An antimicrobial composition comprising: a) C2-C8 alkylated polyvinylpyrrolidone polymer; and b) biocidal agent selected from the group consisting of quaternary ammonium compounds, chlorohexidine salts, polymeric biguanides, organic acids, hydrogen peroxide, tertiary alkyl amines, iodophors and mixtures thereof.

The disclosed technology provides thermoplastic polyurethane compositions having antimicrobial properties while still maintaining good physical properties and good non-fouling properties, methods of making the same, and articles, including medical devices, made from such compositions. The disclosed technology includes a process of making an antimicrobial polymer composition, where the process includes mixing an antimicrobial additive into a base polymer and further includes mixing in a non-fouling additive, where the antimicrobial additive is chemically held in the composition and the antimicrobial and non-fouling additives do not negatively impact each other's effectiveness.

The present invention relates a deodorizing catalyst including a copper-manganese-based composite oxide, zeolite, and activated carbon.

The invention relates to compositions for use in the treatment or prevention of pathogenic infections, rosacea, eczema and psoriasis in humans or animals. The compositions of the invention are also useful in the healing of wounds in a human or animal, and for killing or inactivating viruses on a surface.

A system and method for cleaning, rinsing, and sanitizing a container is disclosed. The system has a sanitizing agent chamber for storing a sanitizing agent, the one or more solution chambers in fluid communication with the container, a pump in fluid commination with the sanitizing agent, wherein the pump is in communication with a gas, and at least one spray nozzle fluidly connected to the at least one solution chamber via a conduit positioned within the container, wherein the spray nozzle comprises a housing inside which the sanitizing agent is mixed at pressure with the gas to disperse the sanitizing agent and gas mixture into the container for sanitizing the container.

A disinfectant fog dispensing container and system includes a cylindrical container and a transparent widow for viewing the amount of fluid in the container. The container further includes a fill port on the side of the container. The fill port provides access to an interior of the container and allows the user to fill the container with fluid therein which will then be dispensed as fog. Additionally, the system includes a battery powered rotating base wherein the container will rotate and dispense the contents of the container in an enclosed area. The enclosed area may include locations such as a living room, a classroom, or a vehicle.

Method that allows surfaces in interior spaces or technical equipments to be cleaned, characterised in that it comprises at least the following step: —the targeted atomization on the surfaces of a liquid with spores of benign bacteria on all or certain types of surfaces by means of an electrically and/or pneumatically powered atomizer, while the space remains accessible to people and animals, with the purpose of speeding up the cleaning of interior spaces and of technical equipments, lowering the cleaning frequency, and lowering the dust deposit.

The present invention relates to a kit for chlorine dioxide fumigation, a method for manufacturing same, and a method for using same. When the kit of the present invention is used, a high concentration of chlorine dioxide can be generated within a short time period without combustion and explosion. In addition, the kit is conveniently produced and packed as compared to existing disinfection kits, is easy to use, and produces a large amount of chlorine dioxide gas which is safer and has high purity, and thus can be effectively used in space disinfection.

An improved technology for inactivation of viruses, for example the SARS-CoV-2 virus that is causing the Covid-19 pandemic, is described. The technology can include a device that includes a substrate coated in a polymer that is infused with a pathogen inactivating material. In various embodiments, at a given time, a portion of the pathogen inactivating material is exposed to the environment, and the device is configured to periodically or intermittently expose additional pathogen inactivating material to the environment. For example, the polymer can be ablative or sacrificial.

An improved technology for inactivation of viruses, for example the SARS-CoV-2 virus that is causing the Covid-19 pandemic, is described. The technology can include a device that includes a substrate coated in a polymer that is infused with a pathogen inactivating material. In various embodiments, at a given time, a portion of the pathogen inactivating material is exposed to the environment, and the device is configured to periodically or intermittently expose additional pathogen inactivating material to the environment. For example, the polymer can be ablative or sacrificial.