Provided is a snowboard binding in which a stopper function operates when a boot is removed and the stopper function is released when a boot is mounted, and a stopper device for a snowboard binding. The snowboard binding is provided with an urging body for rotatably urging a highback rearward, and configured so that when a lock lever of a lock mechanism is placed in an unlocked state by the rotational urging of the urging body, the highback automatically rotates rearward, and configured so that when the highback arrives at the rearward-rotation-limit position or near the rearward-rotation-limit position, a connecting cord of the lock mechanism is tensioned, the orientation in which the lock lever projects from the highback rear surface section is maintained, and the lock lever in this projecting orientation makes contact with the snow surface below a snowboard to bring about a slide-preventing effect.

Splitboard binding systems and assemblies for use in ski mode or snowboard mode. Left and right bottom rails are attached to the bottom surface of a base plate. Each rails may have a circular hook at a forward end for attachment to a toe bracket in a ski mode. The rails and base plate define channels for slidable attachment to pucks disposed on the gliding board in snowboard mode. A securing lever disposed near the rear end of the binding with a securing member disposed on the lower surface thereof may be rotated into a downwards position so the securing member resides below the base plate to secure the binding in position when installed on pucks in a snowboard mode. Crampon assemblies and sliding heel locks for use with the binding assembly are aso disclosed.

Splitboard binding systems and assemblies for use in ski mode or snowboard mode. Left and right bottom rails are attached to the bottom surface of a base plate. Each rails may have a circular hook at a forward end for attachment to a toe bracket in a ski mode. The rails and base plate define channels for slidable attachment to pucks disposed on the gliding board in snowboard mode. A securing lever disposed near the rear end of the binding with a securing member disposed on the lower surface thereof may be rotated into a downwards position so the securing member resides below the base plate to secure the binding in position when installed on pucks in a snowboard mode. Crampon assemblies and sliding heel locks for use with the binding assembly are aso disclosed.

An improved highback adjustment system for a splitboard boot binding. A captive strut is mounted on the spine of the highback, the strut having a forward lean adjustor block such that rotation or sliding of the block lengthens or shortens the strut. The combination provides a broadly adjustable range of forward lean bias in small increments and the block is readily disengaged and stowed on the highback when not needed. Advantageously, the mechanism that can be operated and adjusted without tools, even with gloved hands, a significant benefit in winter conditions, and does not jam with snow. Methods of use of the improved forward lean adjustor and highback are also disclosed.

Provided is a snowboard binding in which a stopper function operates when a boot is removed and the stopper function is released when a boot is mounted, and a stopper device for a snowboard binding that can be attached to and used in a binding of a type exemplified in Patent Document 1. A snowboard binding configured so as to be provided with an urging body (9) for rotatably urging a highback (4) rearward, and configured so that when a lock lever (7) of a lock mechanism (6) is placed in an unlocked state by the rotational urging of the urging body (9), the highback (4) automatically rotates rearward, and configured so that when the highback (4) arrives at the rearward-rotation-limit position or near the rearward-rotation-limit position, a connecting cord (8) of the lock mechanism (6) is tensioned, the orientation in which the lock lever (7) projects from the highback (4) rear surface section is maintained, and the lock lever (7) in this projecting orientation makes contact with the snow surface (S) below a snowboard (1) to bring about a slide-preventing effect.

Disclosed herein is a boot frame comprising: a) a base; b) two side supports; c) a toe binding; d) a heel binding; e) an ankle support; f) a calf support; and g) at least one strap configured to secure a boot to the boot frame, wherein the side supports are independently adjustable, and wherein adjusting the side supports allows for a boot to line up at an angle relative to the base.

Disclosed herein is a boot frame comprising: a) a base; b) two side supports; c) a toe binding; d) a heel binding; e) an ankle support; f) a calf support; and g) at least one strap configured to secure a boot to the boot frame, wherein the side supports are independently adjustable, and wherein adjusting the side supports allows for a boot to line up at an angle relative to the base.

Splitboard binding systems and assemblies for use in ski mode or snowboard mode. Left and right bottom rails are attached to the bottom surface of a base plate. Each rails may have a circular hook at a forward end for attachment to a toe bracket in a ski mode. The rails and base plate define channels for slidable attachment to pucks disposed on the gliding board in snowboard mode. A securing lever disposed near the rear end of the binding with a securing member disposed on the lower surface thereof may be rotated into a downwards position so the securing member resides below the base plate to secure the binding in position when installed on pucks in a snowboard mode. Crampon assemblies and sliding heel locks for use with the binding assembly are aso disclosed.

Boot binding systems for riding a snow gliding board, including a pair of boot bindings, each member of the pair having a toe latch pedal mechanism at the toe end of a baseplate on which the rider's boot rests, the toe latch pedal having dual function to either a) attach each boot binding to a ride mode interface in ride mode configuration or to b) attach each boot binding to a ski touring mode interface in ski touring configuration. In a release position the toe latch pedal is disengaged so that the baseplate assembly may be detached or switched between the ski touring mode interface and the ride mode interface in alternation. In a lock position, the toe of the rider's boot depresses the toe latch pedal and locks the boot binding onto the selected interface. As co-planar with the baseplate, the latch pedal also supports the rider's boot when in the lock position.

Boot binding systems for riding a snow gliding board, including a pair of boot bindings, each member of the pair having a toe latch pedal mechanism at the toe end of a baseplate on which the rider's boot rests, the toe latch pedal having dual function to either a) attach each boot binding to a ride mode interface in ride mode configuration or to b) attach each boot binding to a ski touring mode interface in ski touring configuration. In a release position the toe latch pedal is disengaged so that the baseplate assembly may be detached or switched between the ski touring mode interface and the ride mode interface in alternation. In a lock position, the toe of the rider's boot depresses the toe latch pedal and locks the boot binding onto the selected interface. As co-planar with the baseplate, the latch pedal also supports the rider's boot when in the lock position.