Abstract: A watercraft stabilizing system includes a float selectively movable by a user to a deployed position extending away from a hull of the watercraft. The hull and float may be configured so that in a retracted position the float does not detrimentally affect the handling and/or performance of the craft. In various embodiments, the float, in a retracted position, may be positioned in-line with the hull, or so that it otherwise follows the contours of the hull, specifically with respect to the portions of the float and hull that are below the waterline. The stabilizing system may be particularly suitable for use with kayaks and canoes.

Abstract: A snowboard binding includes a highback that is pivotally mounted relative to a base and movable between a riding position and a folded position. In the folded position, the highback may be positioned lower than an uppermost portion of a heel hoop. In one embodiment, all portions of the binding when the highback is in a folded position may lie within a maximum distance of 3 inches or less.

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: 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: 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: 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: Multi-screw, extrusion-compounding machines having co-rotating screw assemblies incorporating sets of modular mixing elements of non-symmetrical geometries with relatively large wing tip clearances. These sets of non-symmetrical modular mixing elements are removably mountable at any suitable axial locations along their respective rotationally-driven screw shafts for optimizing performance in relationship to particular plastic material and particular additives being compounded. The non-symmetrical geometries provide dynamic wedging pressurization for repeatedly propelling relatively large circumferential flows of the plastic material through large shear clearances. Due to the relatively large shear clearances, the plastic material is mixed at less elevated and more uniform temperatures than usually occurs with use of prior symmetrical kneading blocks or kneading discs. At less elevated temperatures most plastic materials exhibit increased viscosities.

Abstract: A coupling mechanism for quickly coupling a rotor body to its drive and driven journals and thereby obtaining radial and axial alignment thereof in a closely confined space is provided. The coupling mechanism includes a split ring collar and a clamping ring securely holding in appropriate placement a chamfered split ring for radially and axially aligning the rotor and the journals, hereinafter referred to as co-axial alignment.