Duct & Commercial Odor Control

Piped Ozone Systems for Kitchen Exhaust Ducts and Process Odor Control

Place the ozone generator in an accessible equipment area and deliver ozone gas through tubing to engineered injection points in the duct. This architecture can improve service access and reduce maintenance difficulty in greasy commercial exhaust environments.

System Concept

Remote generation, controlled gas delivery

Generate

An enclosed ozone tube/module produces ozone from prepared dry air or oxygen with a defined gas outlet.

Transfer

Ozone-resistant tubing carries gas from the generator to one or more designed injection points.

Interlock

The generator operates only with the required exhaust airflow and safety conditions.

Why It Can Be Easier to Maintain

Keep the generating element away from the contaminated duct

Kitchen exhaust contains grease, heat and particulates. Placing an exposed ozone plate or open fan-blown tube directly in that environment can increase cleaning difficulty and make service access inconvenient. A piped-output system allows the ozone source and power electronics to be located in a cleaner, accessible area while only the delivery line and injection hardware enter the duct.

This generally requires more initial hardware—generator enclosure, feed-gas preparation or oxygen supply, tubing, injection points, controls and interlocks. For suitable installations, the higher initial cost can be offset by easier maintenance, more controllable gas delivery and reduced exposure of the generator to grease.

Feed Gas & NOx

Oxygen feed supports cleaner, more consistent ozone gas

Open ozone plates and fan-blown tubes normally use surrounding air. Nitrogen and moisture in that air can affect performance and contribute to nitrogen-oxide by-products in electrical-discharge ozone generation. An enclosed piped-output generator can use prepared dry air or oxygen. Oxygen feed minimizes nitrogen entering the discharge cell, which can help reduce NOx formation and normally supports higher ozone concentration.

Safety: A cleaner feed-gas path does not remove ozone exposure risk. Exhaust airflow interlocks, leak control, monitoring and compliance with local ventilation and fire requirements remain essential.
Engineering Inputs

Data required before selecting output and injection points

InputWhy it matters
Duct dimensions and layoutDefines volume, residence distance and injection locations.
Exhaust airflow and scheduleDetermines dilution, operating duty and interlock logic.
Odor and process sourceGrease loading, cooking process or industrial contaminant affects design and maintenance.
Ozone concentration and gas flowMust be selected separately from nominal g/h output.
Feed gasPrepared dry air or oxygen affects concentration, consistency and NOx risk.
Tubing distance and back pressureAffects gas delivery and final outlet performance.
Occupied areas and discharge pointDetermines monitoring, controls and exposure safeguards.
Typical B2B Use

Commercial and OEM projects

Commercial kitchens

Odor-control systems integrated with exhaust airflow and service procedures.

Food-processing exhaust

Controlled duct injection subject to process validation, material compatibility and local requirements.

OEM odor-control equipment

Custom generator modules, controls, voltage, enclosure, tubing and private-label configurations.

Project Support

Built around actual airflow and service conditions

Morhon Tech was established in 2015, with ozone-industry experience dating to 2007. We work with equipment manufacturers, project companies, distributors and overseas ozone-industry partners. The final installation must be designed and approved for the actual duct, exhaust, occupancy and destination-market requirements.

Review your duct odor-control project

Send duct dimensions, airflow, operating schedule, odor source, feed-gas preference and control requirements.