In Europe, over 90% electrode material is graphite. Once a traditional electrode material with dominant status, the advantage of copper have almost disappeared when comparing with graphite. As spark oil also contains C atom, during dominant position, high temperature results to resolve C atom of spark oil, then becomes protective film on the surface of

A graphite electrode coated with an antioxidant protective layer (a graphite electrode antioxidant). Forming both conductive and high-temperature oxidation protection layer, reduce the electrode consumption (19%~50%), prolong the service life of the electrode (22%~60%), reduce the electric energy consumption of the electrode. The use of this technology can bring about such economic and social effects:

Electric arc furnace steelmaking and iron alloy electric smelting are normally use graphite electrode. During production, with arc to slag flushing occurs mechanical loss and high temperature in the furnace gas oxygen, oxidizing gases such as carbon dioxide, such as erosion, resulting in surface gradually oxidized electrode wear. And the consumption of the electrodes, oxidation

Graphite Parts processing factory What are the advantages of graphene material? Graphene, the world’s thinnest and hardest material, came out in 2004 and was awarded the Nobel Prize in Physics in 2010 by Professor Andre-Heim of the University of Manchester, UK. This graphene polymeric material battery has a long lifespan, which is four times times the

Graphite electrodes are widely used in high-temperature processing due to their unique properties and capabilities. Here are several reasons why graphite electrodes are considered in high-temperature processing: High-temperature resistance: Graphite electrodes can withstand extremely high temperatures without significant deformation or degradation. They have a high melting point of around 3,500°C and can maintain their structural

The use of graphite electrodes is a crucial aspect of several industrial processes, including steel production, electric arc furnaces, and the manufacturing of aluminum. Over the years, the evolution of graphite electrodes has seen significant advancements in terms of design, durability, and performance, enabling enhanced productivity and cost-effectiveness in various applications. Traditionally, graphite electrodes were