A two-part spray disinfection system using dilute hydrogen peroxide and iron ion solutions that combine at the nozzle to generate hydroxyl radicals via the photo-Fenton reaction. Light enhances reactivity, enabling rapid, broad-spectrum kill of bacteria and viruses on household surfaces without harsh chemicals.
This solution is a residential disinfection technology based on the photo-Fenton reaction, an advanced oxidation process that produces hydroxyl radicals when hydrogen peroxide reacts with iron ions. Because hydroxyl radicals are non-selective oxidizers, they effectively destroy a wide range of microorganisms, including bacteria and viruses, on household surfaces such as countertops, dishes, tables, and clothing. The technology is delivered through a dual-chamber spray bottle that keeps the two aqueous solutions separate until the moment of use, then mixes them into a single stream at the nozzle to generate hydroxyl radicals on contact.
The use of light, whether natural daylight or ambient indoor lighting, enhances the reactivity and longevity of the hydroxyl radicals, extending the disinfecting action beyond what conventional Fenton chemistry provides. This approach offers a chemical alternative to traditional household disinfectants, with potential applications in homes, healthcare settings, schools, and other environments where rapid, broad-spectrum surface disinfection is desired.
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This technology is at an early research and concept-validation stage. The underlying photo-Fenton chemistry is well established in the peer-reviewed literature, with thousands of publications and approximately 70 studies specifically examining Fenton reagent as a disinfectant, primarily for water treatment. However, no commercial product based on this process for residential surface disinfection has been identified.
The next phase of development involves designing or sourcing an appropriate dual-chamber spray bottle, optimizing solution concentrations and contact times on representative household surfaces, and validating performance under varied environmental conditions. Once these laboratory validations are complete, the technology will be positioned for prototype development and field testing in real-world residential settings.
Miami University is a comprehensive public research university in Oxford, Ohio, known for a strong undergraduate focus alongside applied, collaborative research. Industry engagement centers on co-ops and internships, industry-sponsored capstone design, and open maker and prototyping spaces that support rapid iteration with faculty and student teams. Proximity to Cincinnati and Dayton puts partners near Fortune 500 headquarters, advanced manufacturing suppliers, and a dense logistics network, enabling frequent site visits and efficient scale-up. Research is supported by competitive federal and state funding, including awards from the National Science Foundation and the National Institutes of Health. A dedicated technology transfer office supports IP, licensing, and startup formation, linking companies to regional commercialization resources.