4frnt Inthayne 2018/2019

We started with clear Aspen and Maple stringers running the length of the ski at min/max tolerance of the binding screw hole pattern. To reduce weight, we eliminated the Maple stringers, making the core 100% clear Aspen and then milling a 4mm x 60cm pocket where the min/max of the binding mount will occur and use clear Maple inserts to support the binding retention without adding all the weight. We rely on carbon stringers to support the tip/tail end of the core where the Maple is no longer present.

A non-elastic alternative to traditional fiberglass. The carbon runs the length of the ski like a stringer, acting as a springboard of flex, superior to what traditional fiberglass is capable of. Carbon Fiber adds an incredible amount of strength with very little added weight.

Eliminating deflection, delamination and fractures in the ski tip. These three issues have long plagued the durability of freeride skis due to the abrupt change in snow conditions and tip slap on impact from catching air. The bordering material in a ski tip that joins the core end is most commonly comprised of hard, non-elastic polymers. We began experimentation in our White Room using different grades of Neoprene to withstand the shearing impacts and provide absorption for change in conditions. The result is a dampened feel that calms the ski feel and increases the durability.

Eliminating deflection, delamination and fractures in the ski tip. These three issues have long plagued the durability of freeride skis due to the abrupt change in snow conditions and tip slap on impact from catching air. The bordering material in a ski tip that joins the core end is most commonly comprised of hard, non-elastic polymers. We began experimentation in our White Room using different grades of Neoprene to withstand the shearing impacts and provide absorption for change in conditions. The result is a dampened feel that calms the ski feel and increases the durability.