What Type Of Gas Is Used During The Carbonization Process?

Carbonisation is the screening of the required raw materials. The materials that can be carbonised in the continuous carbonisation furnace are: coconut shells, fruit shells, rice husks, wood shavings, twigs, graphite, silicon carbide, etc. To first ensure the quality of raw materials. So as to confirm that the carbonisation meets the processing requirements. After screening, the raw materials then go through the high temperature carbonisation stage. The carbon powder is then prepared into high purity carbon powder. The carbonisation process needs to be carried out under high temperature and pressure. The carbonisation also needs to be equipped with an inert protection system, which does not react easily with the carbonised material. This prevents oxidation reactions during the carbonisation process in the continuous carboniser. In the high temperature pyrolysis of oxygen-free and oxygen-poor conditions environment. Nitrogen simultaneously reduces the oxidation loss of the carbonised material. Thus to protect the weight of the carbonised material and the purity of the product after the carbonisation is completed.

What Type Of Gas Is Used During The Carbonization Process?

For carbonisation reaction, the temperature of the furnace is usually controlled at 400℃~800℃. This ensures that the raw material can be completely carbonised into high purity carbon blocks. In carbonisation. The stability of the atmosphere in the furnace is also crucial. An oxygen-free environment is to be ensured. Inert gas protection is to be used. The carbonisation process requires a short carbonisation time, high capacity and high pyrolysis efficiency. At the same time to ensure that the carbonisation yield is high, the finished product is uniformly carbonised, the hardness is good, the carbonisation rate purity and so on.

Continuous carbonisation furnace nitrogen protection system has been widely used. It can improve the purity and quality of the product. The carbonisation furnace can provide better control of the carbonisation environment. Thus ensuring the stability of the carbonisation process. It can reduce pollution. And improve the quality and utilisation value of the product.