Customized pultruded carbon fiber rod for structural applications Hamakyu

LINING SOLUTIONS ENGINEERING PLASTIC PRODUCTS POWER TRANSMISSION & CONTROL CONVEYOR & AUTOMATION SYSTEMS PRODUCTS & MATERIAL SOLUTIONS

Customized 5mm 6mm 8mm 9mm carbon fibre rod

The core advantage of carbon fiber pultruded rods lies in their excellent specific strength and stiffness. Their strength can reach 5-8 times that of high-quality steel, while their density is only about a quarter of that of steel (about 1.5-1.6 g/cm³). This lightweight and high-strength characteristic makes them a good choice to replace metal structural components, especially in applications that require significant weight reduction, improved load efficiency, or reduced inertial loads.

Product Feature

Lightweight and high strength: carbon fiber rods have low density but very high strength, several times that of traditional metal materials, making them suitable for applications that require lightweight and high strength.
Excellent corrosion resistance: carbon fiber materials have strong resistance to chemicals and the environment, and can maintain stable performance under harsh conditions.
Good temperature resistance: carbon fiber rods can maintain their performance under high temperature conditions, making them suitable for use in high-temperature environments.
Excellent stability and rigidity: carbon fiber rods can maintain dimensional stability under different temperature and humidity conditions, making them suitable for exact manufacturing and engineering applications.
Conductivity: some types of carbon fiber rods also have conductivity and can be used in electronic devices and other applications that require conductivity.
Easy to process: carbon fiber rods can be cut, shaped, and processed, flexibly adapting to different design requirements.

Application Field

Aerospace and transportation lightweighting: drone skeleton and satellite bracket achieve high stiffness/weight ratio; the car collision beam and high-speed rail interior frame have reduced weight by 30-50%, reducing energy consumption and improving dynamic response.

High end industrial equipment: the linkage of the robotic arm and the joint components of the robot reduce inertial loads and improve acceleration accuracy; lightweight roller shafts and exact instrument brackets utilize thermal stability to ensure long-term calibration.

Sports equipment and electronic technology: the linkage of the robotic arm and the joint components of the robot reduce inertial loads and improve acceleration accuracy; lightweight roller shafts and exact instrument brackets utilize thermal stability to ensure long-term calibration.