| MOQ: | 1 Sets |
| Price: | 10000 USD |
| Delivery Period: | 2 months |
| Payment Method: | L/C,T/T |
| Supply Capacity: | 200 sets / days |
What Is an Oxidation Reactor? Principles, Types & Applications
Answering the core question: What is an oxidation reactor, and how does it destroy contaminants or build oxygenated products? An oxidation reactor promotes the transfer of oxygen atoms to a target molecule, either to synthesize chemicals (for example ethylene to acetaldehyde) or to mineralize pollutants. Advanced oxidation process (AOP) reactors generate hydroxyl radicals (bullet OH, E degree = 2.8 V) using ozone (10-100 mg/L) plus UV or H2O2 (1-10 g/L), achieving 60-95 percent COD removal in 15-60 min. Catalytic units oxidize VOCs over Pt or Pd or Mn-Ce at 200-450 degree C with above 95 percent destruction, while air-oxidation vessels run 80-250 degree C at 0.5-5 MPa across petrochemical and wastewater service.
Core Operating Principles of Oxidation Reactors
Major Types of Oxidation Reactors
Oxidation Reactor Types Comparison Matrix
| Oxidation Type | Oxidant / Catalyst | Conditions | Removal / Yield |
|---|---|---|---|
| AOP (UV/O3/H2O2) | bullet OH radicals | 20-60 degree C, ambient | COD 60-95 percent |
| Catalytic VOC | Pt/Pd, Mn-Ce | 200-450 degree C | VOC >95 percent |
| Liquid Air-Ox | O2 / Co-Mn cat. | 80-250 degree C, 0.5-5 MPa | 85-98 percent conversion |
| Wet Air (WAO) | O2, no catalyst | 150-320 degree C, 2-20 MPa | COD 75-95 percent |
Frequently Asked Questions (FAQ)
Q: What is an advanced oxidation process reactor?
A: It is a reactor that creates hydroxyl radicals via ozone, UV, H2O2, or Fenton to oxidize hard-to-biodegrade organics, typically removing 60-95 percent COD in under an hour.
Q: Why use a catalyst in oxidation?
A: Catalysts such as Pt or Pd or Mn-Ce lower the reaction temperature from above 800 degree C to 200-450 degree C, cutting fuel cost while sustaining above 95 percent destruction.
Q: How is oxygen supplied to the reaction?
A: Fine-bubble spargers and high-shear impellers raise mass-transfer (kLa 50-200 per hour) so dissolved O2/O3 meets the stoichiometric demand.
Q: What industries rely on oxidation reactors?
A: Wastewater treatment, petrochemicals (phenol, acetaldehyde), VOC abatement, and pulp-bleaching all depend on oxidation reactors.