As regulatory pressure intensifies and the cost of PFAS remediation escalates, industry and government leaders face a common question: how to permanently eliminate PFAS contamination for clean drinking water – efficiently, safely and at scale.
For decades, most treatment approaches have focused on separation rather than destruction – removing PFAS from water through filtration or adsorption, only to create secondary waste streams that require additional handling and disposal. Today, plasma-based destruction technology offers a fundamentally different path forward.
DMAX Plasma Inc. is at the forefront of this shift, delivering a scalable plasma destruction platform designed to permanently break down PFAS molecules across a wide range of real-world water matrices, from landfill leachate to groundwater, stormwater, and industrial wastewater.
Moving beyond separation to permanent destruction
PFAS compounds are notoriously difficult to destroy due to the strength of their carbon-fluorine bonds – among the strongest in chemistry. Traditional treatment technologies, such as granular activated carbon, ion exchange, or membrane systems, capture PFAS but do not eliminate them, transferring long-term liability downstream.
DMAX Plasma’s solution focuses on permanent molecular destruction. Using a non-thermal plasma-based process:
- The system generates a highly energised interface, ionising argon gas to create reactive plasma species that break PFAS compounds into their elemental components without producing harmful secondary waste streams. Basically, it creates and harnesses lightning in a bottle.
“We’ve field-trialled our process across the broadest range of applications and different concentrations of PFAS,” said Ken Camarco, CEO of DMAX Plasma. “We’ve demonstrated very high efficacy in destruction from PFAS precursors, long-chains, short-chains, and now ultra-short chain PFAS.”
This capability addresses one of the most persistent challenges facing environmental engineers: uncertainty across diverse contamination profiles.
Designed for real-world water conditions
PFAS contamination rarely occurs in ideal laboratory conditions. Instead, engineers must address complex water matrices that include suspended solids, high conductivity, organic compounds, and other variable chemistries.
DMAX Plasma has engineered its system specifically for these conditions.
“It’s a non-selective process, so we can target PFAS regardless of what else may be in the water, and we don’t really see fouling from other contaminants,” Camarco explained. “Whether it’s landfill leachate, groundwater, industrial wastewater, or stormwater, we’ve demonstrated strong destruction performance across each of those impacted environments. In addition, we can treat streams that have been concentrated using foam fractionation, membrane filtration, or ion exchange.”
This flexibility allows DMAX systems to function either as standalone treatment systems or integrated into existing treatment trains, providing engineers with deployment flexibility across remediation sites.
Continuous flow scalability for operational deployment
One of the critical differentiators of plasma destruction is the ability to operate continuously, rather than in batch mode.
Many emerging PFAS destruction technologies remain limited to batch processing, creating operational bottlenecks at scale. DMAX Plasma’s modular reactor architecture allows continuous treatment with scalable throughput. It is easily deployed to a site and operational in less than half a day.
“We can configure solutions to handle 10 gallons per minute, 50 gallons per minute, and beyond,” Camarco said. “It’s a modular concept – we can add reactors, increase plasma generation, and scale based on volume requirements.”
This modularity enables deployment across a wide range of applications, including:
• Military installations and commercial airfields impacted by aqueous film-forming foam (AFFF)
- Landfill leachate treatment
- Industrial process water and wastewater remediation: chemical, petrochemical, semiconductor, microelectronics, automotive, and other
- Groundwaters
- Stormwater runoff
Systems can be deployed as fixed installations or trailer-mounted mobile systems, enabling treatment at remote or temporary remediation sites, and providing treatment-as-a-service (TaaS).
Lower operational costs through efficient design
Cost remains a primary concern for remediation programmes, particularly given the long-term financial burden associated with PFAS contamination.
DMAX Plasma’s fully automated system is engineered to reduce cost and complexity — building, operating and maintaining systems at the lowest cost in the industry to destroy PFAS.
Being a non-thermal pulsed plasma, “our energy consumption is very low, and the argon gas usage is minimal as it is recirculated, so it doesn’t become a major cost driver,” said Camarco.
The automated, continuous operation reduces manpower requirements and, with few moving parts, the system is safe and highly reliable.
The system’s robust design also minimises maintenance requirements and avoids fouling issues and pretreatment requirements.
A scalable solution for military and industrial remediation
PFAS contamination remains particularly widespread across military bases, commercial airfields, landfills, industrial manufacturing sites, and local water supplies.
“The DMAX non-thermal plasma process is the most cost-effective — and sustainable — total PFAS destruction solution commercially available. Engineered for low complexity and energy usage, it utilises few process consumables, does not generate harmful process byproducts, and the system scales to meet volume requirements.”
These environments require solutions capable of addressing complex contamination profiles and large treatment volumes.
DMAX Plasma’s platform has been field-tested across diverse environments, including military and industrial remediation projects.
“The real challenge has always been whether a technology can treat all types of contaminated water,” Camarco said. “We’ve demonstrated strong destruction across the full range of PFAS-impacted water systems for thousands of treatment hours.”
This performance provides remediation engineers with a destruction-based solution capable of addressing both current contamination and future regulatory requirements.
Redefining the future of PFAS remediation
As regulatory standards tighten and remediation efforts accelerate worldwide, permanent destruction technologies are emerging as essential components of long-term PFAS management strategies.
By combining scalable continuous flow operation, robust performance across diverse water matrices, and efficient automated operation, non-thermal plasma destruction technology will play a central role in the next generation of remediation infrastructure.
For engineers, consultants, and remediation leaders, the transition from PFAS separation to permanent destruction represents a critical step forward.
DMAX Plasma’s technology offers a scalable path to achieve that objective. As a standalone system or as an integral part of a treatment train, it permanently eliminates PFAS at the molecular level and reduces long-term environmental and financial liability.
Please Note: This is a Commercial Profile