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Ozone (O₃) is a powerful oxidizing molecule widely used for water purification, air disinfection, odor removal, and industrial processes. Producing ozone in a controlled way requires specialized equipment, and one of the most common methods is corona discharge.

Cavitation is a physical phenomenon that occurs when rapid pressure changes in a liquid cause the formation, growth, and sudden collapse of vapor-filled cavities (bubbles). While it may sound simple, cavitation is a high-energy process capable of producing extreme local temperatures, shockwaves, and chemical reactions.

In water treatment, pumps, turbines, and advanced oxidation systems, cavitation can be either a damaging problem — or a powerful tool.

Wastewater treatment plants (WWTPs) are designed to remove organic matter, nutrients, and pathogens before water is discharged or reused. While conventional systems rely on mechanical aeration, chemical dosing, and biological processes, they often struggle with energy consumption, sludge production, odor issues, and process instability.

Nanobubble technology does not replace a wastewater treatment system — it strengthens it.

Oxygen generators used in industry, agriculture, aquaculture, and water treatment typically operate using Pressure Swing Adsorption (PSA) technology.

Instead of storing oxygen in high-pressure cylinders or producing it via cryogenic separation, PSA systems generate oxygen on-site from ambient air using molecular sieve beds.

For nanobubble systems like Waboost, understanding this process is critical because oxygen purity, pressure stability, and flow dynamics directly influence dissolved oxygen performance.

Dissolved ozone sensors are specialized instruments designed to measure the concentration of ozone (O₃) in water. Ozone is a strong oxidant widely used in water treatment, aquaculture, food processing, and industrial applications to disinfect water, remove contaminants, and improve water quality. Accurate measurement of dissolved ozone is critical to ensure both effectiveness and safety, because ozone can be harmful at high concentrations.

If you work with water systems — whether in aquaculture, hydroponics, greenhouses, environmental monitoring, or marine research — you’ve probably seen both conductivity and salinity used in dashboards and sensor specs.

They’re closely related.
They are often displayed side-by-side.
But they are not the same thing.

Understanding the difference helps you choose the right sensor, interpret your data correctly, and avoid costly mistakes.