HZYDL series low-temperature plasma exhaust gas treatment equipment

HZYDL series low-temperature plasma exhaust gas treatment

Electrostatic smoke removal equipment

Simple process, easy maintenance, and wide range of applications

Characteristics of low-temperature plasma products

The plasma generates particles rich in extremely high chemical activity, such as electrons, ions, free radicals, and excited state molecules. The pollutants in the exhaust gas react with these high-energy active groups and are ultimately converted into substances such as CO2 and H2O, thereby achieving the goal of purifying the exhaust gas.

Wide range of applications

High purification efficiency, especially suitable for multi-component odorous gases that are difficult to treat by other methods, such as chemical, pharmaceutical and other industries. Small footprint; Electrons have high energy and can interact with almost all odorous gas molecules; Low operating costs; React quickly, stop very quickly, and start as needed.

High tech innovative products

Low temperature plasma technology is an electrochemical process under the comprehensive action of electronics, chemistry, catalysis, etc., and is a new field of technological innovation. It relies on the strong electric field energy generated by plasma in an instant, ionizing and breaking the chemical bond energy of harmful gases, thereby destroying the molecular structure of exhaust gas and achieving the purpose of purification.

Low temperature plasma purifier

No need to add any substances:

Low temperature plasma exhaust gas treatment is a new purification process that does not require the addition of any additives during operation, does not produce wastewater or waste residue, and does not cause secondary pollution.

installation effect

Strong equipment combination: Low temperature plasma equipment is lightweight, small in size, and can be placed vertically or horizontally according to site requirements. It can be designed in series or parallel according to exhaust gas concentration, flow rate, and composition to achieve complete exhaust gas purification.

Low energy consumption and energy saving

Low operating costs and power saving are one of the core technologies of low-temperature plasma patents, which can process 100M3/h of odor and consume only 0.25 kWh of electricity. This device has no mechanical action, high degree of automation, simple process, and can be used and started at any time. It is easy to operate and does not require dedicated management or daily maintenance. In the event of a malfunction, it will automatically shut down and sound an alarm, requiring only regular inspections.

Efficient oil fume removal and deodorization

It can efficiently remove major pollutants such as volatile organic compounds (VOCs), inorganic substances, sulfides, ammonia, thiols, as well as various odors, with a deodorization efficiency of over 99.9%, greatly exceeding the national odor pollutant emission standards.

When using low-temperature plasma to decompose pollutants such as oil mist and exhaust gas, high-energy ions in the plasma play a decisive role. High energy ions resembling meteor showers collide non elastically with molecules (atoms) in the medium, converting energy into the internal energy of ground state molecules (atoms), and undergoing a series of processes such as excitation, dissociation, and ionization to activate the polluted medium. Under the action of plasma, the pollutant medium generates active free radicals, and the activated pollutant molecules are removed through plasma directed chain chemical reactions. When the average energy of ions exceeds the chemical bond binding energy in the contaminated medium, the molecular chain breaks, the contaminated medium decomposes, and is collected under the action of the adsorption field of the plasma generator. In low-temperature plasma, various types of chemical reactions may occur, which mainly depend on the average energy of the plasma, ion density, gas temperature, molecular concentration in the pollutant medium, and coexisting medium components.

There is enough energy to generate free radicals, triggering a series of complex physical and chemical reactions. The gas organic chemical reactions caused by low-temperature plasma are ionization, dissociation, excitation, intermolecular binding, and addition reactions that occur in the gas phase. This energy is sufficient to break the chemical bonds in most gaseous organic compounds, leading to their degradation.