오존 수처리 및 고도 산화

미량 오염 물질 분해를 위한 강력한 산화제

Environmental & Water Treatment Commercial Production $2.5 billion

개요

Ozone (O3) treatment is used in drinking water disinfection and advanced oxidation processes (AOPs) to destroy micropollutants including pharmaceuticals, pesticides, and endocrine disruptors that conventional treatment cannot remove. Ozone is 52% stronger than chlorine as an oxidant and decomposes to oxygen without leaving residual chemicals. Over 3,000 water treatment plants worldwide use ozone. When combined with hydrogen peroxide or UV light, ozone generates hydroxyl radicals -- the strongest oxidant available in water treatment.

화학 공정

Ozone is generated on-site by passing dried air or oxygen through a corona discharge generator at 10-20 kV, producing 1-12% O3 by weight. The ozone-rich gas is dissolved in water through fine bubble diffusers or injectors at doses of 2-10 mg/L. Contact time of 10-20 minutes in a baffled contactor achieves disinfection and micropollutant oxidation. Off-gas containing residual ozone is destroyed by catalytic or thermal decomposition.

3O2 ->[corona discharge, 10-20 kV] 2O3 (ozone generation)
O3 + micropollutant -> oxidized products (direct ozone oxidation)
O3 + H2O2 -> OH. + O2 + HO2. (AOP -- hydroxyl radical generation, E0 = 2.80 V)

원자재

  • Oxygen (O2) — Air separation or on-site PSA/VSA generators (Ozone precursor)
  • Electricity — Grid power (Energy for corona discharge (8-17 kWh/kg O3))

최종 제품

  • Disinfected and oxidized water — Drinking water, wastewater reuse, swimming pools (No chemical residual -- O3 decomposes to O2)
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Environmental Impact

Ozone treatment eliminates the need for chlorine in primary disinfection, avoiding disinfection byproducts. However, ozone can form bromate (BrO3-, a probable carcinogen) from bromide-containing water. Energy consumption is the main environmental cost. Transformation products from micropollutant oxidation require monitoring.

안전 고려사항

최근 혁신

Electrolytic ozone generation produces high-concentration ozone from water without gas handling.
Ceramic membrane ozonation combines ozone dissolution with membrane filtration.
Catalytic ozonation using heterogeneous catalysts (MnO2, TiO2) enhances hydroxyl radical production.

더 보기: Environmental & Water Treatment

역삼투 막 해수 담수화

Global Industrial Scale

산업 폐수에서 중금속 침전

Global Industrial Scale

도시 상수도 염소 처리 및 소독

Global Industrial Scale

석유 오염 토양의 생물 정화

Commercial Production

이온 교환 연수화 및 탈이온화

Global Industrial Scale

배연 탈황(습식 석회석 스크러빙)

Global Industrial Scale

수질 및 공기 정화를 위한 활성탄 흡착

Global Industrial Scale

Frequently Asked Questions

What industry uses 오존 수처리 및 고도 산화?
오존 수처리 및 고도 산화 is used in the environmental & water treatment sector at commercial production scale.
What process is involved in 오존 수처리 및 고도 산화?
Ozone is generated on-site by passing dried air or oxygen through a corona discharge generator at 10-20 kV, producing 1-12% O3 by weight. The ozone-rich gas is dissolved in water through fine bubble diffusers or injectors at doses of 2-10 mg/L. Contact time of 10-20 minutes in a baffled contactor ac
What is the economic significance of 오존 수처리 및 고도 산화?
오존 수처리 및 고도 산화 has a market value of $2.5 billion.
What is the environmental impact of 오존 수처리 및 고도 산화?
Ozone treatment eliminates the need for chlorine in primary disinfection, avoiding disinfection byproducts. However, ozone can form bromate (BrO3-, a probable carcinogen) from bromide-containing water. Energy consumption is the main environmental cost. Transformation products from micropollutant oxi
What raw materials are used in 오존 수처리 및 고도 산화?
The main raw materials include: Oxygen (O2), Electricity.