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Background on Photocatalytic Oxidation

VISION

Background on Photocatalytic Oxidation

Engineered to be sustainable, our filtration technology uses photocatalytic oxidation to convert pollutants into harmless byproducts.

Engineered to be sustainable, our filtration technology uses photocatalytic oxidation to convert pollutants into harmless byproducts.

HOW PCO IMPROVES AIR QUALITY

Unlike traditional filtration methods that capture particles, PCO actively transforms contaminants. This makes it especially effective for gases and low-concentration pollutants that are difficult to remove with mechanical filters alone. Because the process relies on surface chemistry rather than storage or adsorption, PCO can operate continuously without the gradual performance degradation associated with typical filtration methods.

The-pathways-of-photocatalytic-oxidation-process-for-generating-reactive-oxygen-species.pn

PHOTOCATALYTIC OXIDATION: THE BASICS

Photocatalytic oxidation (PCO) is a chemical process used to reduce airborne contaminants by breaking them down at the molecular level. When light energy interacts with a photocatalyst, it initiates oxidation reactions that target volatile organic compounds (VOCs) and other trace pollutants. These reactions convert complex, potentially harmful molecules into simpler, more stable substances such as carbon dioxide and water.

PCO_ThinkAir_480x480_edited_edited.jpg

PHOTOCATALYTIC OXIDATION: THE BASICS

Photocatalytic oxidation (PCO) is a chemical process used to reduce airborne contaminants by breaking them down at the molecular level. When light energy interacts with a photocatalyst, it initiates oxidation reactions that target volatile organic compounds (VOCs) and other trace pollutants. These reactions convert complex, potentially harmful molecules into simpler, more stable substances such as carbon dioxide and water.

PCO_ThinkAir_480x480_edited_edited.jpg

PHOTOCATALYTIC OXDIATION: THE BASICS

Photocatalytic oxidation (PCO) is a chemical process used to reduce airborne contaminants by breaking them down at the molecular level. When light energy interacts with a photocatalyst, it initiates oxidation reactions that target volatile organic compounds (VOCs) and other trace pollutants. These reactions convert complex and harmful molecules into simpler, more stable substances such as carbon dioxide.

PCO_ThinkAir_480x480_edited_edited.jpg

HOW PCO IMPROVES AIR QUALITY

Unlike traditional filtration methods that capture particles, PCO actively transforms contaminants. This makes it especially effective for gases and low-concentration pollutants that are difficult to remove with mechanical filters alone. Because the process relies on surface chemistry rather than storage or adsorption, PCO can operate continuously without the gradual performance degradation associated with typical filtration methods.

The-pathways-of-photocatalytic-oxidation-process-for-generating-reactive-oxygen-species.pn
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The Reactor

Photocatalytic Oxidation

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The process of photocatalytic oxidation for organic compound removal occurs within the reactor itself, which contains the catalyst.

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