Avient’s reinforced composite technologies use carbon, glass and aramid fibers with custom formulated thermoset or thermoplastic resins in continuous forming processes Learn about Hammerhead™ Marine Composite Panels made from continuous glass-fiber reinforced thermoplastic face sheets and polyester foam cores OnForce™ LFT Long-Fiber Reinforced Thermoplastic Composites - Product Bulletin

Continuous fiber-reinforced thermoplastic composites Moisture-resistant Complēt™ long glass fiber reinforced formulation improves strength, design freedom, and finish Complēt™ MT Long Glass Fiber Reinforced Nylon 6 improved durability and vibration damping allowing the blades to flex and absorb energy from minor impacts

Gordon Glass™ Archery Bow Limbs OnForce™ Long Glass Fiber Reinforced Polypropylene Composites Long Glass Fiber Reinforcement

Glass fiber-reinforced polyester is the most prevalent composite used in boats and ships while aramid fiber reinforcement is used in key areas of high-performance sailboats, such as the bow and keel sections.  Glass fiber-reinforced composites are also used in other electrical transmission and distribution applications such as insulators, arresters, and pole line hardware. Organo sheets are another kind of laminate and can be made from carbon, glass, or aramid fiber fabrics. 

Achieve performance equivalent to PA66 glass fiber-filled materials Lower warpage compared with PA66 glass fiber-filled materials Cost-effective alternative to PA66 glass fiber-reinforced materials

Glass fibers are commonly added to nylon, polypropylene and other polymers to make glass-fiber reinforced plastic (GFRP) that is stiffer and stronger than unfilled polymer. Combining fiber types, such as long-glass and long-carbon fibers, or combining fibers with minerals, such as talc, can optimize the cost and physical properties of your composite. Molding with Long-Fiber Composites To preserve the fiber size, use long-fiber compound pellets instead of standard pellets.

Glass fibers are commonly added to nylon, polypropylene and other polymers to make glass-fiber reinforced plastic (GFRP) that is stiffer and stronger than unfilled polymer. Combining fiber types, such as long-glass and long-carbon fibers, or combining fibers with minerals, such as talc, can optimize the cost and physical properties of your composite. Molding with Long-Fiber Composites To preserve the fiber size, use long-fiber compound pellets instead of standard pellets.

Glass fibers are commonly added to nylon, polypropylene and other polymers to make glass-fiber reinforced plastic (GFRP) that is stiffer and stronger than unfilled polymer. Combining fiber types, such as long-glass and long-carbon fibers, or combining fibers with minerals, such as talc, can optimize the cost and physical properties of your composite. Molding with Long-Fiber Composites To preserve the fiber size, use long-fiber compound pellets instead of standard pellets.

Glass fibers are commonly added to nylon, polypropylene and other polymers to make glass-fiber reinforced plastic (GFRP) that is stiffer and stronger than unfilled polymer. Combining fiber types, such as long-glass and long-carbon fibers, or combining fibers with minerals, such as talc, can optimize the cost and physical properties of your composite. Molding with Long-Fiber Composites To preserve the fiber size, use long-fiber compound pellets instead of standard pellets.

Glass fibers are commonly added to nylon, polypropylene and other polymers to make glass-fiber reinforced plastic (GFRP) that is stiffer and stronger than unfilled polymer. Combining fiber types, such as long-glass and long-carbon fibers, or combining fibers with minerals, such as talc, can optimize the cost and physical properties of your composite. Molding with Long-Fiber Composites To preserve the fiber size, use long-fiber compound pellets instead of standard pellets.