WASTEWATER DISINFECTION RESOURCES
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Emerging state water reuse regulations are driving adoption of ozone and advanced oxidation, requiring flexible, high-performance systems to meet pathogen, trace organic, and DBP control objectives.
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Ozone system performance hinges on reactor design, not generator size. Efficient mass transfer, hydraulic integrity, and contact time ensure consistent oxidation, reduced energy use, and reliable treatment results.
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Pinnacle’s QuadBlock ozone system allows water treatment plants to modernize ozone generation modules without replacing cabinets, extending system life, boosting efficiency, and integrating modern controls seamlessly.
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Sherbrooke, Quebec upgraded its water treatment plant with Pinnacle’s Zenith ozone system, improving disinfection, reliability, energy efficiency, and operational savings while ensuring future scalability.
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Orlando Drum & Container eliminates hazardous 1,4 Dioxane from groundwater using Pinnacle Ozone Solutions’ Advanced Oxidation Process, restoring water quality sustainably and ensuring regulatory compliance.
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A seven-month pilot study shows how ozone treatment reduced hydrogen sulfide and TOC at the Hidden Springs Water Treatment Facility, improving water quality and validating a scalable alternative.
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See how Superior Fresh uses advanced ozone technology to maintain pristine aquaculture water quality, supporting sustainable Atlantic salmon production and organic farming in a pioneering integrated system.
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Learn how Quebec’s Becancour Water Treatment Plant improved ozone efficiency, reduced maintenance, and enhanced scalability by upgrading to a modular Pinnacle Summit ozone system.
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See how Bismarck’s North Burleigh Water Treatment Plant boosted production 64%, reduced operating costs 20%, and improved treatment reliability using an advanced ozone system upgrade.
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Discover how Fayetteville upgraded wastewater disinfection with advanced ozone technology, improving contaminant removal, reducing energy use, and delivering reliable, sustainable treatment for future regulatory demands.
ABOUT WASTEWATER DISINFECTION
Wastewater disinfection takes place after primary, secondary and sometimes tertiary wastewater treatment. It is typically a final step to remove organisms from the treated water before the effluent is released back into the water system. Disinfection prevents the spread of waterborne diseases by reducing microbes and bacterial numbers to a regulated level.
A variety of physical and chemical methods are used to disinfect wastewater prior to it being released into natural waterways. Historically, the chemical agent of choice for municipal wastewater treatment has been chlorine, due to its disinfecting properties and low cost. However, the rising cost of chlorine and concerns that low chlorine concentrations can still be toxic to fish and other wildlife, has given rise to more physical methods of wastewater disinfection being adopted such as ozonation or ultraviolet (UV) light.
The use of ozone as a disinfection agent has the added benefit of increasing the dissolved oxygen content of the treated wastewater. However, because the ozone has to be generated, ozonation can require prohibitive up-front capital expenditure compared to traditional chlorination. UV disinfection has been growing in popularity as a wastewater disinfection method, in large part because of the life-cycle economics of the equipment and the fact that, like ozone, there is no toxic residual.