Antiviral Efficacy Testing of a Rechargeable Textile

• Published in: Military medicine Vol. 189; no. Supplement_3; p. 525
• Main Authors: Izadjoo, Mina, Carhart, Kylin, Marcel, Vanessa, Izadjoo, Salman, Swicegood, Faith, Merritt, Casey, Clarke, Geroge
• Format: Journal Article
• Language: English
• Published: England 19.08.2024
• Subjects: Animals; Antiviral Agents - pharmacology; Antiviral Agents - therapeutic use; Cell Line; COVID-19 - prevention & control; COVID-19 - transmission; Dogs; Humans; Influenza A Virus, H1N1 Subtype - drug effects; Personal Protective Equipment - standards; SARS-CoV-2 - drug effects; Textiles
• ISSN: 1930-613X
• DOI: 10.1093/milmed/usae177

In light of the COVID-19 (Coronovirus Disease 2019) pandemic, the use of personal protective equipment has become essential to reduce viral transmission and maintain public health. Viruses, particularly human coronavirus and influenza, pose significant challenges because of their various transmission routes. UMF Corporation's innovation, Micrillon, aims to address these challenges by creating durable, antiviral technology for textiles without harmful chemicals, reducing viral transmission risks. The study followed ISO Standard 18184:2019, testing Micrillon textiles against Human Coronavirus OC43 and H1N1 Influenza A virus using MDCK and HCT-8 cell lines. Cell propagation, viral application, TCID50 (Median Tissue Culture Infectious Dose) testing, and maintenance protocols were rigorously implemented to assess antiviral efficacy. Micrillon gloves, fabrics, and fibers exhibited high antiviral efficacy against both viruses across various contact times. Gloves demonstrated exceptional antiviral activity against H1N1 (99.88%) and OC43 (99.67%) at 120 minutes. Rolled fabrics showed strong efficacy against H1N1 (99.42% at 30 minutes) and OC43 (>97%) at all time points. Bundled fibers displayed substantial efficacy against H1N1 (99.17% at 120 minutes) and OC43 (>98%) at all time points. The study demonstrates that Micrillon technology effectively inhibits viral activity, particularly in gloves, fabrics, and fibers. The innovation not only shows high antiviral efficacy against both Human Coronavirus and Influenza but also promises a reusable, sustainable solution, mitigating environmental impact and reducing the use of harmful chemicals in personal protective equipment. The technology holds promise for widespread use in health care and hospitality, offering a layer of protection while being environmentally conscious. Further development of such technologies can significantly reduce infection risks while minimizing environmental harm.