Products | VOC Decomposer Product Line and System Overview

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123456®
VOC Decomposer

Core Technology

Photocatalytic Reactor

VOC does not disappear on its own.

It remains in the air and enters the body with every breath.

Gas-Phase Reaction × Operational Stability × Measurable Reduction = VOC Decomposer™

🔥 The first household VOC photocatalytic reactor | True gas-phase VOC decomposition | Reduces indoor VOC concentration

Made in Taiwan

with 40+ years of export electronics manufacturing experience

What Is a VOC Decomposer™?

This product is built around a VOC photocatalytic reactor and integrates a multi-layer air-treatment structure, allowing volatile organic compounds (VOCs) in the air to undergo continuous oxidation reactions as they pass through the gas-phase reaction zone, thereby reducing indoor VOC concentration. The overall design is not merely intended to let air pass through the device, but to establish a sustained gas-phase decomposition process under stable airflow and reaction conditions.

Unlike most conventional air purifiers that mainly rely on filter media to adsorb or temporarily intercept pollutants, this product is not designed to simply collect VOCs, retain them in materials, or transfer them to another treatment interface. Instead, it uses photocatalytic reactions to change their molecular structure, allowing them to be gradually oxidized and decomposed during the reaction process, and ultimately converted into carbon dioxide (CO₂) and water (H₂O). Therefore, what this product pursues is not temporary retention or delayed release, but a molecular-level transformation of how pollutants exist, making it the best treatment approach for indoor VOC control.

Core Structure

This product is built around a multi-stage air-treatment path rather than a single material or a single treatment structure.

Its core design is based on a consumable-free operating principle, allowing the system to support particle control, odor treatment, and gas-phase VOC decomposition without relying on routine replacement of treatment media.

Air Treatment Path:
Air Inlet → Washable Pre-Filter → Washable Electrostatic Dust Collection Filter → Backward-Curved Centrifugal Blower → UV-Regenerated Activated Carbon → Lower Photocatalytic Honeycomb → UV Light Source → Upper Photocatalytic Honeycomb → Coandă Guide Ring → Air Outlet

Washable Pre-Filter

Captures larger particles at the first stage.

After entering the device, the air first passes through the washable pre-filter. Its role is to intercept larger dust, hair, lint, and particulate pollutants while maintaining smooth airflow, thereby reducing the burden on the downstream treatment sections. The structure is washable, reusable, and designed without consumable replacement.

Washable Electrostatic Dust Collection Filter

Designed to help capture particles smaller than PM1.0.

After passing through the pre-filter, the air enters the second-stage washable electrostatic dust collection filter. Built around a purely electrostatic dust-collection design, this structure provides a large and orderly conductive surface while maintaining low-resistance airflow, increasing the chance for fine suspended particles to adhere during passage. Its purpose is not only to further reduce residual particles, but also to lower the chance of particles entering the downstream blower and reactor, while remaining washable, reusable, and consumable-free.

Backward-Curved Centrifugal Blower

Designed for stable air pressure and smoother airflow.

The core driving force of the system is a backward-curved centrifugal blower. Its value lies not merely in providing airflow, but in establishing a stable, controllable, and push-capable airflow path for the entire multi-stage air-treatment system. Even under the resistance created by the front-end filters, electrostatic dust-collection structure, and downstream reactor, it can maintain more stable ventilation performance and serve as the dynamic core of the machine.

UV-Regenerated Activated Carbon

Used to support odor treatment during continuous operation.

After front-end particle treatment, the air further enters the UV-regenerated activated carbon section. Its main role is to adsorb residual odors, VOCs, and other gas-phase pollutants, serving as an important intermediate structure between particle treatment and the downstream photocatalytic reaction section. Combined with a UV regeneration mechanism, it helps maintain more stable adsorption conditions during continuous use, while supporting long-term operation without routine consumable replacement.

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Lower Photocatalytic Honeycomb

Forms the lower reaction surface below the UV light source.

The lower photocatalytic honeycomb carries titanium dioxide photocatalyst material within a honeycomb channel structure and forms a VOC decomposition reaction surface under UV activation. Its purpose is not merely to let air pass through, but to provide a large and orderly reaction surface while maintaining low-resistance ventilation, allowing VOCs and other gas-phase pollutants to form more complete contact with the photocatalytic surface as they move through the channels.

UV Light Source

Designed to provide uniform light across the reaction zone.

The UV light source system is positioned at the center of the reaction chamber and serves as the ultraviolet energy source for photocatalytic reactions. When UV light irradiates the titanium dioxide catalyst surface, it keeps the photocatalyst in an activated state, allowing gases passing through the chamber to remain under stable reaction conditions. The light-source architecture is also designed to support illumination uniformity, helping improve the overall stability and efficiency of the reaction zone.

Upper Photocatalytic Honeycomb

Forms the upper reaction surface above the UV light source.

The upper photocatalytic honeycomb also carries titanium dioxide photocatalyst material within a honeycomb channel structure and forms a VOC decomposition reaction surface under UV activation. Its role is to extend the reaction path, allowing VOCs and other gas-phase pollutants to maintain more complete contact with the photocatalytic surface as they continue through the system, thereby improving the continuity and completeness of the overall decomposition process.

Coandă Guide Ring

Designed with the Coandă effect to guide outlet airflow.

After the air completes the core purification process, it enters the upper guide-ring structure. This guide ring is not merely an exterior part, but a key component for controlling the outlet airflow pattern. It allows the same internal airflow path to support both a concentrated upward airflow and a 360° horizontal diffused airflow, ensuring that outlet behavior remains clear, stable, and directly linked to the position of the guide ring.

How VOC Is Processed Inside

Where does VOC actually go after entering the machine?

After being drawn into the reaction chamber by the backward-curved centrifugal blower, VOC first passes through the UV-regenerated activated carbon. At this stage, part of the VOC is initially adsorbed by the activated carbon, while odor is also reduced, causing the VOC concentration in the air to drop temporarily.

When UV light regenerates the activated carbon, the VOC that was previously adsorbed is released again and continues forward through the lower photocatalytic honeycomb, the UV light source system, and the upper photocatalytic honeycomb. This means VOC does not simply remain trapped inside a single material, but continues moving into the next reaction path inside the machine.

When UV light irradiates the surface of the titanium dioxide (TiO₂) catalyst, it activates a photocatalytic oxidation reaction and further generates highly reactive oxidative species. These reactive species then react with VOC molecules that come into contact with the catalyst surface, gradually breaking down and reorganizing their molecular structure, ultimately converting them into carbon dioxide (CO₂) and water (H₂O), which are then released back into the air.

The key to this product lies in its ability to establish a stable reaction-condition space inside the reaction chamber, so that VOC is not merely adsorbed temporarily or released later, but can continue moving toward oxidative decomposition inside the machine, truly reducing indoor VOC concentration.

123456® VOC Decomposer

What Is a VOC Decomposer™?

Core Structure

How VOC Is Processed Inside

123456®
VOC Decomposer