China Manufacturer Price Artificial Eaf Graphite Electrode UHP500mm Sales

Product Details

China Manufacturer Price Artificial Eaf Graphite Electrode UHP500mm Sales

Anti-oxidation high-power graphite electrode is a new type of graphite electrode, which combines the advantages of high-power graphite electrode and anti-oxidation graphite electrode. This kind of electrode not only has the characteristics of high electrical conductivity, high thermal conductivity and good oxidation resistance, but also can maintain stable performance in high temperature and high power usage environments.

Oxidation-resistant high-power graphite electrodes are made of high-purity graphite material through multiple processes and have excellent conductivity, high-temperature stability and oxidation resistance. In high-temperature equipment such as electric arc furnaces, it can quickly conduct current and heat to prevent problems such as electrode cracks and fractures caused by excessive temperature, thereby increasing electrolysis yield. In addition, the anti-oxidation high-power graphite electrode also has good bending resistance and shock resistance, and has a long service life, which can reduce the number of electrode replacements, improve production efficiency, and reduce production costs.

During the manufacturing process, the surface of the anti-oxidation high-power graphite electrode is also coated with an anti-oxidation protective layer to further improve its anti-oxidation performance. This protective layer can effectively prevent oxygen from oxidizing and damaging the graphite electrode and extend the service life of the electrode.

In general, the anti-oxidation high-power graphite electrode is a graphite electrode with excellent performance and long service life. It is widely used in electrolytic aluminum, smelting, chemical industry, electronics, photovoltaics and other fields. With the improvement of environmental protection awareness, the application prospects of anti-oxidation high-power graphite electrodes will be broader.