Conductive graphite

Conductive graphite by our company using international advanced processing technology, the graphite after special process treatment, with high electrical conductivity, plasticity and acid and alkali resistance to organic solvent corrosion chemical stability. Widely used in energy storage batteries, lithium-ion batteries, nickel-metal hydride batteries, nickel-cadmium batteries, alkali-manganese batteries and electronic industry.
The electrical conductivity of graphite  results from its special crystal structure and electronic structure . Graphite is a layered structure of carbon atoms  arranged in a honeycombed hexagonal arrangement, the carbon atoms in each layer tightly bound by a covalent bond . Each carbon atom contributes three covalent bonds to other carbon atoms, while retaining one free electron . These free electrons are able to move freely within the graphite layer, forming an electric current, which gives the graphite conductivity. 12

In addition, the electrical conductivity of graphite is also related to its electron density  and its layered structure. The carbon atoms in graphite have a highly dispersed electron density, which allows electrons to be highly dispersed and move freely in graphite. The layered structure of graphite not only allows electrons to move freely between layers to form an electric current, but this structure also makes graphite highly conductive. Interactions between layers (such as the van der Waals forces ) allow electrons to move relatively freely between layers, although their conductivity is slightly worse than within them. 23

High purity graphite exhibits better electrical conductivity due to its higher order of carbon atoms and fewer impurities. These properties of graphite make it useful as a conductive material in many applications, such as electrodes , brushes , dry batteries , and so on.