This article explores what forged carbon is, where it excels, where it doesn’t, and how it fits into the future of performance-oriented composite engineering.

Forged Composite on prototype engine bay cover. Bw570, CC BY-SA 4.0

What is forged carbon—really?

Forged carbon, also known as forged composite, is made by compression moulding short, randomly oriented carbon fibers with resin. Unlike traditional prepregs or woven fabrics, forged carbon uses chopped fiber bundles that are distributed and compacted into complex shapes under high pressure and temperature.

This method enables geometries that would be unfeasible with continuous fibers. It also results in a unique, repeatable visual pattern—an attribute that has captured the attention of the luxury automotive and design sectors.

Forged carbon vs. continuous traditional carbon fiber: key differences

Understanding what forged carbon can and can’t do begins with comparing it to traditional continuous fiber composites.

• Continuous fiber composites offer maximum directional stiffness and strength. Fibers can be precisely oriented to match expected loads, achieving very high mechanical performance. However, these materials are less suitable for highly complex geometries.
• Forged carbon, by contrast, sacrifices directional performance in exchange for design flexibility and good isotropic behavior. Its random fiber orientation limits peak strength, but makes it more adaptable to multi-axial loads and unconventional shapes.

Performance matters: what the data shows

In a tests published by Easy Composites using their forged carbon fiber kit, the material demonstrated a flexural modulus of 35.5 GPa, a tensile strength of 192 MPa, and a density of 1.5 g/cm³. These properties were measured using real-world specimens manufactured without autoclave, simulating accessible fabrication conditions.

Compared to 6082-T6 aluminum, forged carbon showed a significantly higher strength-to-weight ratio in bending tests. While aluminum displayed higher modulus, forged carbon resisted nearly double the load before failure in three-point flexural testing (220 kg vs. 120 kg). Its lower density—about 44% less than aluminum—means forged carbon can offer superior mechanical efficiency in specific applications.

It’s worth noting that the fiber orientation in forged carbon is random, resulting in near-isotropic mechanical behaviour, which can be advantageous in components subjected to multi-directional loads. However, consistency and directional performance remain below what can be achieved with continuous fiber laminates cured under controlled conditions.

A clutch cover and a brake lever made of forged carbon by Easy Composites

Where forged carbon excels—and where it doesn’t

Forged carbon is particularly well-suited for:

• Complex-shaped parts with variable thickness, recesses or non-developable surfaces.
• Luxury interiors or visible parts, where the aesthetic of forged carbon is desired.

However, it is not recommended for:

• Load-critical structural parts, like monocoques, suspension links or roll structures.
• Applications under defined unidirectional stress, where continuous fiber composites are clearly superior.
• Contexts with minimal mechanical tolerance, as its fiber randomness introduces moderate variability.

A material with a future

Forged carbon is not a replacement for continuous fiber composites—it’s a complement. Its aesthetic-mechanical balance, ability to integrate recycled carbon fibers, and growing market presence make it a valuable asset in the portfolio of any advanced composite strategy.

From hypercars to high-end consumer electronics, forged carbon is opening a space where performance engineering meets expressive design. And as always, when used with criteria and control, it delivers much more than appearance—it delivers results.

The post The Truth About Forged Carbon Fiber: What It Can (and Can’t) Do appeared first on Managing Composites.

Composite Materials are less of a choice and more an imperative. Metals and plastics might be the right solution for many engineering challenges. However, composites increasingly allow for a new range of possibilities and solutions! In this course, you’ll acquire a general overview about composites by understanding these materials in depth, including, different types of fibres, matrices, cores and fabrics. Learning the different manufacturing technologies and dive into the basics of composite design.

• WHAT YOU’LL LEARN

Overall, the course consists of 3 main blocks. First, all the materials are explained in detail. Different fibres, such as carbon, glass, aramid, polymeric, natural, are analysed. Then matrices are discussed with a focus on thermosets. Besides, different core and fabric types are discussed.

Second, once the materials have been understood, the course goes into the manufacturing technologies. Not only is each process illustrated but also why and when each technology is commonly used! In total 9 technologies are explained, including: Wet Layup, Prepreg, PCM, SMC/BMC, Resin Infusion, RTM, Filament Winding, Braiding and Pultrusion.

Third, the course has a design part. If we have fully understood how materials work and how we can manufacture, we can start thinking how to design with composites. The entire process is outlined, including, Concept Design, Manufacturing Process Selection, Part Design, Joints, Layup, Tooling, Curing, Post-Process and Design for Manufacturing

• WHO YOU’LL LEARN FROM:

Eneko Angulo, now Chief Operations Officer of Managing Composites, is the main trainer of the course. Previously he has been Station leader at Koenigsegg, manufacturing carbon fibre monocoques and body panels. He produced more than 450 reports to increase part quality for the Koenigsegg 1:1, Agera RS and Regera. Later on, he became SQA Manager at McLaren, being responsible for more than 300 components in different technologies and more than 8 models.

• SOME PRACTICAL INFORMATION:

The course is to great extent, online and self-paced, meaning that it consists of short videos explaining the theory and practice behind composites and tasks, quizzes, etc. to see whether the learner is making progress. However, sporadically there are online live sessions to consolidate the learnings. You’ll be able to send questions to the trainers through the platform.

Once you’ve completed the course, you’ll get a certificate of successful completion and have access to an ever-growing alumni network, as well as special discounts.

The price fee is set at €269 in a one-off payment. However, there is the option to pay for the course in 3 instalments of €99. Besides, if you are a student contact us for some special discounts.

The post Composite Materials Course appeared first on Managing Composites.

If you are thinking about high-end cars built during the end of the last century and their carbon fiber parts, you are completely wrong!

This picture shows Henry Ford (yes, Henry Ford) and his composite car. In the late 1930s, Ford used Soya oil to produce a phenolic resin and thence to produce a wood-filled composite material for car bodies.

While the media of the day predicted $400 automobiles before the end of the decade, plastic-bodied cars never became a reality because the cost and curing time of plastic proved impractical.

Either way, it was the beginning of a huge journey for the composites!

The post Do you know which car was the first to use composites? appeared first on Managing Composites.