A New Approach to Environmental Remediation
Catalyzed Reagent Chemistry for Contaminated Soil, Water, Sludge, Metals, Organics & Radioactive Materials
Treat & Remediate the Contamination AT THE SOURCE
Sustainable Planet — Sustainable Profits — Sustainable Future
DECARB2™ is a proprietary catalyzed reagent technology developed to treat and stabilize complex contaminated materials. The chemistry is non-toxic and non-hazardous. The treatment process sterilizes contaminated solids and expatriated water rendering them inert. A significant reduction of free heavy metals and sterile water are by-products of the process. Organic material is transformed into inorganic compound. The process is a unique chemical reaction occurring spontaneously at ambient temperature and pressure. No external energy is required.
Stringfellow Acid Pits
Waste Water Treatment
Freeport/McMoRan Gypsum, Reserve, LA
Three Major DECARB2 Remediation Applications
Acetone • Alcohols • Chloroform • Creosote • Dichloromethane • Formaldehyde • Gasoline • Hydrocarbons • Oil-Based Drilling Mud • Oil/Crude • PCBs • Trichloroethane • Trichloromethane and other identified organic contaminants
Aluminum • Arsenic • Barium • Cadmium • Chromium • Copper • Iron • Lead • Magnesium • Mercury • Selenium and other identified metals and inorganic constituents
Bacteria • Coliform • Other identified pathogens
Phosphogypsum • Radium-226 • Selected NORM/TENORM-contaminated materials
The treatment is non-toxic and non-hazardous & the resulting treated material are increasingly non-toxic and non-hazardous until they reach an inert state.
Remediate the Material. Reduce the Need to Relocate It.
More than 10,000 tons of hazardous, toxic contaminated soil have been treated using the catalyzed reagent technology with remediation tested as successful and certified with approved for safe return to the environment.
| Parameter (mg/L, EP Toxicity) | Untreated¹ | Treated² | Reduction |
|---|---|---|---|
| Barium | 50 | 0.6 | ~99% |
| Lead | 15.44 | < 0.1 | ~99% |
| Cadmium | 1.42 | < 0.01 | ~99% |
| Copper | 2.22 | < 0.1 | ~96% |
| Iron | 315 | 0.27 | ~99.9% |
| Magnesium | 11.5 | 0.06 | ~99% |
| Aluminum | 676 | 1.8 | ~99.7% |
| Arsenic | 0.5 | < 0.1 | ~80% |
| Selenium | 0.42 | < 0.1 | ~76% |
¹Untreated: raw Freeport-McMoRan phosphogypsum as received (EP Toxicity Metals, Method 3010).
²Treated: the same phosphogypsum after catalyzed reagent treatment and decanting. Analytical certificate: SGS Control Services, Inc., Kenner, LA; sample identification Freeport/McMoRan Gypsum, Reserve, LA.
Standard practice is to excavate-and-landfill a contaminated site, which relocates liability at heavy cost; PCB contaminated soil otherwise requires incineration. Certified on-site conversion to non-hazardous soil eliminates transport, disposal fees, and long-tail liability. Remediation cost is the binding constraint on Brownfield redevelopment and mine reclamation; rather than relying solely on excavation, transportation and off-site disposal, DECARB2 is designed to make successful on-site treatment possible, reducing transportation, disposal requirements and long-term management costs.
On-site remediation of contaminated soil — at a fraction of the cost of conventional methods.
The Solution for Hydrocarbons • PCBs • Creosote • Heavy Metals • Mine Tailings • Acid Pits
A Different and Unique Direction for Radioactive Waste Treatment . . . REMEDIATION.
Radioactive waste management frequently depends upon containment, controlled storage, stabilization and disposal. DECARB2 accomplishes a different result: the treatment and remediation of the contaminated material itself.
Testing demonstrates substantial reductions in Radium-226 and Gross Alpha in contaminated solids and liquids.
| Parameter | Untreated¹ | Treated² | Reduction |
|---|---|---|---|
| Radium-226 (pCi/g, Solid) | 34 ± 7 | 1.4 ± 0.2 | ~96% |
| Radium-226 (pCi/L, Liquid) | 11.8 | 0.7 | ~94% |
| Gross Alpha (pCi/g, Solid) | 48.9 | 9.8 | ~80% |
| Gross Alpha (pCi/L, Liquid) | 477 | 146 | ~69% |
Tests show the results over a 30 day timeframe. A second dose will accelerate the remediation time.
Analytical certificate: Environmental Laboratories, Inc.; source material identified as phosphogypsum from the Freeport-McMoRan Uncle Sam facility in Louisiana.
These findings create an important opportunity for further independent investigation and validation of DECARB2 for NORM/TENORM waste streams associated with industries including:
Radioactive-liquid-waste storage facilities
Today, radioactive waste management relies heavily on containment, controlled storage, stabilization and disposal, with some radionuclides requiring isolation for centuries to hundreds of thousands of years. Rather than simply containing or relocating radioactive contamination, DECARB2 is a treatment technology designed to reduce measurable radioactivity in contaminated materials. If independently validated at scale, this technology could offer a significant new remediation approach for NORM/TENORM waste streams generated by oil and gas production, mining, phosphate processing and other industries—addressing a persistent and costly environmental liability. This market alone is valued at $8.7 billion in 2025 (Source: Fortune Business Insights) and represents priceless value into the future. DECARB2 provides a cost effective solution for radioactive remediation.
This process involves injecting proprietary reagents directly into the wastewater or sludge stream, where the catalytic reaction proceeds spontaneously at ambient temperature and pressure. No external energy input, such as heat or pressure, is required. Pathogens are reduced 99.9995%, (beyond chlorine's performance). Documented: total coliform >6,736,000 MPN reduced to <31 — a 99.9995% (5-log+) reduction; barium in sugar-industry waste reduced 95%. By-products are sterile water and recyclable solids.
Conventional treatment is capital, energy and chemical-intensive; this inverts the cost structure with zero external energy. Disinfection performance beyond chlorine without chlorination's residuals, in one injection step. Applicable from major municipal plants to decentralized and developing-world settings; the U.S. water and wastewater treatment market was valued at $121.9 billion in 2024, within a global market of roughly $370 billion in 2025 (Source: Precedence Research, 2025).
DECARB2 provides a cost effective remediation solution for the treatment of hazardous materials.
Coliform bacteria present in human colon indicating fecal contamination when found in water supply is shown here.
| Parameter | Untreated¹ | Treated² | Reduction |
|---|---|---|---|
| Total Coliform | > 6,736,000 | < 31 | 99.9995% |
| Barium | 0.172 | 0.0085 | 95% |
Tests show the results over a 30 day timeframe. A second dose will accelerate the remediation time.
Analytical certificate: Environmental Laboratories, Inc.
DECARB2 can be introduced directly into contaminated wastewater, holding ponds or sludge, where the process proceeds at ambient temperature, ambient pressure and no external energy is needed to achieve dramatic reductions in organic biological and inorganic contaminants.
This technology offers potential applications ranging from industrial wastewater, effluent, sludge streams and other difficult-to-manage contaminated materials.
Application and treatment performance depend upon the specific waste stream, contaminant concentrations and operating conditions. Site-specific testing should be performed before full-scale implementation.
Catalyze. Transform. Stabilize.
Proprietary catalytic reagents are mixed with the contaminated material.
The sequence of chemical reactions proceeds spontaneously at ambient temperature and pressure without applied external energy.
Organic contaminants undergo chemical transformation while soluble metals react to form less-soluble compounds.
The resulting material is has greater chemical stability and reduced contaminant mobility.
Analytical testing determines treatment performance for the specific material and application.
A major component of the catalytic reagent process is a proprietary blend of soluble silicates.
In dilute solution, silicate structures contain negatively charged oxygen sites capable of reacting with positively charged metal ions. These reactions can produce stable, insoluble metal-silicate compounds.
This chemistry forms the foundation of DECARB2's approach to metal stabilization and contaminant treatment.
DECARB2 is a result of the invention, development and ongoing research from Dr. John C. Wagner. His work explored catalytic chemistry reactions, environmental remediation, materials science and the conversion and stabilization of contaminated materials.
His persistent question centered on Petrification: “How does wood become stone?” As a chemist, Dr. Wagner asked, “How does something organic become inorganic?” DECARB2 demonstrates that Dr. Wagner did find the answer to his question.
Chemistry can change the way we manage environmental contamination.
Research and results with consistent evidence produced the catalyzed reagent chemistry underlying DECARB2, and a series of technologies developed to address difficult environmental challenges providing solutions to restore polluted environments.
For many contaminated materials, conventional management may involve excavation, transportation, storage, stabilization or disposal.
DECARB2 asks a different question: What if we can treat the contaminated material itself?
Compelling results provide reasons for commercial application to truly remediate toxic and hazardous materials including:
● ● ● No more kicking the can down the road ● ● ●
Stop treating the symptoms — solve the problem.
Have a difficult environmental issue polluting solids or liquids? Every contaminated material situation is different. Contact us with information about your issue, contaminant analysis and treatment objectives to determine whether DECARB2 should be considered for bench-scale evaluation.
Contact UsDECARB2™
Address: 2295 Towne Lake Pkwy
#264 Suite 116
Woodstock, GA 30189 USA
Phone: 1-770-485-5538
Email: info@DECARB2.com