Skip to main content

twomit.com

OXYONE®

Three-radical oxidation chemistry for difficult water and wastewater contaminants

Three-Radical Oxidation

Three radical pathways / One advanced oxidation platform

OXYONE® is a three-component oxidation formulation designed to establish carbonate-, hydroxyl- and sulfate-radical pathways for treating difficult water and wastewater contaminants.

The technology combines three proprietary compounds with Watch Water® catalyst materials. Depending on the application, OXYONE® may be dosed directly as a powder, prepared as a concentrated solution for automated dosing or activated within a professionally designed advanced oxidation process. The formulation is intended for oxidation of susceptible organic compounds, odour-causing substances, colour, selected micropollutants and microorganisms. Treatment performance and reaction products must be verified for every water matrix.

Carbonate radicals / Hydroxyl radicals / Sulfate radicals

OXYONE Introduction

One oxidation platform.
Multiple water-treatment environments.

Developed for decentralized and centralized treatment systems where conventional physical or biological processes cannot independently meet the required objectives.

Industrial Wastewater

Oxidation support for industrial effluent containing colour, odour, COD-forming compounds and persistent organics.

Municipal Wastewater

Advanced treatment or polishing of suitable municipal effluent before discharge or reuse.

Surface-Water Treatment

Evaluation for algae, cyanobacteria, odour, colour and susceptible organic pollution.

Groundwater Remediation

Ex-situ or professionally controlled in-situ oxidation of identified groundwater contaminants.

Lagoon-Water Treatment

Treatment support for wastewater lagoons affected by sulfides, odour and organic loading.

Commercial and Remediation Projects

Configurable oxidation for commercial effluent and contaminated-water remediation.

Three radicals / One catalyst activation platform

CO₃

Selective Organic Oxidation (CARBONATE-RADICAL)

Carbonate radicals are comparatively selective reactive species that may support oxidation of electron-rich organic pollutants under suitable carbonate and catalyst conditions.

•OH

Broad-Spectrum Oxidation (HYDROXYL-RADICAL)

Hydroxyl radicals are highly reactive and relatively non-selective oxidants that attack a broad range of susceptible organic compounds.

SO₄

Persistent-Pollutant Treatment (SULFATE-RADICAL)

Sulfate-radical chemistry can provide selective oxidation of many organic pollutants, depending on pH, activation conditions and radical scavengers.

PC

Activated Three-Component Chemistry (POROUS-CATALYST)

The brochure describes three proprietary compounds integrated with three porous catalysts and potential microbubble activation for enhanced reaction performance.

Science behind OXYONE®

OXYONE® is positioned as a multi-radical advanced oxidation process. The relative contribution of each radical depends on the actual ingredients, catalyst, pH, alkalinity, dissolved constituents and activation method.

  • Catalyst Activation – Proprietary porous catalyst materials activate the three-component formulation and accelerate formation of reactive species.
  • Parallel Radical Pathways – Carbonate, hydroxyl and sulfate radicals may coexist, but their concentrations and reaction rates vary according to water chemistry.
  • Contaminant Transformation – Radical reactions break chemical bonds, alter contaminant structure and convert target substances into intermediate oxidation products.
  • Verification and Polishing – Treated water may require filtration, adsorption, biological treatment, neutralization or residual-oxidant removal before discharge or reuse.
OXYONE Science and Technology
Product Specifications

Technical Data & Safety Handling

Published radical notation, redox potentials, application methods, and safety guidelines for OXYONE®.

Published Radical Information & Scientific Notes
Radical Brochure Value Publication Note
Carbonate radical ($CO_3^{\bullet-}$)3.2 VRequires correction and authoritative scientific support
Hydroxyl radical ($\bullet OH$)2.7 VValue varies with the specified redox couple and conditions
Sulfate radical ($SO_4^{\bullet-}$)3.1 VUpper end of commonly reported ranges
Published total9.0 VMust be removed; separate potentials are not additive
Published Application Methods
  • Direct powder dosing: Applied using calibrated equipment preventing dust exposure.
  • Concentrated-solution preparation: Prepared for automated/continuous dosing when permitted by SDS.
  • Advanced oxidation activation: Combined with approved catalyst or microbubble activation systems.
Safety & Handling Highlights
  • Do not handle without current Safety Data Sheet; restrict to trained professionals.
  • Wear chemical-resistant gloves, protective clothing, goggles and respiratory protection for dust.
  • Never mix with other chemicals unless compatibility is documented.
  • Keep concentrated product out of drains; provide emergency eyewash and safety shower.

Explore our OXYONE® poster library

Loading Poster Library…
OXYONE Three-Radical Chemistry
2024

OXYONE® Three-Radical Chemistry

Carbonate, hydroxyl and sulfate radical pathways in one treatment platform.

One Product Three Radicals
2026

One Product. Three Radicals.

Understanding the roles of CO₃•⁻, •OH and SO₄•⁻.

Industrial Wastewater Oxidation
2026

Industrial Wastewater Oxidation

Advanced treatment for odour, colour, COD and difficult organic pollutants.

Micropollutant Treatment
2026

Micropollutant Treatment

Treatability testing for pharmaceuticals, phenols and persistent compounds.

Powder or Automated Dosing
2026

Powder or Automated Dosing

Flexible application through direct or solution-based treatment.

Oxidize Polish Verify
2026

Oxidize. Polish. Verify.

A responsible treatment sequence from reaction to finished-water testing.

Frequently
Asked Questions

Essential information about OXYONE® chemistry, applications, activation, safety and performance verification.

Contact Support
What is OXYONE®?
It is a three-component advanced oxidation formulation intended to generate carbonate-, hydroxyl- and sulfate-radical reaction pathways.
Where can it be applied?
Potential applications include surface water, groundwater, wastewater, lagoon water and industrial, commercial or municipal effluent.
What contaminants can be evaluated?
OXYONE® may be evaluated for odour, colour, sulfides, phenols, dyes, amines, pharmaceuticals and other oxidizable organic pollutants.
Does it remove every pollutant?
No. Treatment effectiveness depends on chemical structure, concentration, water chemistry, dosage, activation and polishing.
Can it remove arsenic?
Oxidation may change arsenic speciation, but arsenic atoms are not destroyed. Adsorption, precipitation or membrane separation is required for physical removal.
Can OXYONE® oxidize nitrate?
Nitrate is already a highly oxidized nitrogen species. A general “nitrate oxidation” claim is chemically questionable and should be removed unless a defined mechanism and nitrogen balance are provided.
Does the process create no by-products?
No such universal claim should be made. Oxidation produces transformation products whose identity depends on the target pollutant and water matrix.
How is OXYONE® applied?
The brochure presents direct powder dosing, preparation of a concentrated solution and activated AOP dosing.
What is microbubble activation?
The brochure mentions microbubbles as an activation method but does not define the gas, bubble size, energy input, catalyst or reaction conditions.
What is the correct dosage?
The brochure does not publish a dosage. The dose must be established through laboratory testing and documented in an application guide.
Is downstream treatment required?
It may be. Filtration, adsorption, biological treatment or neutralization can be necessary to remove solids, residual oxidant and reaction products.
Is OXYONE® safe to handle?
Safety cannot be determined from the brochure. Users must review the current SDS and use its specified engineering controls and PPE.

Build a three-radical oxidation process

It all starts with contaminant analysis and treatability testing.

Send us your water characterization data, contaminant profile (COD, organics, micropollutants) and treatment objectives. Our specialists will help evaluate OXYONE® for your application.

Advanced Radical Chemistry for Challenging Water

Water treatment facility overview