Abstract: A device for disinfecting the interior of a drain pipe having a tubular wall formed with a hole between the sink drain inlet and the U-shaped trap. A UV-C LED module is positioned to register with the hole and includes a UV-C LED that generates a radiation beam having a predetermined radiation angle to transmit UV-C light into the drain pipe through the hole to irradiate at least a portion of said interior surface and expose airborne pathogens contained therein to UV-C light. A lens generally coextensive with the tubular wall has a peripheral edge aligned with the hole. The UV-C LED is spaced from the lens a distance to cause the radiation beam to extend up to but not beyond the peripheral edge of the lens to maximize transmission of UV-C light through the lens to maximize exposure of the interior surface and airborne pathogens to the UV-C light.

Abstract: A device for disinfecting the interior of a drain pipe having a tubular wall formed with a hole between the sink drain inlet and the U-shaped trap. A UV-C LED module is positioned to register with the hole and includes a UV-C LED that generates a radiation beam having a predetermined radiation angle to transmit UV-C light into the drain pipe through the hole to irradiate at least a portion of said interior surface and expose airborne pathogens contained therein to UV-C light. A lens generally coextensive with the tubular wall has a peripheral edge aligned with the hole. The UV-C LED is spaced from the lens a distance to cause the radiation beam to extend up to but not beyond the peripheral edge of the lens to maximize transmission of UV-C light through the lens to maximize exposure of the interior surface and airborne pathogens to the UV-C light.

Abstract: A device for neutralizing pathogens on a tactile surface arranged to be touched or contacted by a user's hand includes a housing adapted to be attached to a support surface, such as a wall of an ATM, generally above the tactile surface. A UV light source is provided on the housing arranged to irradiate UV radiation on the tactile surface. A personnel detector is provided for detecting the presence of a person in sufficient proximity to the tactile surface to touch or contact the tactile surface. Control circuitry, preferably in the form of a programmable controller, is provided for normally energizing the UV light source and de-energizing the UV light source upon detection of a user in sufficient proximity to allow a user to touch or contact the tactile surface. A white light source is provided to illuminate the tactile surface when the UV light source is de-energized.

Abstract: A drain disinfecting device for disinfecting the internal surface of a drain pipe wall that is provided with a hole or aperture includes a UV LED module provided with a transparent lens through which UV-C light can be transmitted. The module is attached to the drain pipe to register the transparent lens with the hole in the drain pipe to transmit UV light through the transparent lens into the interior of the drain pipe to irradiate the drain pipe inner surface and any pathogens contained therein with UV light. A controller or power source is provided for energizing the module. A method of converting an existing drain pipe to disinfect the interior surface includes forming a hole or aperture in the wall of the drain pipe and registering the drain disinfecting device with the hole or aperture in the drain pipe.

Abstract: A drain disinfecting device for disinfecting the internal surface of a drain pipe wall that is provided with a hole or aperture includes a UV LED module provided with a transparent lens through which UV-C light can be transmitted. The module is attached to the drain pipe to register the transparent lens with the hole in the drain pipe to transmit UV light through the transparent lens into the interior of the drain pipe to irradiate the drain pipe inner surface with UV light. A watertight seal is provided between the drain pipe and the module. A controller is provided for selectively energizing the module. A method of converting an existing drain pipe to disinfect the interior surface includes forming a hole or aperture in the wall of the drain pipe and registering the drain disinfecting device with the hole or aperture in the drain pipe.

Abstract: A vanity mirror comprising a substantially enclosed cabinet having top, bottom and lateral ends and rear and front walls when mounted on a wall, said cabinet ends and said walls together forming a substantially enclosed space defining a vertical direction extending between said top and bottom ends, said front wall comprising a mirror panel; mounting means for mounting said cabinet on a wall, wherein said mounting means includes a hinge at one of said lateral ends to movably mount said cabinet for movement between a normally closed position substantially juxtaposed against the wall and an open position to provide access to a surface normally covered by said cabinet, when in said closed position, whereby said normally covered surface can be cleaned and disinfected.

Abstract: A disinfecting vanity mirror includes a mirror panel having a top end, a bottom end and lateral edges when mounted on a wall. The mirror is moveably mounted on a hinge along one lateral edge mounted to space the panel from the wall to create a plenum space behind the mirror panel to allow air to enter through the bottom end to rise and exit through the top end. A source of UV light is provided in proximity to the plenum space to sanitize the air moving upwardly through the plenum space. A controller is programmed to interrupt or discontinue the generation of UV light when a motion detector senses motion in proximity to the mirror and/or in accordance with a programmed sequence of on and off times for energizing and de-energizing the source of UV light.

Abstract: A disinfecting vanity mirror includes a substantially enclosed cabinet having top, a bottom, side and rear walls and a mirror panel as the front wall when mounted to form an enclosed space or chamber. The top and bottom walls include passageways to allow vertical air flow through the enclosed space to allow air to enter through the bottom wall to rise and exit through the top wall. Sources of UV light are provided both within and below the cabinet to sanitize the air moving upwardly through the plenum space and below the vanity mirror to expose interior surfaces and exterior surfaces below the cabinet such as sinks and countertops. A controller is programmed to interrupt or discontinue the generation of UV light when a motion detector senses motion in proximity to the mirror and/or in accordance with a programmed sequence of on and off times.

Abstract: A vanity mirror comprising a substantially enclosed cabinet having top, bottom and lateral ends and rear and front walls when mounted on a wall, said cabinet ends and said walls together forming a substantially enclosed space defining a vertical direction extending between said top and bottom ends, said front wall comprising a mirror panel; mounting means for mounting said cabinet on a wall, wherein said mounting means includes a hinge at one of said lateral ends to movably mount said cabinet for movement between a normally closed position substantially juxtaposed against the wall and an open position to provide access to a surface normally covered by said cabinet, when in said closed position, whereby said normally covered surface can be cleaned and disinfected.

Abstract: A disinfecting apparatus may include a shelf securable to a wall; a mount configured to secure the shelf to the wall; at least one UV light source coupled to the shelf, the UV light being configured to sanitize air and surfaces in close proximity to the UV light source; and a programmable controller being operatively coupled to the motion detector, the controller being configured to cause cause at least one of energization and de-energization of the UV light source upon a predetermined event. A method of safely disinfecting or sterilizing air and surfaces may include the apparatus and may further provide UV light in the range of 250-290 nm and interruption of the generation of UV light in response to the predetermined event.

Abstract: A disinfecting vanity mirror includes a substantially enclosed cabinet having top, a bottom, side and rear walls and a mirror panel as the front wall when mounted to form an enclosed space or chamber. The top and bottom walls include passageways to allow vertical air flow through the enclosed space to allow air to enter through the bottom wall to rise and exit through the top wall. Sources of UV light are provided both within and below the cabinet to sanitize the air moving upwardly through the plenum space and below the vanity mirror to expose interior surfaces and exterior surfaces below the cabinet such as sinks and countertops. A controller is programmed to interrupt or discontinue the generation of UV light when a motion detector senses motion in proximity to the mirror and/or in accordance with a programmed sequence of on and off times.

Abstract: A disinfecting apparatus may include a shelf securable to a wall; a mount configured to secure the shelf to the wall; at least one UV light source coupled to the shelf, the UV light being, configured to sanitize air and surfaces in close proximity to the UV light source; and a programmable controller being operatively coupled to the motion detector, the controller being configured to cause cause at least one of energization and de-energization of the UV light source upon a predetermined event. A method of safely disinfecting or sterilizing air and surfaces may include the apparatus and may further provide UV light in the range of 250-290 nm and interruption of the generation of UV light in response to the predetermined event.

Abstract: A disinfecting vanity mirror includes a mirror panel having a top end, a bottom end and lateral edges when mounted on a wall. The mirror is moveably mounted on a hinge along one lateral edge mounted to space the panel from the wall to create a plenum space behind the mirror panel to allow air to enter through the bottom end to rise and exit through the top end. A source of UV light is provided in proximity to the plenum space to sanitize the air moving upwardly through the plenum space. A controller is programmed to interrupt or discontinue the generation of UV light when a motion detector senses motion in proximity to the mirror and/or in accordance with a programmed sequence of on and off times for energizing and de-energizing the source of UV light.

Abstract: A disinfecting vanity mirror includes a mirror panel having a top end, a bottom end and lateral edges when mounted on a wall. The mirror is moveably mounted on a hinge along one lateral edge mounted to space the panel from the wall to create a plenum space behind the mirror panel to allow air to enter through the bottom end to rise and exit through the top end. A source of UV light is provided in proximity to the plenum space to sanitize the air moving upwardly through the plenum space. A controller is programmed to interrupt or discontinue the generation of UV light when a motion detector senses motion in proximity to the mirror and/or in accordance with a programmed sequence of on and off times for energizing and de-energizing the source of UV light.

Abstract: A disinfecting vanity mirror includes a mirror panel having a top end, a bottom end and lateral edges when mounted on a wall. The mirror is moveably mounted on a hinge along one lateral edge mounted to space the panel from the wall to create a plenum space behind the mirror panel to allow air to enter through the bottom end to rise and exit through the top end. A source of UV light is provided in proximity to the plenum space to sanitize the air moving upwardly through the plenum space. A controller is programmed to interrupt or discontinue the generation of UV light when a motion detector senses motion in proximity to the mirror and/or in accordance with a programmed sequence of on and off times for energizing and de-energizing the source of UV light.

Abstract: A disinfecting vanity mirror includes a mirror panel having a top end and a bottom end when mounted on a wall. A mirror hanger mounts the mirror panel in spaced relation to the wall to create a plenum space behind the mirror panel that is open at the top and bottom ends to provide a vertical air passageway through the plenum space for air entering through the bottom end to rise and exit through the top end. A source of UV-C light is provided along the bottom end to promote convection by locally heating air to sanitize the air moving upwardly through said plenum space where it is exposed to the UV light. A heating element is provided near the bottom end to more quickly heat the air to accelerate movement of the air to be recycled and increased numbers of pathogens to be exposed to the UV-C light source.