Airush AR24 Ultra Team V5 Kite only – Kite

The Ultra Team is a more responsive, faster and lighter version of the Ultra, reinforced with Ho'okipa Ultra PE material.

• Team-developed, lightweight design for foil, freeride and surf
• Reduced leading edge diameter for maximum efficiency
• Ho’okipa Ultra PE-Hochdruck-Leading Edge & Load Frame

• LOAD FRAME: The Airush Load Frame is the key to setting the ultimate benchmark in durability without compromising on weight. Ultra-high modulus yarns bear the brunt of the canopy, preventing stretching and increasing long-term performance. The Load Frame is further enhanced by WebTech, which is deployed in areas traditionally occupied by Dacron. This allows us to minimize or eliminate the heavier fabric and use the high modulus ballistic weave fibers instead - increasing strength and minimizing weight.
• WEBTECH: WebTech minimizes or replaces traditional Dacron reinforcement by exposing the wider loads through a web “subframe”.
  ultra-high molecular weight polyethylene (ultra-high modulus) into the load frame. This is used in key areas such as the main attachment points on the leading edge or the rear attachment points, whilst also being used to support
  Structural components such as the center strut is used.
• HO’OKIPA: Developed in collaboration with Challenge Sailcloth, this unique Ultra-PE composite leading edge material is 25%
  lighter and 10 times stronger than conventional fabrics. This allows for 50% higher pressure, resulting in greater rigidity combined with a thinner leading edge. The result is super-fast responsiveness, coupled with excellent handling and of course the long-term performance you get from Airush
  expect. UHMWPE fibers (excluding the brand names Dyneema® or Spectra®) are the lightest and strongest fibers available on the market with a tensile strength 15 times greater than steel. UHWMPE is manufactured through a gel-spun extrusion process that creates extremely long chains of polyethylene aligned along a molecular backbone. This orientation effectively transfers the load through the fiber, providing high elastic modulus and strength.