Per- and polyfluoroalkyl substances destruction in 2026: overview
PFAS destruction breaks down persistent fluorinated compounds, ideally removing their fluorine content rather than transferring contamination into another waste stream. Methods include heat, electrochemistry, light-driven reactions, plasma and cavitation. Each must contend with strong carbon–fluorine bonds, diverse PFAS structures and complex waste mixtures. A key test is whether a process achieves deep defluorination while controlling energy use, byproducts and residual toxicity.
Recent work is pushing toward integrated treatment and recovery: a September 2026 study from University of Alberta, Drexel University and RWTH Aachen paired osmotic concentration with electrochemical mineralization in conductive MXene membranes. Other studies examined fluoride recovery through electrochemical and enzymatic routes, while a flow-through multi-frequency sonicator addressed capacity limits in acoustic treatment. Commercial activity is also advancing: Claros Technologies raised $55 million in July 2026 to expand its destruction technology, laboratory services and manufacturing capacity.
- 1Concentrate, then destroy: Systems that combine concentration with destruction aim to treat dilute PFAS streams more efficiently without leaving a concentrated waste problem behind.
- 2Fluorine as a resource: Research into fluoride recovery reframes defluorination as both a destruction goal and a potential route to recover useful fluorine.
- 3Scale tests the chemistry: Flow-through reactors and treatment of real waste streams put mass transfer, energy demand and incomplete breakdown under practical scrutiny.
Top organizations working on per- and polyfluoroalkyl substances destruction
Ranked by Linknovate activity score · last 24 monthsThe activity score adds up the relevance of every patent, publication, grant and news item linking an organization to per- and polyfluoroalkyl substances destruction. Showing 7 of 797 organizations.
| # | Organization | Approach | Signals (24 mo) | Momentum | Why it matters |
|---|---|---|---|---|---|
| 1 |
Nanjing University
Research · China |
Photochemical destruction | PAT 1 · PUB 28 NEWS 9 |
+146% | Recently, researchers associated with the university investigated alumina surface complexation in photocatalytic PFOA degradation, alongside earlier work on hydrated-electron reduction and plasma treatment. |
| 2 |
Claros Technologies Inc.
Startup · United States |
Photochemical destruction | PAT 23 · NEWS 22 | +50% | Recently, Claros raised $55 million to expand its PFAS-destruction technology, laboratory services and manufacturing capacity. It has also demonstrated a high-throughput destruction process at pilot scale. |
| 3 |
Chinese Academy of Sciences CAS
Research · China |
Electrochemical oxidation | PUB 41 · NEWS 3 | +114% | Recently, researchers associated with the academy examined PFOA degradation on boron-doped diamond electrodes and electrochemical defluorination with fluoride recovery. |
| 4 |
Tongji University
Research · China |
Thermal treatment | PUB 34 | +62% | Researchers at the university have studied PFAS mineralization using molten alkali and microwave heating, and have reviewed destruction technologies. |
| 5 |
University of Aarhus
Research · Denmark |
Photochemical destruction | PUB 20 · NEWS 3 | +30% | Recently, work associated with the university examined photocatalytic PFOA degradation on alumina. Its other research covers ultrasound-assisted electrochemistry and hydrothermal treatment of PFAS-bearing sludge. |
| 6 |
University of California
Research · United States |
Photochemical destruction | PUB 17 · NEWS 54 | -84% | Recently, researchers associated with the university analyzed PFAS degradation pathways under UV irradiation. Related work examines visible-light photodegradation and UV/sulfite treatment of concentrated waste streams. |
| 7 |
Nankai University
Research · China |
Electrochemical oxidation | PUB 26 | +60% | Researchers at the university study chemical and radical-driven PFAS degradation, including electrochemical enhancement of PFOA treatment using nitrogen-containing compounds. |
| 8 | ··Hidden organizationCompany | Approach | PAT 00 · PUB 00 GRANTS 0 · NEWS 00 | +00% | Available to registered users. |
| 9 | ··Hidden organizationCompany | Approach | PAT 00 · PUB 00 GRANTS 0 · NEWS 00 | +00% | Available to registered users. |
| 10 | ··Hidden organizationCompany | Approach | PAT 00 · PUB 00 GRANTS 0 · NEWS 00 | +00% | Available to registered users. |
Startups to watch and leading research centers
Startups to watch 11 total
Claros Technologies Inc.United StatesRecently, Claros raised $55 million to expand its PFAS-destruction technology, laboratory services and manufacturing capacity. It has also demonstrated a high-throughput destruction process at pilot scale.
Aquagga Inc.United StatesAquagga develops hydrothermal alkaline treatment (HALT) for end-of-life PFAS destruction and has showcased the process for contaminated materials and waste streams.
AA PlasmaRussiaAA Plasma develops cold-plasma components and is linked to gliding-arc plasma research and a patent for treating PFAS-laden solids using plasma-activated fluid.- ··Hidden startupCountryAvailable to registered users, with funding and founding year.
- ··Hidden startupCountryAvailable to registered users, with funding and founding year.
Leading research institutions 692 total
Nanjing UniversityChinaRecently, researchers associated with the university investigated alumina surface complexation in photocatalytic PFOA degradation, alongside earlier work on hydrated-electron reduction and plasma treatment.
Chinese Academy of Sciences CASChinaRecently, researchers associated with the academy examined PFOA degradation on boron-doped diamond electrodes and electrochemical defluorination with fluoride recovery.
Tongji UniversityChinaResearchers at the university have studied PFAS mineralization using molten alkali and microwave heating, and have reviewed destruction technologies.- ··Hidden research institutionCountryAvailable to registered users, with their key researchers.
- ··Hidden research institutionCountryAvailable to registered users, with their key researchers.
Where per- and polyfluoroalkyl substances destruction innovation happens
Share of documents with at least one organization from each country.
Open the interactive map with all 797 organizationsMain technical approaches
Last 24 months| Approach | What it is | Documents | Leading organizations |
|---|---|---|---|
| Thermal treatment | Heat-based processes can treat concentrated wastes and solids, but energy demand and control of emissions and byproducts remain important trade-offs. | 97 |
U.S. Environmental Protection Agency, Rice University, Chinese Academy of Sciences CAS |
| Supercritical water oxidation | This process oxidizes PFAS in water under supercritical conditions, but high-pressure equipment, corrosion and energy demands complicate deployment. | 103 |
374Water Inc., U.S. Environmental Protection Agency, Revive Environmental |
| Electrochemical oxidation | Electrodes generate reactive species or drive direct breakdown, offering controllable treatment but facing mass-transfer limits, electrode wear and incomplete defluorination. | 159 |
U.S. Environmental Protection Agency, Nankai University, Beijing Normal University |
| Photochemical destruction | Light-driven reactions use photons, electrons or catalysts to break down PFAS, but light penetration and reaction efficiency can limit treatment of complex streams. | 230 |
Nanjing University, Harbin Institute of Technology, University of Aarhus |
| Plasma treatment | Plasma creates energetic electrons and reactive species that can degrade PFAS in water, while energy use and scale-up remain challenges. | 92 |
Clarkson University, Wuhan University of Science and Technology, Hubei University of Technology |
| Cavitation and mechanochemistry | Cavitation or mechanical force drives PFAS breakdown in liquids or solids, but throughput and energy efficiency can constrain wider use. | 56 |
New Jersey Institute of Technology, Clarkson University, Nankai University |
Emerging trends
Last 12 months vs previous 36 monthsTerms whose frequency in the last 12 months grew the most compared with the previous 36 months.
Funding and investment
Recent funding rounds
Recorded grants total $83,741,897 across 96 awards since 2020. The available funding-round data is not a dependable measure of investment specifically directed to PFAS destruction.
Patent landscape
Top patent holders · last 24 monthsRecent developments
Latest news, duplicates removed- Sep 2026Researchers at the University of California, Riverside (UCR) have identified the chemical reactions involved when ultraviolet (UV) light is used to destroy PFAS in contaminated water. The work provides a clearer picture…Innovation News Network
- Jul 2026Florham Park, New Jersey-based Reworld says results from a recent United States Environmental Protection Agency (EPA) conducted at a Reworld waste-to-energy facility “validate the effectiveness” of its ReAssure per- and…Waste Today
- Jul 2026COLUMBUS, Ohio, July 07, 2026 (GLOBE NEWSWIRE) -- U.S. Environmental Protection Agency (EPA) Administrator Lee Zeldin was joined today by U.S. Senator Jon Husted (R-OH), and EPA Region 5 Administrator Anne Vogel, Ohio…GlobeNewswire: Calendar Of Events
- Jul 2026Researchers have developed a new biochar-based material that could significantly improve PFOS removal by both capturing the persistent contaminant from water and breaking it down using ultraviolet light. The technology…Innovation News Network
- Month 20XXHidden developmentAvailable to registered users with alerts enabled.
Frequently asked questions about per- and polyfluoroalkyl substances destruction
What companies are working on PFAS destruction?
PFAS destruction companies in the data include Claros Technologies Inc., 374Water Inc., Revive Environmental and Perma fix Environmental Services. Claros develops photochemical destruction, while 374Water and Revive are associated with supercritical water oxidation. These firms illustrate different commercialization routes, from UV-based treatment to high-temperature processing of concentrated waste.
Which PFAS destruction startups are the most promising in 2026?
The startup set includes 11 companies, among them Claros Technologies Inc., Aquagga Inc. and AA Plasma. Claros is expanding its photochemical technology and manufacturing capacity; Aquagga develops hydrothermal alkaline treatment; and AA Plasma is linked to cold-plasma components. These examples represent distinct approaches, not a definitive ranking of commercial prospects.
Which universities and research centers lead PFAS destruction research?
Nanjing University, Chinese Academy of Sciences CAS and Tongji University are among the leading research organizations in the data. Their work spans photochemical degradation, electrochemical defluorination and thermal mineralization. Other active groups include Rice University, University of Aarhus and New Jersey Institute of Technology, with research covering catalysts, hydrothermal treatment and sonochemical reactors.
How much funding has PFAS destruction received?
Recorded grants total $83,741,897 across 96 awards since 2020. This figure reflects the grant records associated with the field, not a complete measure of all public or private investment. The funding-round records include transactions that are not clearly attributable to PFAS destruction, so they should not be treated as a reliable sector investment total.
Who holds the most PFAS destruction patents, and is patent activity growing?
Claros Technologies Inc. leads the listed patent holders with 23 patents. Across the 24-month window, 138 patents were recorded, and patent activity declined 18.4% compared with the previous 12 months. The contrast between Claros’s portfolio and the overall trend suggests that individual companies may continue to build intellectual property even as aggregate patenting slows.
How mature is PFAS destruction?
PFAS destruction is moving from laboratory research toward commercial treatment, but maturity varies by method and waste stream. The data records 686 publications in the last year, up 16.9%, alongside commercial activity from Claros Technologies, 374Water and Revive Environmental. Field trials and facility operations are important signals, but performance on complex feeds, energy use and verification of full defluorination remain central challenges.
What are the latest developments in PFAS destruction?
Recent developments include conductive MXene membranes that couple osmotic concentration with electrochemical mineralization, reported in September 2026, and research on electrochemical and enzymatic fluoride recovery. In August 2026, 374Water and Arcadis received a Department of Defense Success Memo for AirSCWO destruction services. These advances point toward integrated treatment, resource recovery and deployment on real waste streams.
What are the main approaches to PFAS destruction, and how do they differ?
The main approaches are thermal treatment, supercritical water oxidation, electrochemical oxidation, photochemical destruction, plasma treatment, and cavitation or mechanochemistry. They differ in how they deliver energy and reactive conditions: heat and pressure suit concentrated wastes, while electrodes, light and plasma target chemical breakdown in liquid streams. Cavitation and mechanochemistry can address liquid or solid materials, but scale and energy efficiency remain concerns.
What are the applications of PFAS destruction?
Applications include AFFF stockpiles, biosolids and sewage sludge, contaminated soil and groundwater, industrial waste streams, landfill leachate and water-treatment residuals. AFFF stockpiles are the largest listed application area, with 252 documents; biosolids and sewage sludge have 163. Treatment choice depends on the waste’s concentration, physical form and composition, as well as whether it can be transported to a destruction facility.
Which countries lead PFAS destruction?
The United States leads the country breakdown with 3,846 documents, followed by China with 1,961. The United Kingdom, Germany and Japan are also active, with 962, 922 and 608 documents respectively. These figures indicate where activity is concentrated in the available records, but do not by themselves measure technology performance or commercial deployment.