Composites (FRP)

Traditional construction materials are susceptible to weather and normal wear over time. Concrete, wood, or steel can deteriorate, impacting the integrity of the structure. While these materials may initially meet the municipal, commercial, or industrial stakeholders' performance and investment objectives, they can end up costing more over the long term due to repair and replacement. A cost-effective alternative is FRP, a lightweight, high strength, highly durable material used for buildings, equipment, infrastructure and many other products. 

What Is FRP?

Fiber-reinforced polymer (FRP) is an engineered material consisting of reinforcement fibers, polymer resin, and additives to achieve the desired performance properties. This combination creates an extremely strong and durable material that can be used for parts inside equipment up to large, heavily loaded civil infrastructure. The type of reinforcement fiber is chosen based on the requirements of the application. For example, carbon fiber is commonly used in airplanes and recreational equipment, while the most common reinforcement material is fiberglass given its combination of properties and cost.

Composite materials are formed by combining two or more materials that have quite different properties. The different materials work together to give the composite unique properties. 

Most composites are made by taking one material (the matrix) and having it surround fibers or fragments of a stronger material (the reinforcement) and we can choices during the manufacturing process to determine what the properties of the resulting composite should be and the successful application of composites requires strong adhesion and interfacial forces between the matrix and the reinforcements

Thermoset polymers are  the most common matrix materials used in advanced Fibre-Reinforced Polymer (FRP) composites. polymers like Polyester, Vinyl ester, epoxies are used as matrix based on the required properties like shear strength, flexural properties, impact resistance etc.,

Reinforcement are selected based on various properties required like weight, strength, corrosion-resistant, non-magnetic, non-conductive properties and so on and the common reinforcement are Glass, Carbon, Aramid  or Kevlar fiber.  

Why FRP

FRPs are an ideal choice for a wide range of products, offering:

Benefits of FRP Over Traditional Materials

FRP provides many benefits over traditional building materials such as steel, aluminum, and wood.

FRP VS. STEEL

FRP is highly corrosion-resistant, whereas steel is susceptible to rust from chemicals and weather exposure. FRP is as strong as steel and weighs significantly less; for a great strength-to-weight ratio. Other benefits that FRP has over steel include:

FRP VS. ALUMINUM

Unlike aluminum, FRP has low thermal conductivity, meaning it serves as a great insulator. It’s also corrosion-resistant, non-conductive, and won’t deform under impact.

FRP VS. WOOD

Wood components are prone to warping, decay, and rot. FRP exhibits excellent resistance to corrosion, mildew, mold, and other conditions that timber cannot stand up against. FRP can also deliver extreme durability without the need for environmentally hazardous coatings.

FRP VS. CONCRETE

FRP panels are less than 15% the weight of concrete.  There is no spalling, cracking or damage from moisture, salt or chemical.

What to Look For in an FRP Manufacturer

FRP is a material widely used in industries that often must adhere to stringent standards and requirements. To ensure your FRP manufacturer can provide a quality product that meets each application and industry's specifications, look for the following: