A magnetic separator is used to separate ferrous minerals from non-ferrous minerals based on their magnetic intensity. It enhances the ore grade by removing impurities.
The process involves crushing the ore, classifying it based on specific gravity, and then using magnetic and mechanical forces to separate magnetic substances from the mixture.
This magnetic separator is suitable for iron ores, non-ferrous and rare minerals, as well as for removing impurities from non-metallic minerals.
The main applications include the separation of ferrous minerals, non-ferrous and rare minerals, recovering gravity separation mediums, and removing iron impurities from non-metallic minerals.
Yes, the magnetic separator can be used to recover steel slag from metallurgy smelting processes through grinding and dry magnetic separation.
The capacity of the magnetic separators ranges from 2 to 100 tons per hour, depending on the model.
The flotation machine is used after magnetic separation to further separate desired ores from the mixture by adding specific additives tailored to the ore characteristics.
Magnetic separation improves ore purity, reduces impurity content, and enhances the efficiency of subsequent processing stages like flotation.
Regular cleaning of the magnetic components, checking for wear and tear, and ensuring proper alignment are essential for optimal performance.
Yes, the magnetic separator can be used for both dry and wet separation processes, depending on the specific requirements of the material being processed.
The magnetic separator is powered by an electric motor, with power ratings varying by model, typically ranging from 1.5 to 100 kW.
The maximum feeding size for the magnetic separator varies by model, with most capable of processing materials smaller than 35 mm.
Dry magnetic separation is effective for ores like Kyanite, quartz, feldspar, and red tourmaline, among others.
By effectively separating ferrous minerals and reducing impurities, the magnetic separator enhances the overall efficiency and output quality of iron ore processing.
Key technical parameters include the diameter and length of the shell, rotary speed, feeding size, capacity, and power requirements.
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