10% Carbon Fiber Reinforced PEEK 3D Printing Filament
PEEK-CF10% is a lightweight, ultra-stiff composite filament built for high-performance applications​ where strength-to-weight ratio is critical. The 10% short carbon fiber reinforcement delivers a flexural modulus of 10GPa — higher than unfilled PEEK 
 This filament is engineered for aerospace, motorsport, and advanced manufacturing sectors where replacing machined aluminum with a printed part is not just possible, but practical.
Key Advantages:
Flexural modulus 10GPa — exceptional stiffness-to-weight ratio
Density 1.34 g/cm³ — lighter than aluminum
Low warpage and minimal thermal expansion for large-format prints
Enhanced wear resistance and thermal conductivity
Typical Applications:​ Aerospace brackets, UAV components, racing prototypes, high-wear mechanical parts, lightweight robotic arms.
 

10% Glass Fiber Reinforced PEEK 3D Printing Filament
PEEK-GF10% is a cost-effective, high-rigidity engineering filament engineered for static structural applications​ that demand long-term dimensional stability under heat. The addition of 10% short glass fiber significantly boosts flexural modulus and creep resistance while maintaining excellent electrical insulation — making it the go-to choice for precision jigs, fixtures, and industrial replacement parts where metal-like stiffness matters but conductivity is not acceptable.
Key Advantages:
HDT up to 315°C (1.8MPa) — higher than unfilled PEEK
Excellent creep resistance under sustained high-temperature load
Electrically insulating — safe for semiconductor and electronic tooling
Dimensional accuracy within ±0.02mm tolerance
Cost-effective vs. carbon-fiber grades
Typical Applications:​ Industrial jigs & fixtures, electrical insulators, pump housings, high-temperature brackets, automotive under-hood components.

Firstly, 3D printing has strong customizability and is suitable for the production of products with personalized shapes. Especially for some complex-shaped products that are difficult or impossible to process through traditional processing techniques, they can all be manufactured through 3D printing.

Secondly, for the production demands of small-batch products, there is no need to manufacture molds separately for production, which will greatly save costs. Especially for high-end engineering materials like PEEK, not only is the mold opening cost relatively high, but also the utilization rate of the material itself in actual injection molding production is relatively low, and there is also a serious waste of the material itself. By using 3D printing to produce products, it is basically possible to fully utilize the materials.
 

PEI 1010 and PEI 9085 are both high-performance printing materials,  PEI 1010 having higher mechanical strength and higher durability
The glass transition temperature (Tg) of PEI (polyetherimide) up to 217 ° C, and the long-term use temperature can reach 170-180 ° C.
At high temperatures, PEI 1010 printed vehicles can maintain dimensional stability, replace metals, and achieve lightweight and insulation.
 

(Boron Nitride NanobBarb, abbreviated as BNNB) This material is hexagonal boron nitride crystals nucleated on the outer surface of boron nitride nanotubes. Irregular hexagonal boron nitride crystals enhance the cross-linking between nanotubes and PEI.
 

Firstly, 3D printing has strong customizability and is suitable for the production of products with personalized shapes. Especially for some complex-shaped products that are difficult or impossible to process through traditional processing techniques, they can all be manufactured through 3D printing.

Secondly, for the production demands of small-batch products, there is no need to manufacture molds separately for production, which will greatly save costs. Especially for high-end engineering materials like PEEK, not only is the mold opening cost relatively high, but also the utilization rate of the material itself in actual injection molding production is relatively low, and there is also a serious waste of the material itself. By using 3D printing to produce products, it is basically possible to fully utilize the materials.