A carbon fiber-reinforced nylon offering a superior combination of stiffness, strength, and light weight for functional prototypes, tooling, and production parts.
FDM Nylon-CF10 is an engineering-grade composite material that combines a durable nylon base polymer with 10% chopped carbon fiber. The integration of carbon fiber significantly enhances the material's mechanical properties, resulting in a filament that produces parts with specified strength, rigidity, and a high strength-to-weight ratio. This makes it a compelling alternative to machined aluminum for applications where weight reduction is critical without compromising on structural performance.
The carbon fiber reinforcement gives parts printed in Nylon-CF10 excellent stiffness and wear resistance, allowing them to withstand significant mechanical stress and repetitive use. This material exhibits high dimensional stability and predictable performance, ensuring that components like manufacturing tools, jigs, and fixtures maintain their accuracy and function over a long operational life. Its properties are well-suited for creating reliable, load-bearing parts that must perform in challenging industrial settings.
FDM Nylon-CF10 is optimized for use with Stratasys F190CR and F370CR 3D printers, which are equipped to handle abrasive composite materials. It requires a hardened extrusion head for reliable processing. For design flexibility, the material is compatible with both soluble (QSR™) and breakaway (SUP4000B™) support materials, enabling the creation of complex geometries and internal features with straightforward post-processing.
The balance of specified and printability makes Nylon-CF10 a versatile material across the product lifecycle. It is capable of producing high-fidelity functional prototypes that accurately simulate the mechanical properties of a final product. Beyond prototyping, its durability and strength make it a reliable choice for manufacturing low-volume production parts and custom factory tooling, helping to shorten lead times and review production costs compared to traditional fabrication methods.
