PFAS Destruction Technologies & Providers
Every major way to actually destroy PFAS, and the companies building each one, with their commercial stage and known contracts. A factual directory, not a ranking. Where independent testing differs from a vendor's marketing figure, the entry says so.
Destruction is not the same as separation.
PFAS resist breakdown because of the carbon–fluorine bond, one of the strongest in chemistry. Destruction technologies break that bond, mineralizing PFAS into fluoride, CO₂, and salts. Separation technologies, foam fractionation, activated carbon, ion exchange, only pull PFAS out of water and concentrate it into a smaller waste stream that still needs to be destroyed. Both matter, but only one ends the problem. This directory marks which is which.
Supercritical water oxidation (SCWO)Destroys PFAS
PFAS Annihilator®, water above its critical point (374°C) oxidizes and mineralizes PFAS; closed-loop, non-combustion.
AirSCWO, supercritical water oxidation completing in seconds to water, minerals and vent gas; modular skids.
Industrial SCWO (PERSES™), supercritical oxidation at ~650°C / 4000 psi; core tech fielded since 2012.
Electrochemical oxidationDestroys PFAS
Electrochemical oxidation (Octa System), current through the liquid generates radicals that mineralize PFAS; mobile + stationary.
electraCLEAR, ambient-temperature/pressure electro-oxidation, sold as treatment-as-a-service.
Electrochemical oxidation with boron-doped diamond electrodes; landfill-leachate concentrate.
PlasmaDestroys PFAS
Plasma vortex, a stretched plasma arc through a water vortex; paired with upstream concentration.
Enhanced-contact non-thermal plasma reactor; gas bubbles concentrate PFAS where plasma destroys it.
UV / photochemicalDestroys PFAS
PFASigator. UV-driven photo-activated reductive defluorination releases hydrated electrons that cleave C–F bonds; on-site.
ClarosTechUV, proprietary UV-photochemical destruction; claims >99.99% including ultra-short-chain.
UV / sulfite advanced reduction (hydrated electrons) on mobile trailers; developed with UC Riverside.
Incineration / thermalDestroys PFAS
Rotary-kiln hazardous-waste incineration (~1,000°C+); burns AFFF concentrate.
High-temperature hazardous-waste incineration; tested on AFFF, soil and spent GAC.
Rotary-kiln incineration; has burned AFFF since 2019.
Aggregate kiln that co-burned AFFF ~2018–2019.
Pyrolysis / gasificationDestroys PFAS
Oxygen-free pyrolysis of biosolids + downstream thermal oxidizer → biochar.
Fluidized-bed gasification of biosolids → bio-ash + energy.
Thermal reactivation of spent granular activated carbon (~1,750°F) with off-gas abatement.
Electron beam / mechanochemical / labDestroys PFAS
Particle accelerator fires high-energy electrons into PFAS water; radicals cleave C–F bonds.
High-energy ball milling grinds PFAS-laden solids; collisions cleave C–F bonds at ambient conditions.
Mild-temperature (80–120°C) chemical degradation; decarboxylation then defluorination.
Separation / concentration (does not destroy)Does not destroy
Surface Active Foam Fractionation, bubbles strip PFAS into a concentrated foamate. Separation only.
Regenerable ion exchange + GAC; concentrates PFAS into a small still-bottoms stream.
Granular activated carbon adsorbs PFAS from water; the loaded carbon is the waste.
DEXSORB engineered cyclodextrin adsorbent + mail-in testing; captures PFAS from water.