A method of facilitating sanitizing interior spaces of an aircraft using a pre-conditioned air (PCA) system. The method comprises cutting an opening in a duct wall of a pre-conditioned air (PCA) supply duct of the PCA system. Further, the method comprises installing a device in the PCA supply duct around the opening, coupling an inlet opening of the device with a device outlet port of a sanitizing device after the installing, wherein a sanitizing agent generator of the sanitizing device generates a sanitizing agent for transferring the sanitizing agent to the inlet opening through the device outlet port. Further, the method comprises injecting the sanitizing agent into the PCA supply duct from an outlet opening of the device based on the transferring. Further, the sanitizing agent mixes with the PCA based on the injecting. Further, the sanitizing agent is supplied to the interior space along with the PCA.

The invention concerns a storage device for cleaning and charging portable X-ray detectors, and an X-ray system comprising such storage device. The storage device comprises a receiving unit for receiving at least one portable X-ray detector, a cleaning unit for cleaning the portable X-ray detector when being received by the receiving unit, and a charging unit for charging the portable X-ray detector, wherein the cleaning unit is configured for mechanically and/or chemically cleaning the portable X-ray detector. Further, the invention concerns a method of cleaning and charging a portable X-ray detector in a storage device.

The invention concerns a storage device for cleaning and charging portable X-ray detectors, and an X-ray system comprising such storage device. The storage device comprises a receiving unit for receiving at least one portable X-ray detector, a cleaning unit for cleaning the portable X-ray detector when being received by the receiving unit, and a charging unit for charging the portable X-ray detector, wherein the cleaning unit is configured for mechanically and/or chemically cleaning the portable X-ray detector. Further, the invention concerns a method of cleaning and charging a portable X-ray detector in a storage device.

A cap sterilization device (50) includes an introduction unit (52), a sterilant spraying unit (53) that sprays a sterilant onto a cap (33) supplied from the introduction unit (52), an air-rinsing unit (54) that subjects the cap (33) onto which the sterilant has been sprayed by the sterilant spraying unit (53) to air-rinsing, and a conveyance guide (70) that is disposed to extend successively through the introduction unit (52), the sterilant spraying unit (53), and the air-rinsing unit (54) and along which the cap (33) is conveyed from the introduction unit (52) toward the air-rinsing unit (54). The air-rinsing unit (54) is provided with an air-rinsing nozzle (83) that supplies hot air to the cap (33). The air-rinsing nozzle (83) is disposed such that a distal end (83a) thereof is in front of a proximal end (83b) thereof in a conveying direction of the conveyance guide (70).

This invention relates to the Chemical Composition for impregnation via spraying on disposal surgical masks and sleeved gowns made from hydrophilic and hydrophobic materials to inactivate bacteria and viruses, comprising of colloidal silver nanoparticles, Isopropanol Alcohol/Ethanol Alcohol Chlorhexidine/Quaternary Ammonium Compound, Peppermint/Spearmint Essential oils and water.

A fine particle sprayer including a nozzle for dispersing a liquid disinfectant into a spray plume of droplets and a means for directing pressurized air below the spray plume to increase droplet transfer efficiency, and above and around the spray plume to prevent errant droplets from drifting toward an operator. A sprayer system includes a sprayer, a housing, and a blower that may be removably attached to the sprayer for generating an air stream below the droplets to improve droplet transfer efficiency.

Systems and methods for decontaminating a watercraft, the system including a water reservoir; a water heater reservoir fluidly connected to the water reservoir for receiving water therefrom, the water heater reservoir being configured to heat water received therein to a temperature greater than an injection temperature; a mixing valve fluidly connected to the water reservoir and the water heater reservoir, the mixing valve being configured to: receive water from the water reservoir and the water heater reservoir, and output water at approximately the injection temperature; and a connection unit fluidly connected to an outlet of the mixing valve, the connection unit being configured for fluidly connecting to an inlet of an internal water conduit of the watercraft and injecting water therein.

Systems and methods for decontaminating a watercraft, the system including a water reservoir; a water heater reservoir fluidly connected to the water reservoir for receiving water therefrom, the water heater reservoir being configured to heat water received therein to a temperature greater than an injection temperature; a mixing valve fluidly connected to the water reservoir and the water heater reservoir, the mixing valve being configured to: receive water from the water reservoir and the water heater reservoir, and output water at approximately the injection temperature; and a connection unit fluidly connected to an outlet of the mixing valve, the connection unit being configured for fluidly connecting to an inlet of an internal water conduit of the watercraft and injecting water therein.

A high temperature food treatment method is disclosed wherein by alternatingly operating between a first final heater (13) and second final heater (23) arranged in parallel on a food processing line (30, 40, 50), it is possible to operate a continuous process, yet significantly reducing the overall downtime of the processing line (30, 40, 50), by performing a cleaning in place process on the final heater (13, 23), not currently being used in the high temperature food treatment process, thereby eliminating or significantly reducing the influence on the processing line (30, 40, 50) downtime by the process elements and/or processing equipment most easily contaminated.

A high temperature food treatment method is disclosed wherein by alternatingly operating between a first final heater (13) and second final heater (23) arranged in parallel on a food processing line (30, 40, 50), it is possible to operate a continuous process, yet significantly reducing the overall downtime of the processing line (30, 40, 50), by performing a cleaning in place process on the final heater (13, 23), not currently being used in the high temperature food treatment process, thereby eliminating or significantly reducing the influence on the processing line (30, 40, 50) downtime by the process elements and/or processing equipment most easily contaminated.