Hyper Knee X D3O Ski/Snowboard Guard Pads

About the Demon Hyper Knee X D3O

The Demon Hyper XD3O snowboard/ski knee pads are a great option for protecting your knees from the hardest falls, especially on hard-packed snow and ice, pretty much everything on the mountain. The low profile is perfect to wear under your snowboard/ski pants.

D3O is a soft flexible material that will shape to your body comfortably. The big change happens when it takes an impact, all the polymers lock together protecting you against the impact. This means that the harder the impact, the greater the resistance to the force.

The front caps consist of a ballistic fabric front shield to protect against sharp edges and protect the D3O material, along with side padding and dual-density foam for an unbeatable level of comfort.

This way it can be worn comfortably without restricting any range of movement but still provide superb shock-absorbing protection. For extra comfort, these knee pads are made with neoprene, and lycra for support, sweat dispersion and added durability.

The Demon Hyper XD3O snowboard/ski knee pads will be essential for any rider as they offer maximum protection and flexibility using D3O technology. The knee pads are lightweight and it's low profile, will fit comfortably under any snowboard/ski pants.

Using high-quality materials they are extremely comfortable yet breathable making these knee pads the best option for support and protection on the mountain.

D3O technology is a patented smart material known for its use in protective gear and impact-resistant products. The material is soft and flexible at rest, but upon impact, it instantly hardens due to non-Newtonian polymers within a dilatant fluid. This unique property allows D3O to provide effective impact protection without sacrificing comfort or flexibility. Widely applied in sports, industrial, electronics, and military contexts, D3O is utilized in helmets, knee pads, gloves, and other gear, offering a combination of comfort and enhanced impact resistance by dynamically adapting its stiffness in response to sudden forces.