Novel chlorine dioxide (ClO2) formulations that produce disinfectant without acids, enabling safer sprays, wipes, laundry additives, and a portable sterilizer. Effective at 1-100 ppm versus 52,500 ppm for bleach, these EPA- and FDA-approved chemistries kill C. difficile spores and are ready for commercialization with a consumer products partner.
This suite of novel chlorine dioxide (ClO2) technologies offers safer and more effective alternatives to traditional disinfectants such as bleach and quaternary ammonium compounds ("Quats"). The portfolio includes D-FENS, PCS (Portable Chemical Sterilizer), CoD (Compartment of Defense packaging), D-FEND ALL spray, and self-decontaminating textiles. Together, they address cleaning, sanitizing, disinfecting, and sterilizing needs across consumer, healthcare, military, and humanitarian applications. ClO2 is effective at very low concentrations (1-100 ppm) compared to bleach (52,500 ppm) and Quat-based wipes (3,600 ppm), and is approved by both the FDA and EPA. The formulations use novel redox chemistry to produce ClO2 without acids, reducing corrosion, hazards, and disposal concerns.
Key features and technologies:
All five technologies have been tested and validated in laboratory settings using chemical and microbiological methods, including microbial indicators and live cultures. The next phase focuses on commercialization: sourcing reagents, selecting packaging, integrating with existing product platforms, initiating regulatory approval, assembling and testing prototypes, and conducting end-user evaluations. These technologies are ready for co-development and licensing with a consumer products company to bring new sprays, wipes, laundry products, and sterilizers to market.
Brandeis University is a private research university in Waltham, Massachusetts, combining a liberal‑arts ethos with discovery‑driven research across a broad range of fields. Industry partners engage through a corporate relations function that structures sponsored research, data‑sharing, and master agreements aligned to timelines and IP. Shared core facilities and advanced instrumentation are available through collaboration or service models, with professional staff and user workflows. Proximity to Greater Boston’s innovation cluster links faculty to startups, venture networks, and major corporate R&D hubs. Research is backed by competitive federal funding from NIH, NSF, and DOE, and a technology transfer office supports invention disclosure, IP, licensing, and startup formation.