Drinking Water System

AWT s system will eliminate 99 + % of 1,4 Dioxane, 99 + % of all PFAS and their related chemicals. 

1,4-Dioxane: A Hidden but High-Impact Contaminant

Background

1,4-Dioxane is a fast-moving, difficult-to-remove groundwater contaminant. Its extreme mobility and persistence allow it to
spread rapidly and drive significant cleanup risk even at trace concentrations.

Health concerns further elevate the risk. The U.S. EPA classifies 1,4-dioxane as likely carcinogenic to humans, with drinking water standards set at ultra-low levels. As a result, even minor detections can trigger regulatory scrutiny, public concern, and costly response actions.

Compounding the challenge, 1,4-dioxane resists natural degradation and bypasses many conventional treatment systems. Effective remediation often requires advanced technologies specifically designed to address this contaminant.

Agri-Water’s Advanced Treatment Approach Destroying 1,4 Dioxane using Hydrodynamic Cavitation

Agri-Water uses hydrodynamic cavitation to address contaminants that conventional systems cannot effectively treat.

This process forces water through a specially engineered system that creates rapid pressure changes. These pressure shifts
form microscopic bubbles that collapse almost instantly.

When the bubbles collapse, they release intense, localized energy producing heat, pressure, and highly reactive conditions within the water. This energy breaks down hard-to-treat contaminants like 1,4-dioxane at the molecular level.

In simple terms: Hydrodynamic cavitation creates millions of microscopic shock events that destroy contaminants directly in the water. The result is an efficient, chemical-free treatment approach that can stand alone or enhance other advanced treatment systems.

Why It Matters

1,4-Dioxane may be present at very low concentrations, but its impact is anything but small. Its mobility, persistence, regulatory sensitivity, and health risk make it a major driver of long-term liability and cleanup cost.

Bottom line: advanced treatment technologies like hydrodynamic cavitation give Agri-Water the ability to address one of today s most challenging groundwater contaminants.

Municipal Wastewater System

AWT s system is made for integration into existing infrastructure. It targets nutrients (TN, TP), BOD, TSS, metals, sludge volumes (30 60%) reduction, microplastics, pharmaceuticals, hormones, 1,4 Dioxane, PFAS, ammonia, nitrites, nitrates and emerging contaminants. It reduces chlorides and sulfides, provides an oxygen rich effluent, and is compatible with reclaimed water reuse and wetland recharge standards. No chemicals are used, with oxygen and ozone being the sole reagents.

Desalinization

The AWT system may be added to existing systems as an upgrade, or used as a freestanding facility. No chemicals are used in the process. Radicals created in the cavitation process cause sodium ions to become caustic soda. The caustic soda will react with a metal ion, become a solid and precipitate out from the water. The remaining hydrogen atom can be given off as a gas or combine with another atom. The chloride ion bonds with other atoms or converts to a chlorine gas, resulting in no salt residue. The system is efficient and economical to operate.

De-polluting Streams, Rivers and Lakes

AWT s system is able to eliminate or reduce pollution entering bodies of water to WHO accepted levels. It eliminates chemicals from agricultural runoff, as well as microplastics, pharmaceuticals, hormones, PFAS, and emerging contaminants. The oxygen rich effluent helps to settle the water it reaches, allowing these bodies of water to support all forms of aqueous life. In Pennsylvania, the system brough a severely polluted stream fed by acid mine water back to life in one year.