Antiviral andSustainable Coating on Textiles by Moringa oleifera Protein for Personal ProtectiveEquipment Applications

Antiviral personal protective equipment (PPE) (e.g., face masks) could extend the service life of single-use PPE and reduce the pollution of single-use plastics. However, the prevalence of nanomaterials and chemical-embedded antiviral agents can impose environmental and health risks when leached. Here, we developed a highly effective and nontoxic antiviral coating on commercial textiles using natural Moringa oleifera seed proteins. A simple dip coating method of polyester textiles using seed water extracts was effective because of the rapid electrostatic attraction between cationic proteins and negatively charged polyesters. The coating time and seed usage were minimized by studying the adsorption of protein onto textiles under varying times, protein-to-textile ratios, and protein concentrations. In only 15 min, the optimized protein coating achieved a ∼5.4 log<sub>10</sub> reduction of infectivity of murine hepatitis virus, a SARS-CoV-2 surrogate. Such performance is better than or comparable to previously reported synthetic materials. The coated textile remained effective after repeated viral exposure, dry storage, and UV exposure and can be regenerated. This is the first demonstration of Moringa protein coating on textiles for broad antiviral PPE applications (respirators and gowns) controlling β-coronaviruses. Such a coating can also be applied as a novel disinfection agent for high-touch surfaces.

Publication Details

Journal
Figshare
Published
2025-03-17
DOI
https://doi.org/10.1021/acsestengg.4c00903.s001
Primary Topic
Moringa oleifera research and applications
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article
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Antiviral andSustainable Coating on Textiles by Moringa oleifera Protein for Personal ProtectiveEquipment Applications

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Moringa oleifera research and applications
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Antiviral andSustainable Coating on Textiles by Moringa oleifera Protein for Personal ProtectiveEquipment Applications

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Abstract

Antiviral personal protective equipment (PPE) (e.g., face masks) could extend the service life of single-use PPE and reduce the pollution of single-use plastics. However, the prevalence of nanomaterials and chemical-embedded antiviral agents can impose environmental and health risks when leached. Here, we developed a highly effective and nontoxic antiviral coating on commercial textiles using natural Moringa oleifera seed proteins. A simple dip coating method of polyester textiles using seed water extracts was effective because of the rapid electrostatic attraction between cationic proteins and negatively charged polyesters. The coating time and seed usage were minimized by studying the adsorption of protein onto textiles under varying times, protein-to-textile ratios, and protein concentrations. In only 15 min, the optimized protein coating achieved a ∼5.4 log<sub>10</sub> reduction of infectivity of murine hepatitis virus, a SARS-CoV-2 surrogate. Such performance is better than or comparable to previously reported synthetic materials. The coated textile remained effective after repeated viral exposure, dry storage, and UV exposure and can be regenerated. This is the first demonstration of Moringa protein coating on textiles for broad antiviral PPE applications (respirators and gowns) controlling β-coronaviruses. Such a coating can also be applied as a novel disinfection agent for high-touch surfaces.

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Moringa oleifera research and applications
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