PURITY AOP: Hands-down the Best Residential Pool AOP system available anywhere.

2. PURITY AOP PERFORMED 100 TIMES BETTER THAN THE LEADING COMPETITOR AOP SYSTEM DURING NSF CERTIFICATION TESTING2
Purity AOP reduced pathogens by 99.999% in NSF certification testing. No other competing AOP system has tested above 99.9%. Mathmatically, this means for every infectious pathogen left after 99.999% reduction, 100 infectious pathogens are left after 99.9% reduction.

[images of 3 petrie dishes side by side. The first shows the initial contaminated water, the second shows pathogens left after 99.9% reduction; the third shows 1 patho]negative

4. AOP SAVES MONEY BY REDUCING CHLORINE COSTS BY 90%.

Chlorine costs have skyrocketed especially since 2020 and can be hard to find. With AOP the only chlorine required is enough to keep your pool water at drinking water levels, 0.5ppm, rather than traditional chlorinated pools which require 2-5 ppm.

[BAR CHART SHOWING 2-5 PPM VS 0.5 PPM]

5. PURITY AOP IS EFFECTIVE AT ALL WATER FLOW RATES. NO OTHER AOP SYSTEM CAN MAKE THAT CLAIM

Purity AOP’s system operates effectively at all flow rates, thanks to our unique patent-pending flow design and components. Our AOP competitors can only operate effectively between 30-50 GPM, which severely limits their applicable pool size and flow rates. Purity AOP is the only viable option for variable speed pumps!

[IMAGE OF VESSEL FULL FLOWING 100 GPM, VS IMAGE OF VESSEL WITH 30-50 GPM]

6. PURITY AOP’S DRY REACTOR PRODUCES MUCH MORE DISINFECTION THAN ITS WET REACTOR COMPETITORS

Purity AOP creates Hydroxyl Radicals in a dry reactor, whereas our leading competitors create them in a wet environment. Only Dry Reactors create true AOP Disinfection. Wet Reactor DESIGN cannot assure AOP disinfection, especially in cloudy pool water, for two reasons. First, in a Wet Reactor, the Ozone reacts with impurities in the water and so partly/completely dissipates before it can be converted to Hydroxyl Radicals by the UV radiation. Secondly, water filters UV, weakening the radiation available to convert the remaining Ozone to Hydroxyl Radicals.

[ANIMATION OF DRY REACTOR VS DARKER WET REACTOR]

7. PURITY AOP PRODUCES AT LEAST 80% MORE OZONE THAN THE COMPETITORS

80% more ozone production means 80% more ozone available to convert to Hydroxyl Radicals and 80% more disinfection dosage available for cleaner, safer swimming pool water.

8. PURITY AOP’S PROPRIETARY INTEGRATED DESIGN CREATES POSITIVE AIR PRESSURE AT ALL FLOW RATES

No other AOP system on the market has positive air pressure. No other AOP system is able to insert more cleansing Hydroxyl Radicals than the natural pressure from the water flow rate allows. For this reason other AOP competitors are severely limited to a flow rate of 30-50 gpm. Purity AOP’s proprietary positive air pressure system guarantees that all of the Hydroxyl Radicals produced by our AOP system flows into the water flow, no matter what the flow rate is.

9. PURITY AOP’S PROPRIETARY INJECTOR MANIFOLD PROVIDES SUPERIOR MIXING OF HYDROXYL RADICAL GAS

Superior mixing creates more thorough contact with contaminants in the water so that the full power of AOP’s sanitizing and oxidizing can be brought to bear in creating pure and safe swimming pool water. No other injector on the market mixes the AOP gas like Purity AOP.

10. PURITY AOP HAS LOWER COST OF OWNERSHIP THAN OTHER COMPETITOR AOP SYSTEMS

* Purity AOP has a lower cost of ownership than other AOP competitors because it uses superior parts that last longer and do not need constant replacement. For example, our competitors use plastic hoses that corrode under AOP, and cheap plastic check valves that have a high failure rate. Both components require annual replacement. Purity AOP on the other hand uses a stainless steel braided teflon coated hose like those on racing motorcyles, which are impervious to AOP, and a robust stainless steel check valve, both of which will need no replacement for the life of the system.

[IMAGE 5 – Stainless Steel Braided Hose jpeg] [IMAGE 6 – Stainless Steel Check Valve png]
[SUBTITLE 5: “Purity AOP Stainless Steel Braided Hose”]
[SUBTITLE 6: “Purity AOP Stainless Steel Check Valve”]

[IMAGE 7 – Plastic Hose and Check Valve
[SUBTITLE 7: “Competitor Plastic Hose and Check Value
Must both be replaced annually”]

Also, our competitors filter incoming air with a tiny 0.049 square inch filter that is easily plugged, shutting down the production of AOP. Purity AOP employs an air filter with 122x more surface area (6 square inches) and which will never plug.

“Purity AOP Air Filter, 122x more capacity that the competition’s

* Purity AOP has a lower cost of ownership because it is designed for easy access by pool maintenance contractors when necessary. Swimming Pool Maintenance love Purity AOP because it rarely needs service and service calls are easy and straight forward.

FURTHER READING
WHAT IS ADVANCED OXIDATION PROCESS?

UNDERSTANDING ADVANCED OXIDATION PROCESSES (AOP) IN POOL DISINFECTION: A SCIENTIFIC OVERVIEW

Advanced Oxidation Processes (AOP) have emerged as a cutting-edge solution in the purification and disinfection of swimming pool water, offering an eco-friendly alternative to traditional chlorine-based systems. This blog post delves into the science behind AOP, elucidating how it functions and its role in ensuring cleaner, safer, and clearer pool water.

The Fundamentals of AOP

At its core, AOP refers to a set of chemical treatment procedures designed to remove organic and inorganic materials from water through the generation of highly reactive species, notably hydroxyl radicals (•OH•OH). These radicals possess an extraordinary oxidation potential, higher than that of chlorine and ozone, making them highly effective at breaking down pollutants, pathogens, and organic matter on a molecular level.

The Science Behind AOP

The effectiveness of AOP in disinfecting swimming pool water lies in its ability to produce hydroxyl radicals. These radicals are formed through the interaction of UV light with ozone (O3), among other precursors. The process typically involves two key stages:

Generation of Precursors: UV lamps or corona discharge methods are commonly used to produce ozone, one of the primary precursors in the AOP system.

Formation of Hydroxyl Radicals: When ozone (or another precursor) is exposed to UV light, hydroxyl radicals are formed.

These hydroxyl radicals are incredibly short-lived but highly reactive, allowing them to attack and break down contaminants at a molecular level. They react with organic compounds, pathogens, and even some inorganic substances, converting them into water, carbon dioxide, and other less harmful substances.

Advantages of AOP in Pool Disinfection

Eco-friendly Disinfection: AOP processes eliminate the need for high concentrations of harmful chemicals, reducing the presence of chemical residuals that can lead to skin irritation, respiratory issues, and other health problems associated with traditional pool disinfection methods.

Broad-Spectrum Efficacy: The high reactivity of hydroxyl radicals allows for the efficient destruction of a wide range of contaminants, including bacteria, viruses, algae, and organic matter, that are resistant to other forms of treatment.

No Chemical By-products: Unlike chlorination, AOP does not produce harmful by-products such as trihalomethanes (THMs) and chloramines, which are associated with negative health impacts.

Implementing AOP in Pool Systems

For AOP systems to be effective in pool disinfection, several factors must be considered, including the intensity of UV light, the concentration of ozone, and the flow rate of water through the system. Advanced systems, like the Purity AOP, optimize these parameters to ensure maximum efficiency across varying conditions.

Conclusion

Advanced Oxidation Processes represent a significant leap forward in pool water treatment technology. By leveraging the power of hydroxyl radicals, AOP systems offer a more effective, environmentally friendly alternative to traditional disinfection methods. As the technology continues to evolve, it holds the promise of setting new standards for water quality in residential and commercial swimming pools alike.

THE ADVANTAGES OF USING A DRY REACTOR IN ADVANCED OXIDATION PROCESS SYSTEMS FOR POOL DISINFECTION: A SCIENTIFIC PERSPECTIVE

The Advanced Oxidation Process (AOP) is revolutionizing pool disinfection by offering an effective, chemical-free method to purify water. Central to the efficacy of AOP systems is the generation of hydroxyl radicals, highly reactive species capable of degrading organic contaminants and pathogens. After studying the advantages of dry reactors over the prevalent wet reactor approach Purity AOP determined the scientific evidence mandates employing a dry reactor mechanism over traditional wet reactors, particularly in scenarios involving highly contaminated or cloudy pool water.

Understanding Hydroxyl Radicals and AOP

Hydroxyl radicals (⋅OH⋅OH) are among the most powerful oxidizing agents available, capable of reacting with a wide range of organic compounds and pathogens, rendering them harmless. In the context of pool disinfection, AOP systems leverage these radicals to achieve unparalleled water clarity and safety without the drawbacks associated with chemical disinfectants like chlorine.

The generation of hydroxyl radicals in AOP systems typically involves the use of ozone (O3) and ultraviolet (UV) light. Ozone is introduced into the water, where it is then exposed to UV radiation, facilitating the conversion of ozone molecules into hydroxyl radicals. This process can occur in either a wet or dry reactor environment.

The Case for Dry Reactors

The distinction between wet and dry reactors lies in the phase in which the ozone is converted into hydroxyl radicals. In dry reactors, ozone gas is exposed to UV radiation before it encounters the pool water, while in wet reactors, this conversion process happens within the water body. The advantages of using a dry reactor, especially in cases of highly contaminated or cloudy water, are multifaceted:

Efficiency of Hydroxyl Radical Generation: In wet reactors, the presence of impurities and particulate matter in cloudy or heavily contaminated water can consume ozone molecules through side reactions before they are converted to hydroxyl radicals. This reduces the efficiency of the AOP process. Conversely, dry reactors generate hydroxyl radicals outside the water matrix, ensuring that a greater proportion of ozone is efficiently converted.

UV Radiation Penetration: Water, particularly when turbid or cloudy, can significantly attenuate UV radiation, diminishing its ability to catalyze the conversion of ozone to hydroxyl radicals. In dry reactors, the interaction between ozone and UV light occurs in an environment uninhibited by water, allowing for optimal UV penetration and, consequently, more effective radical generation.

Longevity and Cost-effectiveness: Dry reactors avoid the corrosive effects of water and dissolved chemicals on the reactor’s internal components, such as UV lamps and the reactor vessel itself. This not only extends the lifespan of these critical components but also reduces maintenance costs and downtime, contributing to a lower total cost of ownership.

Operational Flexibility: Dry reactors can maintain consistent performance across a range of water qualities and contaminant levels. This adaptability is particularly advantageous for pool systems that may experience significant fluctuations in water clarity or contamination, ensuring effective disinfection under varying conditions.
Conclusion

The use of dry reactors in AOP systems for pool disinfection represents a significant advancement in water treatment technology. By circumventing the limitations associated with wet reactor designs, dry reactors offer enhanced efficiency, cost-effectiveness, and operational flexibility. This is particularly pertinent in scenarios involving highly contaminated or cloudy water, where traditional methods may falter. Through the scientific lens, it is evident that the strategic integration of dry reactors in AOP systems paves the way for superior water quality, aligning with environmental sustainability and public health goals.