Lucheng Environmental Protection Technology
Add: Yanshan Village, Chongxian Town,
Yuhang District, Hangzhou, China
(Longdong station of bus 338)
P.C.: 311106
Tel: +86-571-89180368, +86-13805776025
Fax: +86-571-89180370
Email: 523884910@qq.com
URL: www.luchenghb.com
The company's plant liquid spray deodorization process system refers to the plant liquid in the need to purify the stench through the spray device sprayed into the mist, in the plant liquid containing effective deodorant effective substances, to be With the full contact with the smell, you can effectively adsorbed in the odor, such as hydrogen sulfide, ammonia, alcohols, organic amines and other harmful odor, so that the structure of odor molecules change, make it unstable , The active molecules in the working fluid can react chemically with the odor molecules, and the odor molecules adsorbed on the surface of the droplets can also react with the oxygen in the air. Finally, under the action of adsorption and decomposition of the plant liquid, the odor molecules are adsorbed and decomposed, thus realizing the purpose of deodorization and purification.
Features:
Can be intermittent operation, at any time start and stop, low investment costs, installation and maintenance is simple, small footprint.
Can be based on different work occasions, different smell source, using a targeted design process, remove the smell.
The company uses the natural plant liquid is non-toxic harmless liquid, after dozens of countries and regions around the world's strict testing recognized, natural plant liquid safe, non-toxic, no stimulation.
Scope of application:
Applicable to hotels, hotels, conference rooms and office space for air purification, as well as various types of projects, hospitals, chemical plants, garbage dumps, sewage treatment plants and other places deodorant.
Reaction of Natural Plant Solution with Some Odor Molecules | |||
Odor molecules | Reaction with plant solution | Odor molecules | Reaction with plant solution |
Propanethiol | Decomposition reaction | Sulfur dioxide | Redox reactions |
Pentanethiol | Decomposition reaction | Tributyl mercaptan | Decomposition reaction |
ammonia | Acid and alkali, polymerization reaction | Triethylamine | Acid and alkali, polymerization reaction |
Phenyl mercaptan | Decomposition reaction | Toluene Thiophenol | Decomposition reaction |
Butylamine | Acid and alkali, polymerization reaction | Thiophenol | Decomposition reaction |
Chlorine gas | Redox reactions | Methylamine | Acid and alkali, polymerization reaction |
Butene thiol | Decomposition reaction | Isobutyl mercaptan | Decomposition reaction |
Butanediamine | Acid and alkali, polymerization reaction | Putrescine (1,4-butylamine) | Acid and alkali, polymerization reaction |
Diisopropylamine | Acid and alkali, polymerization reaction | Pyridine | Acid and alkali, polymerization reaction |
Dimethylamine | Acid and alkali, polymerization reaction | Diphenyl sulfur | Decomposition reaction |
Ethanethiol | Decomposition reaction | Fecal (3-methylindole) | Acid and alkali, polymerization reaction |
Hydrogen sulfide | Decomposition, acid and alkali reaction |
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