Abstract: A toe-piece of a ski binding for ski mountaineering has a base, a first jaw, a second jaw, an activating lever, a joint, a housing, and elastic means. The first jaw is provided with a first guide, and the second jaw is provided with a second guide. The activating lever is rotatably coupled to the base. The joint is activatable by the activating lever, which includes a first sliding element slidably coupled with the first guide and a second sliding element slidably coupled with the second guide, so that the activation of the activating lever causes, via the joint, the rotation of the first jaw and the second jaw. The housing is borne by the base. The elastic means are arranged in the housing so as to push the joint to wedge against the first jaw and the second jaw.

Abstract: A binding for snowboard includes a base structure and a heel support pivotally mounted to the base structure for movement between an open position for allowing a user to insert or remove their boot from the binding and a closed position for securing the users boot in the binding. An adjustable foot strap is attached to the base structure and a tensioning system is attached to the heel support and the adjustable foot strap for applying a tensioning force to the adjustable strap when the heel support is moved to the closed position and for releasing the tensioning force from the adjustable foot strap when the seal support is moved to the open position.

Abstract: Toe-piece for a boot on a gliding board including a chassis affixed to the gliding board; a body movable on the chassis; a sole-clamp movable on the body; a lateral release mechanism including a first elastic mechanism to return the sole clamp to engagement with the boot; a vertical retention mechanism having a second elastic mechanism arranged to continuously exert a return force on the body to bring the sole-clamp toward the lower surface of the chassis, the return force pressing the sole-clamp on the boot; at least one cam kinematically inserted between the second elastic mechanism and either the chassis or the body, the cam being shaped to modify, in relation to the chassis, the direction of the return force exerted by the second elastic mechanism on the body to attenuate a variation in the pressing force when the sole-clamp is away from the lower surface of the chassis.

Abstract: A heel unit for a downhill or a combined downhill and alpine touring ski binding has a vertical-release functional group with a tensioning device with a first spring assembly for holding a ski boot downhill, and a horizontal-release functional group with a base plate to be positioned on the ski and a slide that deflects laterally opposing the ski longitudinal direction against the force of a second spring assembly, on which the vertical-release functional group is arranged, as well as with a compression spring assembly acting on the horizontal-release functional group. The vertical-release functional group rotates on the horizontal-release functional group around an axis running vertically towards the top of the ski or towards the vertical, such that, after a limited lateral deflection of the slide, the vertical-release functional group rotates against the force of the second spring assembly to release of the ski boot into the respective lateral-release direction.

Abstract: Rear holding element for a ski boot comprising a heel grip (11), a lever (6) and a fitting pedal (7), characterized in that the fitting pedal (7) is mobile relative to the heel grip (11).

Abstract: Ski binding heel unit includes lateral release cams and a vector decoupler mechanism that provide lateral shear release of the heel of a ski boot from a ski. The ski binding heel unit includes an independent vertical heel release mechanism, independent lateral release mechanism and a forward pressure compensator. The lateral release cams have laterally outwardly flaring contact points. The vector decoupler mechanism restricts heel unit lateral rotation and translation to a control path. The shape of the lateral release cams dictates the control path. The vector decoupler mechanism redirects the non-lateral forces without effecting the vertical heel release, lateral heel release or forward pressure compensator. The lateral release cams and vector decoupler mechanism avert non-lateral, benign loads from the lateral heel release, and avert non-vertical, benign loads from the vertical heel release thereby reducing the incidence of inadvertent pre-release of a boot from a ski.

Abstract: A ski binding heel employs a low-mass, spring-loaded interface between the heel and/or toe release mechanisms of the heel and or toe pieces of the binding and the ski boot, i.e., fast-response heel and toe cups. The low mass or lightweight fast-response heel and toe cup interfaces follows the dynamics of the ski to retain the boot during events that could cause inadvertent release (IR) in a conventional release binding. A biased, or spring loaded member engages, the boot heel/toe for mitigating loads and for absorbing sub-injury loads and compensating for movement between the boot and ski. The spring loaded members are biased toward the boot heel and toe for absorbing loads and compensating for displacements that might otherwise result in an inadvertent release. The spring loaded toe/heel cups permit movements of the boot relative to the ski flexing and counter flexing that might have otherwise resulted in an IR.

Abstract: A heel lock and release combination for a splitboard boot binding. For use in ski touring mode, the binding includes a baseplate for receiving a rider's boot and a spring clamp affixed to a ski member of a splitboard binding interface. The baseplate is pivotably affixed to the ski at the toe. The spring clamp is mounted on a heel rest and may be repositioned between a heel locking and a free heel position. When locked, the spring clamp engages the heel end of the baseplate and prevents heel release. The engagement of the spring clamp is configured so that release of the heel occurs under stress: reducing injury.

Abstract: A gliding apparatus includes a gliding board, a first front boot-retaining device for ascending a slope and a second front boot-retaining device for the descent. The first front retaining device comprises a first boot-fastening mechanism, defining a boot pivot axis during the ascent. The second front retaining device comprises a second boot-fastening mechanism, including a movable element incorporating an interface surface capable of contacting a front portion of the boot, the movable element being separate from the first fastening mechanism. The second front retaining device is configurable in a first “inactive” configuration for which the interface surface is away from the boot front portion, and a second “active” configuration for which the interface surface contacts the boot front portion. The first boot-fastening mechanism is capable of cooperating with the movable element of the second front retaining device so as to maintain the second front retaining device in its active configuration.

Abstract: A boot retaining unit of a ski binding or snowboard binding, including at least one boot retaining element, a restoring spring for the boot retaining element, and a damping device for absorbing short, hard impacts, wherein the at least one boot retaining element and the damping device are connected via a translation mechanism, and the translation mechanism translates a deflection of the at least one boot retaining element into a larger deflection of the damping device.

Abstract: A tricycle may be operable between a first mode of operation steerable by a tricycle rider, and a second mode of operation steerable by an individual pushing the tricycle. In both such first and second modes, the frame of the tricycle is configured to rotatably support the rear wheels and configured to support the head tube at a distance from the rear wheels such that a distance between the head tube and rear wheels need not necessarily be changed even when the front wheel axis location is changed from one mode to another.

Abstract: An automatic front unit for a ski binding comprises two levers which, seen in the longitudinal direction of the ski are arranged laterally opposite each other, each having means for holding the toe of a ski boot. The two levers each pivot in such a way that pivoting movement of the levers moves the holding means in a transverse direction of the ski. The front unit has a release position, in which the two holding means are at a first distance from each other and a securing position, in which the two holding means are at a smaller second distance from each other. The front unit comprises a positive control device, on which the two levers are jointly pivotable within a dynamic region in the transverse direction of the ski and the two holding means are thereby jointly moved at the second distance from each other in the transverse direction.

Abstract: A heel piece for an alpine ski attachment comprises a base element (1), fastenable to a ski (S), an upper element (2), coupled to the base element (1), and a pair of rotatable arms for hooking to a shaped portion exhibited in a rear part of an alpine ski boot. A pair of pins (32) borne by the arms (31) project from the upper element (2). An elastic element (4) maintains the pins (32) at a predetermined reciprocal distance. The elastic element is stressed by a separation of the pair of pins (32), determined by a lowering of the ski boot onto the ski and by insertion between the pins (32) of the shaped portion. The pins (32), following complete insertion of the shaped portion between the pins, lock against an upper part of the shaped portion to hook the ski boot.

Abstract: The present invention provides a snowboard binding, including a mount, rear plate, top plate assembly base, rotary top pressboard, trigger support and coupling plate. The coupling plate, the mating frame of the rotary top pressboard, the mating ends of the trigger support and the top plate assembly base are coupled together to form a four-bar mechanism. The pressing state of the rotary top pressboard can be positioned directly by the perpendicular trigger support, and the rotary top pressboard can realize an expanded opening state over 90°. Thus, the snowboard boot can be slipped directly into the snowboard binding, enabling more convenient locating and release of the snowboard binding with better efficiency and applicability.

Abstract: An assembly provided for the practice of a gliding, rolling, or walking sport, such as snowboarding, skateboarding, or snowshoeing, for example, the assembly including a device for receiving a foot or a boot, as well as a board. The assembly includes a system for marking the position of the receiving device with respect to the board (3), the marking system including a first marking arrangement associated with the receiving device, as well as a second marking arrangement associated with the board, the first and second marking arrangements being provided to cooperate with one another.

Abstract: A binding with a medial and/or lateral side portion attached to a binding base and that can pivot or otherwise move about an axis that is generally along a heel-to-toe direction of the binding base. The medial and/or lateral side portions can form part of the binding sidewall and permit a rider to more freely move her feet in medial and/or lateral directions. One or more foot straps may engage with the medial and/or lateral side portions to secure a foot to the binding.

Abstract: An adapter 14 connects snowboard bindings 12 to snow skis 16 to allow the sportsperson to use light weight and smaller snowboard boots 10 to ski in. The adapter platform 30 mounts at its ends in the bindings 18, 20 of the ski and is rigidly fastened to the snowboard bindings by fasteners extending through the standard hole pattern used in fastening snowboard bindings to snowboards.

Abstract: Ski binding heel unit includes lateral release cams and a vector decoupler mechanism that provide lateral shear release of the heel of a ski boot from a ski. The ski binding heel unit includes an independent vertical heel release mechanism, independent lateral release mechanism and a forward pressure compensator. The lateral release cams have laterally outwardly flaring contact points. The vector decoupler mechanism restricts heel unit lateral rotation and translation to a control path. The shape of the lateral release cams dictates the control path. The vector decoupler mechanism redirects the non-lateral forces without effecting the vertical heel release, lateral heel release or forward pressure compensator. The lateral release cams and vector decoupler mechanism avert non-lateral, benign loads from the lateral heel release, and avert non-vertical, benign loads from the vertical heel release thereby reducing the incidence of inadvertent pre-release of a boot from a ski.

Abstract: A binding comprising a baseplate that is adapted to attach to a gliding board such as a snowboard, the gliding board having lateral and medial sidewalls and a heel loop, and a pivotably highback pivotably mounted to the baseplate. The heel loop includes at least one forwardly disposed tooth, and the highback includes a plurality of rearwardly disposed teeth. The maximum forward lean angle is established by the engagement of the heel loop and highback teeth. In one embodiment the highback adjustably attaches to the baseplate with hardware extending through arcuate slots, such that the maximum forward lean angle is determined by the position of the hardware in the slots.

Abstract: A snowboard binding has a front fixation device and a rear fixation device. The front fixation device and the rear fixation device secure a snowboard boot in a way that the snowboard boot is able to perform a free lateral roll movement about an axis extending in a longitudinal direction of the snowboard binding. The front and rear fixation devices have pivot points located in an area of a toe of the snowboard boot and in an area of a heel of the snowboard boot, respectively.

Abstract: A boot-retaining unit of a ski binding secures one end, in particular the toe end, of a ski boot using two boot sole holders pivotable about vertical axes, which engage an end region of the sole periphery or ski boot from the side, front and/or top and interact with a spring arrangement, which biases the boot/sole holder against the boot/sole periphery and allows the ski boot to be disengaged counter to a disengaging resistance. The sole holders are double-armed levers, with the lever arms of the sole holders distal from the sole interacting with pistons which are displaceable in a direction transverse to the ski binding's axis and, by a spring which is clamped between and engages the pistons, are forced against the lever arms which are remote from the sole.

Abstract: Ski binding (10) for fixing a ski shoe that comprises an upper and a sole (11), having a front retaining element (12) associated with the front end of the sole, a rear retaining element (13) arranged to engage at the foresole or at the heel of the ski shoe, a tensioning means (15, 16, 17, 19) effective between front and rear retaining elements, and having a means, associated with the front retaining element (12) and pivotally mounted relative to the latter about a horizontal axis, for supporting the front end of the sole or sole-supporting means (28), wherein the pivotal axis (29) associated with that supporting means simultaneously defines the pivotal axis about which a structural unit (26) comprising the front and rear retaining elements is pivotable when the shoe heel is lifted or lowered. The sole-supporting means (28) associated with the front end of the sole is pivotable relative to the structural unit (26) and is lockable, as required, by a separate locking element (30).

Abstract: A binding or boot strap is provided that allows a rider to easily, rapidly and/or effectively tighten and/or loosen the strap about his or her boot. The strap includes a boot-engaging strap portion that engages with an engagement strap coupleable to the boot, as may be the case with boots used for step-in bindings, or to the binding, as may be the case with strap-type bindings. An arrangement for facilitating tightening/loosening of the two strap pieces so that a rider can slip his or her foot into or out from the boot or fasten the boot to or loosen it from a snowboard binding is also provided. In one embodiment, this arrangement includes a tightening element, such as for example a cord, lace or strap, suitably coupled to one or both strap portions such that a rider can pull on the tightening element to move the strap pieces relative to each other and tighten the strap.

Abstract: A ski binding having two ski-binding parts is positioned on a ski, which bears guide devices for arranging the two ski-binding parts for sliding action, it being possible for each ski-binding part to be connected to an, in particular strip-like connecting element, which connecting elements can be secured in relation to the ski, between the two ski-binding parts, by means of a locking device which is fixed relative to the ski and has at least one blocking lever which can be engaged with, and disengaged from, toothing formations provided laterally on the connecting elements.

Abstract: A binding system is provided that is effective for use on recreational device, such as a snowboard, and that is adapted to mate to, or that includes, a boot or other footwear worn by the user. In general, the binding system includes a base plate for support a rider's foot, and a connecting element for mating the base plate to an elongate board, e.g., a snowboard. The connecting element is effective to mate the base plate to a snowboard about a fixed central axis and to allow pivotal movement of the base plate about the central axis with respect to the snowboard. The binding system can also include at least one compression member mated to the base plate and/or to a snowboard. The compression member(s) are effective to compress between the base plate and the snowboard in response to a force applied to at least one of the base plate and the snowboard.

Abstract: An alpine ski binding system for releasably securing a ski boot to a ski. The binding system includes a secondary toe release that provides an attenuated release threshold under lateral shear loading conditions that can cause anterior cruciate ligament injuries. The secondary toe release responds to a trigger that senses the lateral shear loads applied to the inside (medial) afterbody of the ski and triggers the secondary toe release the boot at an attenuated release torque. Lateral shear loads applied to the ski along the leading (medial) forebody and along the entire outside (lateral side) of the ski substantially do not cause the trigger to trip.

Abstract: A binding, in particular a snowboard binding comprises a base plate; a heel-cradling element; a toe-cradling element; an instep-strapping arrangement having a long part connected to one side of the base plate and a short side part connected to the other side; a closure device for the instep-strapping arrangement; and a flexible linkage connecting the closure device of the instep-strapping arrangement and the toe-cradling element. In an open position the toe-cradling element is free to move, and in a closed position the flexible linkage pulls the toe-cradling element, so the foot is secured between the toe-cradling element, the heel-cradling element and the instep-strapping arrangement. In this closed position the held-together parts of the instep-strapping arrangement hold a foot securely by forces acting between these parts through the closure device, independently of the need to maintain tension in the flexible linkage.

Abstract: A safety binding device for binding a boot on an alpine ski including a releasable retaining mechanism of the mechanical, hydraulic, viscoelastic type, which actuate a release as a function of the forces to which the boot is subjected and as a function of the duration ?t of the application of such forces. The release action occurs as soon as the magnitude of the force is greater than an actual release threshold, Sr, which is dependent upon the duration ?t of the application of force, such that if duration is greater than one second, the actual release threshold is between 50% and 75% of the theoretical release threshold, St, whereby: ?t>1 s; 0.75×St?Sr(?t)?0.5×St, with the theoretical release threshold St being determined as a function of the skier's parameters in conformance with ISO standards.

Abstract: The present invention relates to a ski binding that retains a boot to a ski in at least two independent operational states. One embodiment of a ski binding includes a toe receiving member and a releasable system. The toe receiving member is configured to engage the toe portion of the boot. The releasable system is configured to couple the toe receiving member to the ski in at least two independent operational states. A first state corresponds to a state in which the toe receiving member is allowed to freely rotate with respect to the ski. The first state is particularly useful in minimizing the necessary energy output for uphill travel. A second state corresponds to a state in which the toe receiving member is locked with respect to the ski. The second state is particularly useful in high performance downhill travel. The releasable system further includes an engagement mechanism and a switching mechanism.

Abstract: The present invention relates to a ski binding that retains a boot to a ski in at least two independent operational states. One embodiment of a ski binding includes a toe receiving member and a releasable system. The toe receiving member is configured to engage the toe portion of the boot. The releasable system is configured to couple the toe receiving member to the ski in at least two independent operational states. A first state corresponds to a state in which the toe receiving member is allowed to freely rotate with respect to the ski. The first state is particularly useful in minimizing the necessary energy output for uphill travel. A second state corresponds to a state in which the toe receiving member is locked with respect to the ski. The second state is particularly useful in high performance downhill travel. The releasable system further includes an engagement mechanism and a switching mechanism.

Abstract: A multi-function binding system configured for use on a sliding board, such as a snowboard or wakeboard, comprising a base assembly rotatably secured to the deck of a sliding board, with a binding system operable with the base assembly to releasably secure a user to the sliding board. The base assembly comprises various components, namely an adjustment mechanism and a release mechanism, supported within a bonnet that is rotatable about a support disc designed to be secured to the sliding board via the mounting configuration of the sliding board. The binding system provides a unique and advantageous release function otherwise not available in prior related binding systems.

Abstract: A snowboard binding includes a base plate and a heel support attached directly or indirectly to this base plate so that it can pivot. Intermediate elements mount the heel support and can be adjusted in the longitudinal direction of the snowboard binding. Thus, the effective length of the snowboard binding can be adapted to the respective boot. Also, through different positioning of the intermediate elements, the heel support can be arranged diagonally relative to the longitudinal axis of the snowboard binding.

Abstract: Ski binding heel unit includes lateral release cams and a vector decoupler mechanism that provide lateral shear release of the heel of a ski boot from a ski. The ski binding heel unit includes an independent vertical heel release mechanism, independent lateral release mechanism and a forward pressure compensator. The lateral release cams have laterally outwardly flaring contact points. The vector decoupler mechanism restricts heel unit lateral rotation and translation to a control path. The shape of the lateral release cams dictates the control path. The vector decoupler mechanism redirects the non-lateral forces without effecting the vertical heel release, lateral heel release or forward pressure compensator. The lateral release cams and vector decoupler mechanism avert non-lateral, benign loads from the lateral heel release, and avert non-vertical, benign loads from the vertical heel release thereby reducing the incidence of inadvertent pre-release of a boot from a ski.

Abstract: The present invention relates to a ski binding that retains a boot to a ski in at least two independent operational states. One embodiment of a ski binding includes a toe receiving member and a releasable system. The toe receiving member is configured to engage the toe portion of the boot. The releasable system is configured to couple the toe receiving member to the ski in at least two independent operational states. A first state corresponds to a state in which the toe receiving member is allowed to freely rotate with respect to the ski. The first state is particularly useful in minimizing the necessary energy output for uphill travel. A second state corresponds to a state in which the toe receiving member is locked with respect to the ski. The second state is particularly useful in high performance downhill travel. The releasable system further includes an engagement mechanism and a switching mechanism.

Abstract: A binding or boot strap is provided that allows a rider to easily, rapidly and/or effectively tighten and/or loosen the strap about his or her boot. The strap includes a boot-engaging strap portion that engages with an engagement strap coupleable to the boot, as may be the case with boots used for step-in bindings, or to the binding, as may be the case with strap-type bindings. An arrangement for facilitating tightening/loosening of the two strap pieces so that a rider can slip his or her foot into or out from the boot or fasten the boot to or loosen it from a snowboard binding is also provided. In one embodiment, this arrangement includes a tightening element, such as for example a cord, lace or strap, suitably coupled to one or both strap portions such that a rider can pull on the tightening element to move the strap pieces relative to each other and tighten the strap.

Abstract: The present invention relates to a ski binding that retains a boot to a ski in at least two independent operational states. One embodiment of a ski binding includes a toe receiving member and a releasable system. The toe receiving member is configured to engage the toe portion of the boot. The releasable system is configured to couple the toe receiving member to the ski in at least two independent operational states. A first state corresponds to a state in which the toe receiving member is allowed to freely rotate with respect to the ski. The first state is particularly useful in minimizing the necessary energy output for uphill travel. A second state corresponds to a state in which the toe receiving member is locked with respect to the ski. The second state is particularly useful in high performance downhill travel. The releasable system further includes an engagement mechanism and a switching mechanism.

Abstract: The present invention relates to a ski binding that retains a boot to a ski in at least two independent operational states. One embodiment of a ski binding includes a toe receiving member and a releasable system. The toe receiving member is configured to engage the toe portion of the boot. The releasable system is configured to couple the toe receiving member to the ski in at least two independent operational states. A first state corresponds to a state in which the toe receiving member is allowed to freely rotate with respect to the ski. The first state is particularly useful in minimizing the necessary energy output for uphill travel. A second state corresponds to a state in which the toe receiving member is locked with respect to the ski. The second state is particularly useful in high performance downhill travel. The releasable system further includes an engagement mechanism and a switching mechanism.

Abstract: The invention relates to a snowboard binding for soft boots. The fixing straps can be pivoted by means of a joint from a closed position to an open position close to the opening for entry. The straps are kept in an open position by means of a holding device. The holding power of the holding device stems from the resistance of the joint.

Abstract: A snowboard binding includes a base plate and a heel support attached directly or indirectly to this base plate so that it can pivot. Intermediate elements mount the heel support and can be adjusted in the longitudinal direction of the snowboard binding. Thus, the effective length of the snowboard binding can be adapted to the respective boot. Also, through different positioning of the intermediate elements, the heel support can be arranged diagonally relative to the longitudinal axis of the snowboard binding.

Abstract: A binding for a sports boot on a gliding board, comprising a base intended to be fixed on a gliding board, means for binding the boot and a rear stop or spoiler, wherein, on each lateral part of the base (1), the spoiler (3) is on the one hand mounted so as to move about a pin (4) mounted so as to move relative to the base (1) and on the other hand connected to the base (1) by a second means for guiding its movement relative to the base (1).

Abstract: A downhill ski binding (2) that operates to allow the skier to select a number of skates or a time interval, after which a lock means (30) locks the rearward end (28) of a ski boot plate (4) to a ski plate/lift (14) and/or a ski (22) until reset. Until the pre-selected number of skates or time interval is reached, the rearward end of the ski boot plate is freely moveable with respect to the ski plate/lift and/or ski, thereby allowing the skier to freely skate. A variety of configurations and mechanical, electromechanical and electromagnetic dynamic locking means are described, several with remote input means (104) and a logic unit (102).

Abstract: A highback for controlling a gliding board, such as a snowboard, through leg movement of a rider. The highback is comprised of an upright support member including at least two portions that are to be contacted by and to support a rear portion of the rider's leg and that are movable relative to each other for setting a desired forward lean of the highback. The support member may include a lower portion with a pair of mounting locations for mounting the highback to a gliding board component, such as a snowboard binding, and an upper portion movably supported by the lower portion to vary the forward lean of the highback. The lower portion of the support member may be mounted to a snowboard binding baseplate for lateral rotation between a plurality of lateral positions. The highback may include a forward lean adjuster that prevents the upper portion from moving in the heel direction beyond a predetermined forward lean position.

Abstract: An assembly for retaining a boot on a gliding board having a release block with at least one jaw for retaining a member for fastening the boot, the jaw being movable between a closed position in which it retains the fastening member and an open position in which it releases the fastening member, the jaw being maintained in the closed position by a movable latch. The movement of the latch is controlled by a source of pneumatic energy, with the exclusion of any other energy.

Abstract: The present invention comprises an apparatus, namely, a snowboard accessory, which comprises a base and first and second straps operatively connected to the base. The straps are selectively removable from the base. The straps are adapted to secure a snowboarder's left foot to the base. Further, the straps are reversible such that a snowboarder's right foot can be attached to the base. Accordingly, it an object of the present invention to provide a toe-hook apparatus that is reversible such that a regular-footed rider or a goofy-footed rider may relieve stress on their knees and ankles when riding a chair lift.

Abstract: A snowboard binding is provided having a base to accommodate the boot of the user and keep it in a fixed position on the base; and a highback. The highback is adapted to allow the leg of a user to articulate through a range of motion. Attached to the highback is a system of springs or elastic members for returning the leg of the user to a neutral position relative to the board in the absence of an applied counterforce. For example, the highback can be attached to the base in such a manner as to allow the highback to articulate in a range extending from a forward position to a neutral position, and optionally to a rearward position, the neutral position being disposed between the forward position and any rearward position. In this binding, a tensioning member is affixed to the highback in such a manner as to resist articulation of the highback to the forward or the rearward position, and to apply a force to the highback to return it to the neutral position in the absence of an applied counterforce.

Abstract: A snowboard binding mechanism for securing a snowboard boot to a snowboard includes at least one moveable engagement member having an open position and at least one closed position. When in the closed position, the engagement member is biased toward the open position. As a result, when a snowboard boot is not disposed in the binding mechanism, the binding mechanism automatically moves to the open position. The engagement member may also function to compensate for snow, ice or debris accumulated beneath the boot. A single handle may be operatively connected to the engagement members to facilitate ease of removal of the snowboard boot from the binding by simply requiring actuation of the single handle to unlock the binding. A separate foot pedal may be operably coupled to the engagement member and is also employed to unlock the binding. The binding mechanism may also include a cocking feature that unlocks the binding mechanism without also causing the engagement members to move to open positions.

Abstract: An adjustable mount for use with a snowboard and a snowboard binding has a center-line and a channel which longitudinally extends along the center-line of the snowboard. The snowboard binding includes a binding base plate and a disc. The disc has a center-line and a bottom surface and is rotatably coupled to the binding base plate. The adjustable mount includes a rail and a locking mechanism. The rail is disposed in the channel and is fixedly coupled thereto. The rail is a flexible member and has a key-slot and two series of parallel notches. The binding base plate is disposed on the snowboard. The disc has a center-line and a bottom surface. The disc is rotatably coupled to the binding base plate. The locking mechanism securely couples the rail to the binding base plate.

Abstract: A snowboard binding system that incorporates the riding performance of a strap binding with the convenience of a step-in binding. The binding system includes a binding interface that is configured to be coupled to a step-in binding base, while also being configured to secure a snowboard boot in a manner that provides a rider with the riding performance of a strap binding. The binding interface may include one or more straps for securing a boot to a snowboard. The binding system may be configured so that the binding base engages regions of the binding interface to which the straps are attached to provide the feel of a strap binding. The binding base may include at least three engagement members to engage with corresponding mating features on the interface. The binding base may include a pair of engagement members at both the rear or heel end and the front or toe end thereof to engage with corresponding mating features on the interface.

Abstract: A snowboard binding system that incorporates the riding performance of a strap binding with the convenience of a step-in binding. The binding system includes a binding interface that is configured to be coupled to a step-in binding base, while also being configured to secure a snowboard boot in a manner that provides a rider with the riding performance of a strap binding. The binding interface may include one or more straps for securing a boot to a snowboard. The binding system may be configured so that the binding base engages regions of the binding interface to which the straps are attached to provide the feel of a strap binding. The binding base may include at least three engagement members to engage with corresponding mating features on the interface. The binding base may include a pair of engagement members at both the rear or heel end and the front or toe end thereof to engage with corresponding mating features on the interface.

Abstract: Step-in snowboard binding designed to hold a boot by its sides. The binding comprises at least one jaw (2) secured to a driving arm (9) intended to be driven by the boot. The jaw has a cam-shaped part (9) collaborating with a locking element (12) which can move in a guide (13) in such a way that the jaw is locked for various positions of the jaw. The jaw (2) is equipped with a return spring which tends to keep it in the open position, and the jaw and the locking element cooperate to keep the locking element away from its locking position when the jaw is raised. In this way, the jaw cannot be closed inadvertently and the locking element does not hamper the closure movement.