Ozone treatment is not merely a matter of exhaust gas processing; it is a systems engineering task involving airflow distribution, equipment integration, safety controls, and compliance with environmental standards. Only by designing from a holistic process perspective can one ensure the continuous, efficient, and stable decomposition of ozone, thereby achieving the dual goals of safe production and environmental protection.

Why Ozone Treatment Requires Systematic Design

While many industrial users focus on the ozone decomposition unit itself, the actual treatment performance in a real-world project often depends on the entire system.

A complete ozone treatment system should include:

• Gas collection
• Conveyance system
• Decomposition unit
• Electrical controls
• Safety monitoring
• Emission management

Flaws in the design of any single component can compromise the final treatment results.

The Importance of Matching Airflow and Pressure

The ozone treatment system must be matched to the exhaust parameters of the production equipment.

Therefore, flow rate calculations and pressure balance analyses based on actual operating conditions are essential during the design phase.

Ensuring Ozone Decomposition Efficiency

The effectiveness of ozone treatment ultimately depends on decomposition efficiency.

Key factors affecting efficiency include:

• Gas residence time
  Insufficient contact time between ozone and the decomposition medium leads to excessive residual ozone levels.
• Temperature conditions
  Appropriate temperatures help accelerate the rate of ozone decomposition.
• Airflow uniformity
  Uniform airflow distribution prevents localized short-circuiting and improves overall treatment efficiency.

The Necessity of Safety Control Systems

Ozone is a hazardous oxidizing gas.

System design must therefore incorporate:

• Fault alarms
• Interlock protection
• Emergency shutdown
• Status monitoring

The control system must respond promptly to fan failures, abnormal airflow, or equipment shutdowns to prevent ozone leakage.

Key Indicators for Commissioning and Acceptance

Once installation is complete, performance must be verified through operational testing.

Key inspection items include:

• Interlock functionality
  Confirming that the ozone treatment system operates in synchronization with the main equipment.
• Alarm functionality
  Verifying proper alarm responses under abnormal operating conditions.
• Emission concentration
  Confirming that the ozone concentration after treatment meets local environmental regulations.
• Continuous operational stability
  Verifying the system's ability to maintain stable performance during long-term operation.

Long-term Operational Management of Ozone Treatment Systems

Maintenance is just as important as the initial deployment of ozone treatment equipment. It is recommended to regularly perform:

• Airflow measurement
• Pressure inspection
• Electrical system inspection
• Safety interlock testing
• Emission concentration monitoring

Preventive maintenance effectively ensures the long-term, stable operation of the system.