Technical Features

• The denitration efficiency high, can reach more than 90%; 

• Export escape ammonia concentration is low, fully meet the national standards; 

• SO2 to SO3 conversion rate is low, generally less than 1%; 

• Honeycomb or plate type catalyst unit design, ensure that the catalyst effective surface area; 

• Special gas device ensure the Flue Gas and reducing agent are evenly distributed, achieve good denitration efficiency; 

• The reactor can be arrangement between the economizer and air preheater, or after the Desulfurization tower; 

• Provide ammonia or liquid NH3 two options, can meet different needs; 

• Small system resistance, less than 1000 pa; 

• To adapt to the temperature range: 160 ~ 510 ℃; Mature and stable. 

DeNOx is an abbreviation for De-Nitrogen Oxides. It refers to a set of technologies and processes designed to remove nitrogen oxides (NOx) from exhaust gases produced by industrial facilities, power plants, and vehicles .

Primary DeNOx Technologies

There are two main approaches to controlling NOx emissions: pre-combustion control and post-combustion treatment. The most widely used and efficient methods are post-combustion.

SCR：Selective Catalytic Reduction

Injects a reductant (e.g., ammonia or urea) into the exhaust stream in the presence of a catalyst, converting NOx into harmless N₂ and H₂O .

SNCR：Selective Non-Catalytic Reduction

Injects a reductant (e.g., ammonia or urea) into a high-temperature zone of the furnace without a catalyst, reducing NOx to N₂ .

Environmental Importance

Controlling NOx emissions through DeNOx technologies is vital for protecting our environment and health. The benefits include:

- Improved Air Quality: Reducing NOx directly lessens the formation of ground-level ozone and smog .

- Mitigation of Acid Rain: NOx gases are a primary cause of acid rain, which harms ecosystems, forests, and aquatic life.

- Protection of Human Health: Exposure to NOx is linked to respiratory diseases like asthma and other lung conditions .