A roll of continuous fiber reinforced thermoplastic material, showcasing a smooth surface and cylindrical shape against a light background.

Continuous Fiber Reinforced Thermoplastic Composites

Structural performance. Manufacturing freedom. Built to be reformed.


CFRTP is not “plastic made stronger.”
It is a class of structural composite materials that combine continuous reinforcing fibers with thermoplastic polymers to deliver strength, stiffness, durability, and manufacturing flexibility that conventional materials cannot.

Why “Plastic” Is the Wrong Starting Point

When people hear plastic, they often think of low-strength, disposable products. That assumption does not hold for structural composites.

In CFRTP, the polymer is not the structure.
The continuous fibers carry the load.
The thermoplastic matrix binds, protects, and enables the structure.

This distinction separates molded plastics from fiber-dominated structural systems designed to replace steel, aluminum, or thermoset composites in demanding applications.

What Defines CFRTP Performance

CFRTP is a laminated composite, meaning performance is engineered layer by layer using continuous fibers arranged in specific orientations and made from selected fiber materials. The thermoplastic matrix provides toughness and reformability, while the fibers define stiffness, strength, and load-carrying capacity.

Why continuous fiber dominates:
Continuous fibers create uninterrupted load paths across the part, enabling high structural efficiency and predictable behavior. Long and short fibers improve toughness and moldability, but fiber discontinuities limit their ability to carry structural loads.

Fiber orientation is engineered to match loading:

  • Unidirectional layers for maximum strength and stiffness
  • Cross-plies (0/90) for balanced properties
  • Angle-plies (±45) for shear and torsion

Fiber material selection tailors performance:

  • Glass for cost-effective structural reinforcement
  • Carbon for high stiffness and low weight
  • Basalt for thermal and chemical resistance
  • Aramid for impact and abrasion resistance
  • Natural fibers for renewable, lower-carbon systems

Continuous fiber reinforcement enables CFRTP components to meet structural demands that long- or short-fiber plastics cannot.

Why Thermoplastics Change Composites

Traditional composites rely on thermoset resins that cure once and permanently. While strong, thermosets cannot be reshaped, welded, or recycled, and they often become brittle over time.

Thermoplastics behave differently. They soften when heated and solidify when cooled, allowing CFRTP materials to be:

  • Reformed and reshaped
  • Welded or diffusion-bonded
  • Repaired and repurposed
  • Recycled without degrading fiber composition

This difference unlocks new manufacturing methods, longer service life, and lower lifecycle waste compared to thermoset composites.

High Performance With Lower Lifecycle Impact

CFRTP delivers sustainability through engineering efficiency, not compromise:

  • Continuous fibers maximize material utilization
  • Thermoplastic matrices enable recyclability and reuse
  • Non-reactive processing reduces waste and emissions
  • Long service life reduces replacement demand

Compared to thermoset composites, CFRTP supports circular material use.

Enabling CFRTP for Real-World Applications

Producing continuous fiber thermoplastic components efficiently requires manufacturing approaches that differ from traditional composite processes.

ReForm’s Continuous Forming Technology emphasizes:

  • Non-reactive processing
  • Continuous operation
  • Minimal material waste
  • Direct conversion of feedstock into finished parts

These methods make CFRTP practical for high-performance, high-volume structural applications across construction, infrastructure, and industrial markets.

A New Foundation for Structural Design

To ReForm, CFRTP represents a shift in how structural products are designed, manufactured, and reused.

By enabling lightweight, durable structures that can be formed, joined, adapted, and recycled, CFRTP provides a flexible foundation for next-generation structural systems.

What Will We Build Together?