Abstract: An improved snowboard binding (6) has an adjustably positioned toe ramp (44) mounted to the front end (32) of the base (18) with an upwardly curving front portion (62) shaped to conform to the toe (14) of the boot sole (12) to increase the toe-side edge responsiveness. A dampened, energy absorbing heel pad (66) is mounted to the rear end (28) of the base to help absorb impact. Arm channels (84,86) are formed in each of the left and right side flanges (22,24), extend upwardly from the baseplate (20), and are sized to contain the left and right mounting arms (94,96) of a heel support (26). A pair of threaded fasteners (104,108) clamp the mounting arms within the side flanges over a range of upwardly and rearwardly extending portions. Front-and-rear forces on the heel support are resisted by the two fasteners and by engagement of the upper and lower edges (122,124) of the arms with upper and lower channel walls (88,89).

Abstract: A snowboard (4) includes a core (10) having tip and tail portions (20, 22) with a center portion (9) therebetween. The tip and tail portions both include lightweight, high strength honeycomb material (18) to reduce the mass moment of inertia of the snowboard. Doing so reduces the spin weight of the snowboard and permits the user to turn the snowboard about a vertical axis (26) more easily.

Abstract: A snowboard binding (6) has an adjustably positioned toe ramp (44) mounted to the front end (32) of the base (18) with an upwardly curving front portion (62) shaped to conform to the toe (14) of the boot sole (12) to increase the toe-side edge responsiveness. A dampened, energy absorbing heel pad (66) is mounted to the rear end (28) of the base to help absorb impact. Arm channels (84,86) are formed in each of the left and right side flanges (22,24), extend upwardly from the baseplate (20), and are sized to contain the left and right mounting arms (94,96) of a heel support (26). A pair of threaded fasteners (104,108) clamp the mounting arms within the side flanges over a range of upwardly and rearwardly extending portions. Front-and-rear forces on the heel support are resisted by the two fasteners and by engagement of the upper and lower edges (122,124) of the arms with upper and lower channel walls (88,89).

Abstract: A snowboard binding mounting disk (24) includes a body (28) through which 3-hole and 4-hole patterns (8, 10) of mounting holes are formed. The centers of a pair of the 3-hole mounting holes are separated by a base distance (Z). The centers of a pair of the 4-hole mounting holes are separated by an end distance (Y). The end and base distances differ by a distance delta. The pair of end holes and the pair of base holes are positioned adjacent to one another so that the end and base holes overlap one another to create a pair of oblong, dual purpose holes (30). A removable and replaceable mounting element positioner (29) is mounted to the oblong holes at one of two stable positions. The position chosen is determined by whether the dual purpose holes are to be used for the 3-hole pattern or for the 4-hole pattern. The central opening (20) in the base is preferably made by stamping a grooved peripheral surface (22) sized to engage a complementary grooved surface (53) on the disk.

Abstract: A lightweight ski, having excellent flexibility in both vertical and sidewall deflection, yet exhibiting high shear strength, is disclosed. The ski is fabricated using a honeycomb sandwich construction wherein the ribbon or higher shear strength direction of the honeycomb is along the length of the skis. Also, the facings bonded to the top and bottom portions of the honeycomb core comprise a fiber reinforced resin in which the fibers extending along the length of the ski to further enhance a shear strength in that direction. The sidewall of the ski comprises flexible, rubberized material and further, the ski has at least one resilient, flexible metallic running edge, the edge being so constructed that it does not substantially increase the vertical or sidewall stiffness of the ski.