Composite materials are advanced engineered materials created by combining two or more components with different physical or chemical properties. The most common composites are fiber-reinforced polymers (FRP), which combine strong fibers with polymer resins to create lightweight and durable structures.

Thanks to their high strength-to-weight ratio, corrosion resistance and long service life, composite materials are widely used in industries such as railway, automotive, marine, construction and renewable energy.

This Composite Knowledge Center provides practical information about composite materials, fiberglass structures, composite manufacturing technologies and engineering design principles used in modern industrial production.

Basic concepts and definitions of composite materials, including FRP, GRP and their key properties.

What is FRP

What is GFRP

 What are composite materials

Advantages of composite materials

Types of composite materials

Overview of composite manufacturing technologies such as RTM, vacuum infusion, hand lay-up and PUR systems..

Vacuum infusion process

Resin Transfer Molding

Hand lay-up process

Composite manufacturing process

Types of composite materials, including fibers, resins and core materials used in industrial applications.

Glass fiber composites

Carbon fiber composites

Fiberglass materials

Resin systems in composites

Glass fiber vs carbon fiber

Engineering design plays a critical role in the performance of composite structures. Unlike traditional materials, composite components can be engineered to achieve specific mechanical properties by adjusting fiber orientation, laminate structure and material selection.

Proper design and tooling are essential to ensure structural strength, durability and efficient manufacturing of composite parts used in industrial applications.

Composite mold design

Designing composite parts

Composite tooling

Structural design of FRP components

Laminate structure in composites

Composite materials are widely used across many industries due to their lightweight structure, corrosion resistance and high durability. Fiber reinforced composites allow engineers to design components that are stronger, lighter and more resistant to environmental conditions than traditional materials.

Today composite structures are commonly used in transportation, infrastructure, energy systems and industrial equipment.

Composites in railway industry

Composites in automotive industry

Composites in marine applications

Composites in construction

Composites in wind energy

Composites in defence industry

As a global Composite Manufacturer, we understand that selecting the right materials is crucial for engineering success. Modern Composite Knowledge Center resources emphasize the transition from traditional metals to advanced FRP (Fiber Reinforced Polymer) systems.

The decision between Glass fiber composites and Carbon fiber composites depends on your specific application:

• Glass Fiber: Offers excellent electrical insulation and high resistance to chemical corrosion, making it ideal for industrial enclosures.
• Carbon Fiber: Provides unmatched stiffness-to-weight ratios, essential for the aerospace and automotive sectors.

Our engineering team at Astromal focuses on optimizing Resin systems to ensure that every component meets rigorous international safety standards, such as fire protection in railway and public transport.

We regularly update our Composite Knowledge Center with the latest industry standards and technical data