UHMWPE woven Fabric

UHMWPE Fabric

Ultra-High Molecular Weight Polyethylene (UHMWPE) has a density of 0.97 g/m³. The lightest of high-performance fibers is present.

It weighs two-thirds as much as aramid fiber and half as much as carbon fiber. UHMWPE is also the strongest fibre available. Therefore, a fabric made with UHMWPE fiber is not only lightweight but also has excellent tensile strength and tear strength.

Aramid fabric

Aramid Fabric

Aramid fabric is a high-performance, lightweight material known for its superior strength-to-weight ratio, exceptional durability, and resistance to extreme conditions.

Five to six times stronger than steel but only a fifth of the weight, aramid fabric excels in applications that demand impact resistance, thermal stability, and chemical resilience. It is widely used across military, aerospace, automotive, and industrial sectors.

Carbon with Dyneema

Hybrid Fiber Fabric

Hybrid fiber fabric mixes high-performance fibers, like Carbon with Dyneema or Kevlar. This combination creates a balance of strength, flexibility, and visual appeal.

By weaving different yarns in specialized configurations, hybrid fabrics are designed to optimize specific properties, such as impact resistance, lightweight durability, and stiffness, tailored to meet demanding application needs. This hybrid structure retains the unique benefits of each fiber type, making it a preferred choice for advanced composites in aerospace, sports equipment, and automotive industries.

Carbon fiber fabric

Carbon Fiber Fabric

Carbon fiber fabric is renowned for its exceptional strength, rigidity, and lightweight properties. It is five times stronger and twice as stiff as steel.

Its unique characteristics—corrosion resistance, thermal conductivity, flame resistance, UV stability, and X-ray permeability—make it ideal for high-performance applications across various sectors, including aerospace, automotive, and sports equipment.

woven drop stich

Woven Drop Stitch

Drop stitch, also known as “Double Wall Fabric,” consists of two parallel fabric layers connected by thousands of interlocking threads. These threads hold the two layers apart under high tension, creating a durable and resilient material that enables inflatable structures like paddle boards to maintain a flat and rigid surface when inflated.

However, in traditional knitted drop stitch, the connecting fibers align vertically at a 90° angle to the surface. This limits the material’s ability to withstand bending stress, making it less ideal for high-performance use. Increasing bending stiffness through added thickness or extra fabric layers often compromises the board’s performance by adding unnecessary weight.