A retractable sanitizing apparatus for a vehicle including a return station, a sanitizing mechanism positionable between a first sanitizing position, a second sanitizing position, and a stowed position, the sanitizing mechanism positioned at the return station when in the stowed position, and a linkage member connecting the sanitizing mechanism to the return station and positioning the sanitizing mechanism between the first sanitizing position and the second sanitizing position, wherein the sanitizing mechanism sanitizes a surface of the vehicle as the sanitizing mechanism moves from the first sanitizing position to the second sanitizing position and across the surface of the vehicle.

Antiseptic caps that can be used to disinfect and/or protect medical connectors are disclosed herein. In some embodiments, the antiseptic cap can include a first chamber configured to be removably attached to the medical connector. Delivery systems for use with medical articles are also disclosed herein. In some embodiments, the delivery system comprises various dispensing systems for antiseptic caps and/or antiseptic cap holder assemblies. In some embodiments, the delivery system can be configured to permit the medical articles to be individually removable from the delivery system.

Afforded is a spray apparatus that enables the large-volume generation of fine particles having particle diameters minute to a level that can give rise to Brownian motion. A spray apparatus of the present invention is furnished with: an atomization tank 11; an atomizing device 12; a blower 13 that blows air through a blow port 11b; and send-out port 11c; a first baffle plate 14a and a second baffle plate 14b, connected to an inner side of a top panel of the atomization tank. The first baffle plate 14a is furnished with a first edge piece 14ae disposed spaced apart at a predetermined spacing from an inner face of the atomization tank 11 along one widthwise end thereof, and the blow port 11b is arranged to the one widthwise end of a connection piece 14ac between the first baffle plate 14a and the atomization tank 11. The second baffle plate 14b is furnished with a second edge piece 14be disposed spaced apart at a predetermined spacing from the inner face of the atomization tank 11 along the other widthwise end thereof, and the blow port 11c is arranged to the other widthwise end of a connection piece 14bc between the second baffle plate 14b and the atomization tank 11.

The present invention relates to a device for decontaminating persons, having a container having at least one decontamination shower, the container having at least one panel defined in an opening in one of the vertical walls of the container, the panel being mounted to pivot around a horizontal hinge which joins an upper edge of the panel to the container so as to be movable between a first position in which the panel extends substantially vertically and closes off the opening, and a second position in which the panel extends substantially horizontally and forms a ceiling covering a sheltered surface. The decontamination device also includes walls capable of closing off the sheltered surface to form at least one portion of the decontamination device.

The invention relates to a mobile decontamination unit for thorough wet decontamination of persons, having a generally rectangular parallelepiped shape with a longitudinal axis and a transverse axis. The unit comprises a technical module and at least one shower module, which are adjacent to one another in the direction of the longitudinal axis. The unit also comprises a first retractable extension of the shower module in the direction of the transverse axis, on one side of said shower module, and/or a second retractable extension of the shower module in said direction of the transverse axis, on the other side of said shower module. The shower module and the one or more extensions comprise a decontamination line for persons for the circulation, in the direction of the transverse axis, of persons to be decontaminated by showering in the shower module.

A sanitization device and telemedicine station (SDTS) may automatically detect and disinfect users as the users pass through the device. Sanitizing solution may be distributed throughout a disinfecting area within the SDTS such that people, pets, items, and/or other objects are disinfected. The SDTS may collect biometric data such as body temperature. Collected data may be analyzed to identify conditions and/or generate recommendations by matching collected data to various condition profiles. The SDTS may allow telemedicine sessions, where a user may communicate with a practitioner or virtual practitioner.

An electrostatic fluid delivery system is configured to deliver fluid, such as a disinfectant fluid, onto a surface by electrically charging the fluid and forming the fluid into a mist, fog, plume, or spray that can be directed onto a surface, such as a surface to be cleaned. The system atomizes the fluid using a high-pressure air stream and passes the fluid through an electrode inside a nozzle assembly to charge, such as negatively charge, droplets of the atomized fluid. The system uses a unique nozzle design that is configured to optimally atomize the fluid into various sized droplets.

The mist spray device according to the present invention is formed by including a mist generator configured to generate mists to above water surface of the water contained in a water tank, an air blower and an air guide part configured to form an air passage to allow the air flow generated by the air blower to be moved to a mist discharge port. Particularly, the water tank is disposed with an inlet through which part of the air flow generated by the air blower is introduced and an outlet through which the mists generated by the mist generator are discharged to the air passage, and an amount of air introduced into the water tank can be adjusted using the air inflow adjustment part.

A decontamination apparatus for disinfecting a surface can include a flexible textile, an array of LEDs, and a flexible cover layer. The flexible textile can have a first side facing a first direction and a second side facing a second direction opposite the first direction. The array of LEDs can be configured to output radiation in at least two separate wavelength ranges corresponding to an ultraviolet radiation range and an infrared radiation range. The flexible cover layer can cover the array of LEDs and be transparent to at least the ultraviolet radiation range. The flexible cover layer can comprise a plurality of projections configured to maintain a consistent distance between the array of LEDs and a surface to be disinfected. The flexible textile, the array of LEDs, and the flexible cover layer can be coupled together to form a flexible blanket that conforms to a contour of the surface.

Methods, systems, and apparatuses for producing one or more of trioxygen, hydrogen and its ions, oxygen and its ions, hydrons, hydroperoxyls, and electronically modified oxygen derivatives from oxidizing agents that are exposed to photon emissions at a wavelength in a range of 0.01 nm to 845 nm, wherein wavelengths that photo-dissociate trioxygen may be excluded. The methods, systems and apparatuses enhance the effectiveness of photo-oxidation, photocatalytic, and/or photochemical combined with photocatalytic reactions.