Carbon felt, also known as carbon fiber felt, turns into graphite felt when heated to nearly 3,000 degrees under an oxygen-free environment. After being made into graphite fiber felt, its usable temperature can reach over 2,800 degrees. That is to say, graphite felt is more resistant to high tempera
Amorphous graphite—also known as earthy graphite, microcrystalline graphite, or black lead powder—does not actually lack graphite crystals as its name might suggest; rather, its crystals are extremely small, forming a microcrystalline structure. X-ray analysis reveals that amorphous earthy graphite
Graphite material has the advantages of high temperature resistance, corrosion resistance, and good thermal conductivity. At the same time, graphite is easy to process, mainly due to:
Molecular structure: The molecular structure of graphite is a planar layer composed of continuous carbon atoms. The interaction between these planar layers is weak, making graphite easy to deform during processing.
Chemical composition: The chemical composition of graphite is mainly pure carbon, without interference from other elements such as impurities and oxides, making its properties relatively stable and not causing excessive changes during processing.
Crystal structure: Graphite is a layered structure. The structure of carbon atoms in the same layer is stable, so it is not prone to cracks and breaks during processing.
Toughness of graphite: Because graphite has high toughness, it can prevent excessive deformation and fracture of graphite materials during processing, making processing easier.
Graphite material can be processed into workpieces of various shapes and sizes according to the needs of the usage scenario, and can be used in various industrial fields, such as: molds for die-cast diamond tools, vacuum furnace parts, aluminum degassing rotors, 3D printed customized heating elements, etc.