Oxidation Power Of Ozone

Ozone gas (O₃) is a colourless gas with molecules consisting of 3 oxygen atoms and is located in the upper layers of the atmosphere. Ozone is the allotrope of oxygen, it is also defined as trioxygen. Under normal conditions, the amount of O₃ in the lower parts of the atmosphere is about 0.4 ppm. However, the amount of ozone increases where there is smoky fog.

Ozone exceeding 0,12 level is considered harmful to health. Ozone is the main reason for the blue colour of the sky. Ozone gas, which turns into a dark blue colour in liquid form, protects the Earth against harmful ultraviolet radiation from the Sun. Ozone, which is formed by the breaking down of oxygen by the UV rays in the upper layers of the atmosphere and the lightning strikes in the lower layers, plays a very important role in cleaning the air. Oxidation power of ozone is widely used in food, textile, logistics and healthcare sectors in developed countries and as an alternative disinfectant.

Ozone, whose raw material is oxygen, is the only gas that cannot be stored. The reason why ozone cannot be stored is that ozone gas turns into its raw material oxygen over time in direct proportion to the temperature of the environment.

Comparison of the oxidation power of ozone compared to other abrasives:

Hydrogen Peroxide1,77
Hypochlorous acid0,94
Chlorine Gas1,36
Hypobromous Acid1,33
Oxidation power of ozone

What are the known reactions of ozone gas?

Ozone gas reacts with many organic and inorganic substances. The delivery of ozone gas in liquid or gaseous form, reacting and other chemicals that react may affect the following results.

The reactions we give below contain only simple chemical formulas. The oxidation power of ozone is very high. In real processes, many factors can affect the reactions and their results, but the following information is important for understanding the basis of ozone gas-related reactions.

Are there any molecules or compounds that do not react with ozone gas?

Yes. In the list below you can find molecules and compounds that do not react with ozone gas.

  • Calcium oxide CaO
  • Phosphoric acid H3PO4
  • Potassium persulfate K2S2O5
  • Silica SiO2
  • Sodium bromate NaBrO3
  • Sodium persulfate Na2S2O5
  • Strontium peroxide SrO2
  • Tetrasodium pyrophosphate Na4P2O7
  • Titanium dioxide TiO2
  • Carbon tetrachloride CLC4

This information has been obtained and compiled from the database of the IOA (International Ozone Association).

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