Modern recycling facilities increasingly require advanced separation technologies to recover valuable metals from complex waste streams. An Eddy Current Separator provides an efficient solution for removing conductive non-ferrous metals from mixed materials.

How Eddy Current Separation Works

The equipment uses a high-speed magnetic rotor positioned inside the conveyor system. As mixed materials pass through the separation zone, conductive metals interact with the changing magnetic field.

This interaction produces eddy currents within the metal particles. The electromagnetic repulsive force changes their trajectory, allowing non-ferrous metals to be separated from plastics, rubber, glass and other non-conductive materials.

Materials Suitable for Separation

Eddy Current Separators are commonly used for:

• Aluminum
• Copper
• Brass
• Zinc
• Mixed non-ferrous scrap
• E-waste
• Plastic waste containing metal
• Automotive shredder residue
• Municipal and industrial waste

Applications in Recycling Plants

An ECS can be installed as part of a larger recycling system. A typical processing line may include shredding, crushing, magnetic separation, screening and finally non-ferrous metal separation.

For example, ferrous metals can first be removed using a magnetic separator. The remaining material can then pass through the Eddy Current Separator to recover aluminum and other conductive non-ferrous metals.

Key Factors When Selecting an ECS

Machine selection should be based on the actual application rather than capacity alone.

Important parameters include material composition, particle size, feed rate, non-ferrous metal content, conveyor width, required separation efficiency and final product specifications.

A correctly configured system can improve recovery performance and reduce valuable metal losses.

Customized Recycling Solutions

Different waste streams require different separation configurations. Our team can evaluate your material and recommend a suitable Eddy Current Separator according to your production capacity and processing objectives.