Waste Activated Carbon Regeneration Line

Carbon regeneration Equipment introduction Activated carbon is used very frequently around us today. It can be said that the use of activated carbon also brings a lot of convenience to our lives. It damages the ecological environment, discharges randomly, affects human health, restricts the development of sustainable wrinkles, and does not treat or dispose of it in a standardized way. The resulting pollution of the atmosphere, water sources, soil, etc. will also become a

Thermal Reactivation Carbon regeneration Equipment introduction Carbon regeneration refers to the process of restoring the adsorption capacity of activated carbon, which is a widely used adsorbent in various industries. Over time, activated carbon becomes saturated with adsorbed substances and loses its effectiveness. To restore its adsorption capacity, the carbon must undergo a regeneration process. There are several methods of carbon regeneration, but the two most common

Electrochemical regeneration method is a new type of activated carbon regeneration technology. In this method, activated carbon is filled between two main electrodes, and a DC electric field is added to the electrolyte. The activated carbon is polarized under the action of electric field, with one end being anode and the other end cathode, forming a microelectrolytic cell. This method is easy to operate and has high efficiency and low energy consumption, and its treatment

Solvent Regeneration Method Carbon regeneration Equipment introduction The solvent regeneration method uses the phase equilibrium between activated carbon, solvent and adsorbed material to break the adsorption equilibrium by changing the temperature, pH value of solvent and other conditions to desorb the adsorbed material from the activated carbon. Solvent regeneration method is more suitable for those reversible adsorption, such as the adsorption of organic wastewater with

Catalytic Wet Oxidation Method Carbon regeneration Traditional wet oxidation method regeneration has relatively low efficiency but large energy consumption. The regeneration temperature is the main reason for the regeneration efficiency, but increasing the regeneration temperature will also increase the surface oxidation of activated carbon, thus reducing the regeneration efficiency. Therefore, it is considered to regenerate activated carbon with the help of high-efficiency

Biological Regeneration Method Carbon regeneration The biological regeneration method is to use domesticated bacteria to resolve the organic matter adsorbed on the activated carbon and further digest and decompose it into H2O and CO2. The biological regeneration method is similar to the biological method in wastewater treatment, and there are also aerobic and anaerobic methods. Since the pore size of activated carbon itself is very small, some only a few nanometers,

Wet Oxidation Regeneration Method Carbon regeneration Equipment introduction The wet oxidation regeneration method is that under the condition of high temperature and pressure, oxygen or air is used to oxidize and decompose the organic matter adsorbed on the activated carbon in the liquid phase into small molecules. The best regeneration conditions of activated carbon are as follows: regeneration temperature 230 °C, regeneration time 1h, oxygenation PO 20.6 MPa, carbon

What is Activated Carbon Regeneration Regeneration Methods of Activated Carbon What is Activated Carbon Regeneration Activated carbon regeneration (i.e. reactivation) refers to the removal of adsorbed material from activated carbon by physical or chemical methods without destroying the original structure of activated carbon, and restoring its adsorption performance for the purpose of reuse. Before choosing the activated carbon regeneration method, it is important to have a

Thermal Reactivation Carbon regeneration Thermal Regeneration Method The thermal regeneration method is one of the most mature activated carbon regeneration methods in the industry. During the regeneration process of activated carbon after treating organic wastewater, it is generally divided into three stages: drying, high temperature carbonization and activation according to the change of organic matter when heated to different temperatures. In the drying stage, the volatile