tabs may extend from the lower surface of the carriage and engage corresponding apertures in the baseplate. The tabs may have hooked end portions to secure the carriage to the baseplate.

A binding system is mounted atop a rider-support surface of the board. The binding system comprises: a pair of rails locatable on opposing sides of a generally flattened foot-receiving surface for the rider's foot, each rail comprising a central portion mountable to the recreational board, a toe-side leg which extends from the central portion toward a toe-side of the recreational board and a heel-side leg which extends from the central portion toward a heel-side of the recreational board. Each rail is moveably coupled to a corresponding stand-off flange of a base.

A binding strap assist mechanism. The binding strap assist mechanism can be retrofitted onto standard snowboard binding straps to bias the binding straps into the open configuration, thus guiding the straps way from the foot area of the binding. Binding straps pass through the binding strap assist mechanism so that tensile forces along the length of each of these binding straps during use is not significantly conveyed to the binding straps assist mechanism. The tensile forces are thus isolated to the binding straps which are intended to carry such forces. The present invention provides a safe and convenient feature to snowboard bindings and other bindings. If the binding strap assist mechanism breaks or fails to function, the binding straps will continue to function as normal, resulting in no safety concerns to user.