The Ohio State University
Self-supported 3D nanogrids working under sunlight or ordinary room light.
Get the Discover digest
Receive a weekly email digest of the latest advanced oxidation technologies added by the network.Get the Discover digest
Receive a weekly email digest of the latest advanced oxidation technologies added by the network.Updated Sept 28, 2026
Advanced oxidation processes covers destroying a pollutant by making a radical, not by capturing it. On Halo, the solutions cover photocatalysts driven by visible light, catalysts and oxidant generation, mercury-free UV, and plasma in the water. Sign up to search the full network and post your specific need.
The Ohio State University
Self-supported 3D nanogrids working under sunlight or ordinary room light.
Sub-nanometer metal co-catalysts on mesoporous titania, 30 times faster.
Adelphi University
A Z-scheme film of tungsten oxide, noble metal and carbon nitride.
WM
Kansas State University
Titania and graphene oxide assembled into supraparticles, made at scale.
Microwave treatment of off-the-shelf P25 titania to make it visible-active.
Tel Aviv University
Protein-driven one-pot synthesis, producing sprays, gels and scaffolds.
LM
Northeastern University
Titania nanotubes giving 99.99% kill on E. coli with less material used.
Metal-free carbon nitride paired with bioretention on urban runoff.
UO
University of Alberta
A floating photocatalyst degrading 91% of naphthenic acids, unstirred.
Carnegie Mellon University
Peroxidase mimics that activate peroxide or chloramine at trace concentrations.
The Ohio State University
A fuel-cell reactor making peroxide at whatever concentration is wanted.
Florida Gulf Coast University
Peroxide paired with lysine, silver or ascorbic acid and screened for the combination that works.
De Montfort University
An adsorbent textile that becomes a catalyst once a transition metal is loaded.
Sign up free to search the full network and post your specific need.
Already have an account?
Universities, startups, and suppliers with solutions in advanced oxidation processes.
Advanced oxidation organizationsResearchers and inventors advancing advanced oxidation technologies.
Advanced oxidation expertsNine of the entries on Halo are photocatalysts, and almost all of them have been pushed into the visible spectrum with doping, metal co-catalysts or Z-scheme films. Around them are two plasma reactors, three mercury-free UV systems, and a set of catalysts that make the oxidant on the spot. On Halo it spans four groups, including photocatalysts driven by visible light, catalysts and oxidant generation, and mercury-free UV.
Stage of development. Work on advanced oxidation processes on Halo comes mostly from university programs. 35% of the solutions are in market. The Ohio State University has the most, followed by Tel Aviv University. Co-development and sponsored research are the usual partnering routes, and about 52% of the solutions that state terms offer pilot engagements.
Everything has been pushed into visible light. Nine photocatalysts, and eight of them state how they escaped the UV requirement: chromium doping, sub-nanometer metal co-catalysts, a Z-scheme of tungsten oxide and carbon nitride, microwave surface treatment of commercial P25 titania. One floats on the water and needs no stirring at all. UV lamps cost power and titania only absorbs a few percent of sunlight, and that arithmetic shapes the whole cluster.
Making the oxidant where it is used. Four entries do not supply an oxidant, they generate one: a fuel-cell reactor producing hydrogen peroxide at a tunable concentration, peroxidase mimics that activate peroxide at trace levels, a textile that turns catalytic once a transition metal is loaded onto it. Shipping and storing concentrated peroxide is the cost these avoid.
Early, and mostly academic. Fourteen of eighteen entries sit at TRL 4 or lower, and almost all are university work. The two commercial exceptions are both plasma reactors, one claiming over 99% sterilization in seawater and freshwater, the other destroying PFAS from drinking water through to concentrated leachate. Radical chemistry works in a beaker long before it works in a plant.
Advanced oxidation processes covers destroying a pollutant by generating a radical, not by capturing it. It spans photocatalysts activated by visible light or sunlight, plasma reactors that oxidize in the water itself, mercury-free UV built around LEDs and excilamps, and the catalysts and electrochemical routes that produce the oxidant where it is needed. Utilities, industrial operators and appliance makers are the buyers.
Four examples of advanced oxidation technologies on Halo include:
The most recently updated advanced oxidation technologies on Halo include:
There are 104 organizations with advanced oxidation technologies on Halo, 31 of them universities and research institutions. Among them are The Ohio State University, Flinders University, and Adelphi University. Most offer co-development or sponsored research. Sign up to see every organization working in the area and to send them your specific need.
Browsing advanced oxidation technologies on Halo is free. Sign up to search the full network and save the ones you want. Post your specific need to get exact matches. Organizations reply directly on the platform.
Confirm digest type