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Zhejiang New Energy Company Visits for Inspection

A new energy company in Zhejiang came to our company to inspect the hypergravity reaction device and observe the hypergravity reaction test equipment on site.

The hypergravity reaction device is mainly used for the absorption, desorption, extraction, mixing, and multiphase reaction enhancement of gas-liquid, gas-liquid-solid, gas-liquid-liquid, liquid-liquid and other systems, and is a good process enhancement reaction equipment.

The principle of a hypergravity reaction device is mainly to utilize the unique flow behavior of multiphase fluids under the conditions of a fixed rotor hypergravity reaction, enhance the relative velocity and mutual contact between the gas phase, liquid phase, and solid phase, thereby achieving efficient mass and heat transfer processes and chemical reaction processes. The main way to obtain the supergravity reaction is to generate centrifugal force by rotating the core component rotor of the equipment, and to perform shear homogenization reactions on the multiphase flow systems involved, mainly including gas-solid systems and gas-liquid systems. The gas phase is introduced into the outer chamber of the rotor through the gas inlet pipe in a tangential direction, and enters the reaction chamber from the outer edge of the rotor under the action of gas pressure. The liquid is introduced into the inner cavity of the rotor through the liquid inlet pipe and sprayed onto the inner edge of the rotor through the nozzle. The liquid entering the rotor increases its linear velocity under the action of the rotor reactor, and the centrifugal force generated pushes the reactants towards the outer edge of the rotor. During this process, the liquid is cut and dispersed by the reactor, crushed and ground to form a large and constantly updated surface area, which intensifies the continuous updating of the liquid surface in the curved flow channel. Liquids in highly dispersed, turbulent, strongly mixed, and rapidly updated interfaces come into contact with gases at extremely high relative velocities, greatly enhancing the mass transfer process. Finally, the liquid is thrown to the edge of the casing by the centrifugal force of the rotor, mixed and homogenized, and then flows out through the liquid outlet pipe. The gas is led out from the gas outlet pipe at the center of the rotor, completing mass transfer and reaction processes.