The technology
The technology
Free Radical
Gasification (FRG™)
Free Radical
Gasification (FRG™)
Free Radical
Gasification (FRG™)
Free Radical
Gasification (FRG™)
Free Radical
Gasification (FRG™)
Free Radical
Gasification (FRG™)
Permanent PFAS destruction at the molecular level. Designed for complex, high-concentration PFAS waste streams, including AFFF.
Permanent PFAS destruction at the molecular level. Designed for complex, high-concentration PFAS waste streams, including AFFF.
Permanent PFAS destruction at the molecular level. Designed for complex, high-concentration PFAS waste streams, including AFFF.
Permanent PFAS destruction at the molecular level. Designed for complex, high-concentration PFAS waste streams, including AFFF.
Permanent PFAS destruction at the molecular level. Designed for complex, high-concentration PFAS waste streams, including AFFF.
Permanent PFAS destruction at the molecular level. Designed for complex, high-concentration PFAS waste streams, including AFFF.
>99.99%
>99.99%
>99.99%
PFAS DESTRUCTION
EFFICIENCY DEMONSTRATED
<5 sec
<5 sec
<5 sec
COMPLETE MOLECULAR
DESTRUCTION TIME
>5,000°C
>5,000°C
>5,000°C
CONVERSION ZONE
TEMPERATURE
4,000 L
4,000 L
4,000 L
PER DAY CAPACITY
PER UNIT (GEN 5)
10
10
10
PATENTS PROTECTING
FRG™ GLOBALLY
The core principle
The core principle
Destruction at the
molecular level.
Destruction at the molecular level.
Destruction at the molecular level.
Destruction at the
molecular level.
Destruction at the molecular level.
PFAS compounds contain carbon-fluorine (C–F) bonds - among the strongest known chemical bonds - allowing them to persist in the environment for decades.
Most PFAS treatment methods concentrate or separate contamination into secondary waste streams rather than permanently destroying it.
FRG™ doesn't filter or contain PFAS. Instead, it uses a controlled thermal process that combines ultra-high heat, light, and free radicals to break apart stable chemical bonds and destroy PFAS at the molecular level.
FRG™ operates at commercial scale under ambient pressure while processing complex, high-concentration PFAS streams, including AFFF. The technology is backed by more than a decade of hazardous liquid waste destruction experience across five generations of continuous development.
PFAS compounds contain carbon-fluorine (C–F) bonds - among the strongest known chemical bonds - allowing them to persist in the environment for decades. Most PFAS treatment methods concentrate or separate contamination into secondary waste streams rather than permanently destroying it.
FRG™ doesn't filter or contain PFAS. Instead, it uses a controlled thermal process that combines ultra-high heat, light, and free radicals to break apart stable chemical bonds and destroy PFAS at the molecular level.
FRG™ operates at commercial scale under ambient pressure while processing complex, high-concentration PFAS streams, including AFFF. The technology is backed by more than a decade of hazardous liquid waste destruction experience across five generations of continuous development.
PFAS compounds contain carbon-fluorine (C–F) bonds - among the strongest known chemical bonds - allowing them to persist in the environment for decades. Most PFAS treatment methods concentrate or separate contamination into secondary waste streams rather than permanently destroying it.
FRG™ doesn't filter or contain PFAS. Instead, it uses a controlled thermal process that combines ultra-high heat, light, and free radicals to break apart stable chemical bonds and destroy PFAS at the molecular level.
FRG™ operates at commercial scale under ambient pressure while processing complex, high-concentration PFAS streams, including AFFF. The technology is backed by more than a decade of hazardous liquid waste destruction experience across five generations of continuous development.
FRG™ Gen 4
FRG™ Gen 4
FRG™ Gen 4
RESPONSIBLE ENERGY FACILITY | MAITLAND, ONTARIO
RESPONSIBLE ENERGY FACILITY | MAITLAND, ONTARIO
RESPONSIBLE ENERGY FACILITY | MAITLAND, ONTARIO
RESPONSIBLE ENERGY FACILITY | MAITLAND, ONTARIO
KEY ADVANTAGES
✓ >99.99% PFAS destruction demonstrated
✓ Commercial-scale, containerized system
✓ Ambient-pressure operation
✓ Designed for complex PFAS streams, including AFFF
✓ Designed for complex PFAS streams, including AFFF
✓ Designed for complex PFAS streams,
including AFFF
✓ Modular deployment design
✓ Engineered for commercial deployment
PFAS compounds contain carbon-fluorine (C–F) bonds - among the strongest known chemical bonds - allowing them to persist in the environment for decades.
Most PFAS treatment methods concentrate or separate contamination into secondary waste streams rather than permanently destroying it.
FRG™ doesn't filter or contain PFAS. Instead, it uses a controlled thermal process that combines ultra-high heat, light, and free radicals to break apart stable chemical bonds and destroy PFAS at the molecular level.
FRG™ operates at commercial scale under ambient pressure while processing complex, high-concentration PFAS streams, including AFFF. The technology is backed by more than a decade of hazardous liquid waste destruction experience across five generations of continuous development.
Process in detail
How FRG™ works.
How FRG™ works.
How FRG™ works.
Developed for hazardous waste, now deployed for PFAS and other persistent contaminants.
Developed for hazardous waste, now deployed for PFAS and other persistent contaminants.
WASTE ENTERS
STEP 01 - INPUT
Contaminated
liquid waste
PFAS-contaminated water, concentrated leachate, AFFF firefighting foam, and industrial liquid waste. The FRG™ system is engineered to process complex, multi-compound waste streams.
Up to 4,000 L/day (Gen 5) · Concentrated liquid waste
INTO
FEEDS
DESTRUCTION OCCURS HERE
STEP 02 - MOLECULAR DESTRUCTION
>5,000°C
reaction zone
Ultra-high heat, broad-spectrum radiant energy, and reactive free radicals interact within a controlled conversion zone to drive rapid bond cleavage, severing the carbon-fluorine bond at the molecular level in seconds.
>5,000°C · <5 second process · >99.99% destruction
CLEAN OUTPUT
PRODUCES
STEP 03 - OUTPUT
Stable, usable
byproducts
Hydrogen-rich gas and potassium fluoride (KF), a stable inorganic fluoride salt with established industrial applications, are produced within the reaction zone as stable final outputs of the molecular destruction process.
H₂-rich gas ·
Potassium fluoride (KF)
WASTE ENTERS
STEP 01 - INPUT
Contaminated
liquid waste
PFAS-contaminated water, concentrated leachate, AFFF firefighting foam, and industrial liquid waste. The FRG™ system is engineered to process complex, multi-compound waste streams.
Up to 4,000 L/day (Gen 5) · Concentrated liquid waste
INTO
FEEDS
DESTRUCTION OCCURS HERE
STEP 02 - MOLECULAR DESTRUCTION
>5,000°C
reaction zone
Ultra-high heat, broad-spectrum radiant energy, and reactive free radicals interact within a controlled conversion zone to drive rapid bond cleavage, severing the carbon-fluorine bond at the molecular level in seconds.
>5,000°C · <5 second process · >99.99% destruction
CLEAN OUTPUT
PRODUCES
STEP 03 - OUTPUT
Stable, usable
byproducts
Hydrogen-rich gas and potassium fluoride (KF), a stable inorganic fluoride salt with established industrial applications, are produced within the reaction zone as stable final outputs of the molecular destruction process.
H₂-rich gas ·
Potassium fluoride (KF)
WHAT HAPPENS INSIDE THE REACTION ZONE
WHAT HAPPENS INSIDE THE REACTION ZONE
01
Heat
Ultra-high heat initiates molecular bond breakdown within PFAS compounds.
02
Light
Photolytic energy contributes to molecular bond destabilization during the destruction process.
03
Radicals
Free radicals accelerate the bond cleavage reactions required for molecular destruction.
04
Time
Precise residency time supports effective molecular destruction performance.
WASTE ENTERS
STEP 01 - INPUT
Contaminated
liquid waste
PFAS-contaminated water, concentrated leachate, AFFF firefighting foam, and industrial liquid waste. The FRG™ system is engineered to process complex, multi-compound waste streams.
Up to 4,000 L/day (Gen 5) · Concentrated liquid waste
INTO
FEEDS
DESTRUCTION OCCURS HERE
STEP 02 - MOLECULAR DESTRUCTION
>5,000°C
reaction zone
Ultra-high heat, broad-spectrum radiant energy, and reactive free radicals interact within a controlled conversion zone to drive rapid bond cleavage, severing the carbon-fluorine bond at the molecular level in seconds.
>5,000°C · <5 second process · >99.99% destruction
CLEAN OUTPUT
PRODUCES
STEP 03 - OUTPUT
Stable, usable
byproducts
Hydrogen-rich gas and potassium fluoride (KF), a stable inorganic fluoride salt with established industrial applications, are produced within the reaction zone as stable final outputs of the molecular destruction process.
H₂-rich gas ·
Potassium fluoride (KF)
WASTE ENTERS
STEP 01 - INPUT
Contaminated
liquid waste
PFAS-contaminated water, concentrated leachate, AFFF firefighting foam, and industrial liquid waste. The FRG™ system is engineered to process complex, multi-compound waste streams.
Up to 4,000 L/day (Gen 5) · Concentrated liquid waste
INTO
FEEDS
DESTRUCTION OCCURS HERE
STEP 02 - MOLECULAR DESTRUCTION
>5,000°C
reaction zone
Ultra-high heat, broad-spectrum radiant energy, and reactive free radicals interact within a controlled conversion zone to drive rapid bond cleavage, severing the carbon-fluorine bond at the molecular level in seconds.
>5,000°C · <5 second process · >99.99% destruction
CLEAN OUTPUT
PRODUCES
STEP 03 - OUTPUT
Stable, usable
byproducts
Hydrogen-rich gas and potassium fluoride (KF), a stable inorganic fluoride salt with established industrial applications, are produced within the reaction zone as stable final outputs of the molecular destruction process.
H₂-rich gas ·
Potassium fluoride (KF)
WASTE ENTERS
STEP 01 - INPUT
Contaminated
liquid waste
PFAS-contaminated water, concentrated leachate, AFFF firefighting foam, and industrial liquid waste. The FRG™ system is engineered to process complex, multi-compound waste streams.
Up to 4,000 L/day (Gen 5) · Concentrated liquid waste
INTO
FEEDS
DESTRUCTION OCCURS HERE
STEP 02 - MOLECULAR DESTRUCTION
>5,000°C
reaction zone
Ultra-high heat, broad-spectrum radiant energy, and reactive free radicals interact within a controlled conversion zone to drive rapid bond cleavage, severing the carbon-fluorine bond at the molecular level in seconds.
>5,000°C · <5 second process · >99.99% destruction
CLEAN OUTPUT
PRODUCES
STEP 03 - OUTPUT
Stable, usable
byproducts
Hydrogen-rich gas and potassium fluoride (KF), a stable inorganic fluoride salt with established industrial applications, are produced within the reaction zone as stable final outputs of the molecular destruction process.
H₂-rich gas ·
Potassium fluoride (KF)
WHAT HAPPENS INSIDE THE REACTION ZONE
WHAT HAPPENS INSIDE THE REACTION ZONE
01
Heat
Ultra-high heat initiates molecular bond breakdown within PFAS compounds.
02
Light
Photolytic energy contributes to molecular bond destabilization during the destruction process.
03
Radicals
Free radicals accelerate the bond cleavage reactions required for molecular destruction.
04
Time
Precise residency time supports effective molecular destruction performance.
WASTE ENTERS
DESTRUCTION OCCURS HERE
CLEAN OUTPUT
STEP 01 - INPUT
Contaminated
liquid waste
PFAS-contaminated water, concentrated leachate, AFFF firefighting foam, and industrial liquid waste. The FRG™ system is engineered to process complex, multi-compound waste streams.
Up to 4,000 L/day (Gen 5) ·
Concentrated liquid waste
INTO
FEEDS
STEP 02 - MOLECULAR DESTRUCTION
>5,000°C
reaction zone
Ultra-high heat, broad-spectrum radiant energy, and reactive free radicals interact within a controlled conversion zone to drive rapid bond cleavage, severing the carbon-fluorine bond at the molecular level in seconds.
>5,000°C · <5 second process · >99.99% destruction
PRODUCES
STEP 03 - OUTPUT
Stable, usable
byproducts
Hydrogen-rich gas and potassium fluoride (KF), a stable inorganic fluoride salt with established industrial applications, are produced within the reaction zone as stable final outputs of the molecular destruction process.
H₂-rich gas ·
Potassium fluoride (KF)
WHAT HAPPENS INSIDE THE REACTION ZONE
01
Heat
Ultra-high heat initiates molecular bond breakdown within PFAS compounds.
02
Light
Photolytic energy contributes to molecular bond destabilization during the destruction process.
03
Radicals
Free radicals accelerate the bond cleavage reactions required for molecular destruction.
04
Time
Precise residency time supports effective molecular destruction performance.
Modular design
Commercial deployment.
Commercial deployment.
Commercial deployment.
FRG™ is engineered for commercial deployment across industrial and government applications requiring permanent PFAS destruction. Operating at ambient pressure within a modular, containerized platform, FRG™ can be deployed near major PFAS liability sources through licensed operators and strategic deployment partners.
FRG™ is engineered for commercial deployment across industrial and government applications requiring permanent PFAS destruction. Operating at ambient pressure within a modular, containerized platform, FRG™ can be deployed near major PFAS liability sources through licensed operators and strategic deployment partners.
TARGET APPLICATIONS
01 AFFF Destruction
01 AFFF Destruction
02 Military Installations
02 Military Installations
03 Airports
03 Airports
04 Industrial Hazardous Waste
04 Industrial Hazardous Waste
05 Waste Management Operations
05 Waste Management Operations
FRG™ Gen 5 - DEPLOYMENT-READY
FRG™ Gen 5 - DEPLOYMENT-READY
FRG™ Gen 5 - DEPLOYMENT-READY
Competitive position
FRG™ versus conventional approaches.
FRG™ versus conventional approaches.
FRG™ versus conventional approaches.
CONVENTIONAL APPROACHES
CONVENTIONAL APPROACHES
Often generate secondary waste streams that concentrate rather than eliminate contamination
Can require additional downstream handling of concentrated PFAS material
May face limitations when processing complex or high-concentration PFAS streams such as AFFF
FRG™
✓ Permanent molecular destruction approach
✓ Processes complex high-concentration PFAS streams
✓ Commercial-scale containerized platform
✓ Ambient-pressure operation
READY TO EXPLORE A SOLUTION?
Engineered for permanent
PFAS destruction.
Engineered for permanent
PFAS destruction.
Engineered for permanent
PFAS destruction.
Developed through five generations of continuous technology evolution,
with next-generation commercial deployment systems currently under development.
Developed through five generations of continuous technology evolution, with next-generation commercial deployment systems currently under development.
Developed through five generations of continuous technology evolution, with next-generation commercial deployment systems currently under development.
Developed through five generations of continuous technology evolution, with next-generation commercial deployment systems currently under development.