Abstract: A toothbrush sterilization cabinet includes a housing, a sliding plate movable in and out of the housing, a rack rotatably mounted at the sliding plate for holding toothbrushes and/or razors, a control circuit, a hot air generator consisting of an electrical heating element and an electrical fan, an UV germicidal lamp and an ozone generator for generating hot air, UV light or ozone, and a tact switch for driving the control circuit to turn on the hot air generator, the UV germicidal lamp and/or the ozone generator for a predetermined length of time.

Abstract: The present invention is related to an UV LED curing apparatus, and more particularly, to an UV LED curing apparatus with improved housing and switch controller. The light reflective inner casing is preferably provided as an effective UV light reflector and as a supporting substrate of the UV LED light source while being capable of transmitting heat from the UV LED light source away for further heat dissipation to the ambient by the outer casing. The outer casing is detachably attached to the inner casing and allows a greater user interaction for decorative and entertainment purposes while also being a protective and heat dissipation means.

Abstract: A personal electronic device (PED) sanitization device comprises a compartment configured to receive a plurality of PEDs and one or more emitters configured to emit electro-optical (EO) radiation into the interior of the compartment. The compartment may comprise a support member configured to maintain the plurality of PEDs such that substantially an entire surface of each of the plurality of PEDs is exposed to EO radiation emitted by the one or more emitters.

Abstract: The invention relates to an irradiation apparatus for inactivating pathogens and/or leukocytes in a biological fluid such as a platelet suspension and/or plasma comprising: a casing (2), a support member (3) for carrying at least one irradiation bag (19) containing the biological fluid, a light source (4) comprising two banks of light (5, 6) disposed above and below the support member (3), and an agitating system (25) for moving the support member (3), the light source generating UVC light of suitable intensity to inactivate pathogens and/or leukocytes and the agitation system moving the support member in an orbital path with predetermined amplitude and rotational frequency suitable to expose the whole biological fluid to UVC.

Abstract: Irradiating assemblies can have a housing with a reflector extending linearly parallel to a lamp. Radiation can be emitted from one opening, for example in a bottom portion of the housing, as well as from another opening, for example a side opening in the housing. Irradiating assemblies can also have first and second reflector portions at angles with respect to each other wherein radiation is reflected out of a housing that does not have an end reflector. Irradiating assemblies can be configured to have cooling flow openings in side walls so that cooling fluid such as air can flow between the side walls and adjacent surfaces of a reflector. Irradiating assemblies can incorporate lamps having first and second electrodes wherein the first and second electrodes are oriented at an angle with respect to each other.

Abstract: Disclosed is a disinfecting station for at least one portable electronic device. An enclosure is adapted to receive the at least one portable electronic device therein through an openable side that includes a selectively closable door. Each electronic device is exposed to a disinfecting wavelength of light, such as UV light, to disinfect the surface of the device. The enclosure can include supports that minimally contact each device so that the device will be substantially exposed to the UV light. A control circuit can monitor the exposure time and level, and is programmable to activate the UV light based on pre-set criteria. The enclosures may be stacked and provide power and network connectivity to each device while docked therein.

Abstract: A portable light fastening assembly for use with the human interface of an electronic device includes a lamp housing and an adjustable attachment device extending from the lamp housing. An ultra-violet (UV) light source is at least partially enclosed in the lamp housing such that the adjustable attachment device includes an engagement member and a receptacle housing such that the engagement member can be removably fastened within the receptacle housing for holding the lamp housing in a fixed position.

Abstract: An ultraviolet sanitizer for non-contact sanitizing of handheld devices includes a device receptacle moveable adjacent a UV light source within a housing. The receptacle and a housing closure are moveable in response to detection of receipt of a handheld device in the receptacle.

Abstract: A ventilation mask storage device (300, 400, 500) includes a first (310, 410, 510) and second body members (320, 420, 520); a hinge (330, 430, 530) connecting the first and second body members so the first and second body members can be brought together to define an enclosed space (305, 405, 505) for receiving a ventilation mask (10); a clasp (340, 440, 540) connected to the first and second body members to hold the first and second body members together when the clasp is engaged; an aperture (300, 400, 500) in at least one of the first and second body members to permit a circuit (15) to be connected to the ventilation mask when it is disposed within the enclosed space; and a connector (360, 460, 560) provided with at least one of the first and second body members to attach the device to a ventilator or ventilator cart.

Abstract: An apparatus and method for modifying the organoleptic properties of a beverage, such as wine in a bottle, said apparatus having a least one light-source, said light-source applying peak wavelengths at intensities and time durations optimal for modifying said beverage's organoleptic properties with a highly reflective inner surface, a translucent air flow baffle, a translucent liquid barrier, and a controlled oxygen concentration in the bottle headspace.

Abstract: Provided is a cleaning processing device that is for a biological implant and that is capable of quickly eliminating ozone generated by ultraviolet-ray radiation after completion of ultraviolet-ray radiation towards the biological implant. The cleaning processing device for a biological implant performs cleaning processing of the biological implant by means of radiating ultraviolet rays at the surface of the biological implant and by causing ozone to contact the surface of the biological implant, and the cleaning processing device is characterized by being provided with a housing, an ultraviolet-ray radiating lamp that is disposed within the housing and that radiates ultraviolet rays at the biological implant, an ozone-removing filter disposed within the housing, and a fan that introduces the ambient gas within the housing to the ozone-removing filter, and is further characterized by the fan being driven in response to the end of cleaning processing of the biological implant.

Abstract: A solution for disinfecting electronic devices is provided. An ultraviolet radiation source is embedded within an ultraviolet absorbent case. While the electronic device is within the ultraviolet absorbent case, ultraviolent radiation is directed at the electronic device. A monitoring and control system monitors a plurality of attributes for the electronic device, which can include: a frequency of usage for the device, a biological activity at a surface of the device, and a disinfection schedule history for the device. Furthermore, the monitoring and control system can detect whether the device is being used. Based on the monitoring, the monitoring and control system controls the ultraviolet radiation directed at the electronic device.

Abstract: An appliance for disinfecting hand-held devices each having a surface that is contacted manually when the device is in use, composed of: a source of disinfecting radiation; and a conveyer system operative to convey the devices past the source with the top and/or bottom surfaces of each device facing the source, wherein the conveyor system is composed of a plurality of hollow, transparent rollers; and the source of disinfecting radiation includes a plurality of lamps, each housed in a respective one of the transparent rollers.

Abstract: Disclosed are an apparatus, system, and method for scanning a substrate or other workpiece through a gas-cluster ion beam (GCIB), or any other type of ion beam. The workpiece scanning apparatus is configured to receive and hold a substrate for irradiation by the GCIB and to scan it through the GCIB in two directions using two movements: a reciprocating fast-scan movement, and a slow-scan movement. The slow-scan movement is actuated using a servo motor and a belt drive system, the belt drive system being configured to reduce the failure rate of the workpiece scanning apparatus.

Abstract: In accordance with the purpose(s) of the present disclosure, as embodied and broadly described herein, embodiments of the present disclosure, in one aspect, relate to infrared (IR) filter systems, methods of using the IR filter systems, and methods of degrading a contaminant, and the like.

Abstract: A device (1) comprises a source (20) for emitting ultraviolet light, an inlet (30) for letting in fluid to the device (1), an outlet (40) for letting out fluid from the device (1), and means (51, 52) for performing a straightening action of a flow of fluid through the device (1). The flow straightening means comprise at least one flow straightening element (51, 52) having inlet openings for letting in fluid at one side and outlet openings for letting out fluid at another side, wherein each inlet opening is in communication with a plurality of outlet openings, and wherein the element (51, 52) comprises a maze of randomly arranged, interconnected holes. In such a structure, a water element that is moving from one side of the element (51, 52) to another side may take one of various paths, as a result of which variations in inlet conditions can be dampened.

Abstract: A method for providing at least one of a sanitizing, disinfecting, and sterilizing treatment to a product or object while inside a package by treatment with a combination of UV energy and ozone to the product while in the package. The ozone can be provided inside the package through a gas channel secured, in a gas-tight seal, to an opening of the package containing the product or object. The ozone can also be generated in the package by converting oxygen to ozone in the package while containing the product or object therein.

Abstract: In an embodiment, a fuel decontamination unit comprises a decontamination region containing fuel; and an ultraviolet light located in the decontamination region; wherein the ultraviolet light is configured to irradiate the fuel. In an embodiment, a method of decontaminating fuel comprises flowing a contaminated fuel into a decontamination unit; irradiating the fuel with ultraviolet radiation that is emitted from the ultraviolet light such that the contaminated fuel becomes a purified fuel; flowing the purified fuel out of the decontamination unit; wherein a microorganism level in the purified fuel is less than that of the contaminated fuel.

Abstract: A mount for mounting an ultraviolet (UV) lamp assembly or other device to a duct wall of an HVAC system. The mount may have a base having a first side and a second side, an aperture extending through the base from the first side to the second side, one or more first mounting features, and one or more second mounting features. To secure a UV lamp assembly to the base, the mount may have a socket allowing at least a portion of the UV lamp to extend through the aperture of the base. To secure the first side of the mount to the duct wall, the first mounting features receives connectors. To secure the second side of the mount to the duct wall, the second mounting features receive connectors. A recess between the second mounting features may facilitate connecting connectors to a duct wall without the duct wall interfering with the secured UV lamp assembly.

Abstract: An apparatus for destroying microorganisms includes a housing, a platform, a reflective tray, and a source of ultraviolet light. The platform is supported on the housing and is configured to permit passage of ultraviolet light at an angle therethrough. The reflective tray is disposed within the housing. The source of ultraviolet light is disposed adjacent the reflective tray such that the reflective tray directs ultraviolet light emitted by the source of ultraviolet light through the platform.

Abstract: A system and method for disinfecting hard surfaces in an area such as a hospital room including a light source emitting UV light and a reflector mounted behind the light source for concentrating and directing the light toward a target. The light source and reflector rotate to direct the concentrated beam around a room, thereby making more efficient use of the energy being emitted.

Abstract: The present invention provides for a disinfecting radiation base for working in conjunction with a storage case for an ophthalmic lens. The disinfecting radiation base provides disinfecting radiation for disinfecting a surface of the storage case. The disinfecting radiation base may also include a processor and digital memory for automated functions associated with the base.

Abstract: A container and method are provided for storing fat containing liquid products. The container includes a body defining a storage chamber for receiving the product, and a container closure. A first material portion forms at least most of the surface area overlying the storage chamber that can contact any product therein. Neither the body nor the first material portion leach more than a predetermined amount of leachables into the product or undesirably alter a taste profile thereof. A needle penetrable and thermally resealable second material portion either (i) overlies the first material portion and cannot contact any product within the storage chamber, or (ii) forms a substantially lesser surface area overlying the storage chamber that can contact any product therein in comparison to the first material portion. A sealing portion is engageable with the body to form a substantially dry hermetic seal between the container closure and body.

Abstract: An apparatus includes an enclosure including one or more ultraviolet lights configured to kill germs, the enclosure including a drawer for placing items into and removing items from the enclosure, wherein the enclosure is configured for insertion into an existing cabinet. The apparatus can include an adjustable width bracket, wherein the adjustable width bracket allows the enclosure to be secured against side surfaces within the existing cabinet. The apparatus can also include an adjustable depth bracket, wherein the adjustable depth bracket allows the enclosure to be secured against a back surface within the existing cabinet. The apparatus can also include a bottom bracket, wherein the bottom bracket allows the enclosure to be secured against a bottom surface of the existing surface. In one example, the enclosure is connected to an air filtration system.

Abstract: An appliance for disinfecting hand-held devices each having a surface that is contacted manually when the device is in use, composed of: a source of disinfecting radiation; and a conveyer system operative to convey the devices past the source with the top and/or bottom surfaces of each device facing the source, wherein the conveyor system is composed of a plurality of hollow, transparent rollers; and the source of disinfecting radiation includes a plurality of lamps, each housed in a respective one of the trans parent rollers.

Abstract: The present invention provides an apparatus for disinfecting and/or sterilizing medical or laboratory apparel or accessories, comprising: a cabinet, a disinfecting system housed within the cabinet, wherein the disinfecting system comprises at least one disinfecting agent, and an embedded computer or a programmable logic controller (PLC) housed within the cabinet, wherein the embedded computer or the PLC controls one or more systems of the apparatus. The cabinet has advanced tracking features (e.g., RFID readers) that can track the apparel or accessories being disinfected. The embedded computer or PLC has the capabilities to send electronic messages to users or additional computers for further transmission of information at regular intervals. Methods for disinfecting and/or sterilizing medical or laboratory apparel or accessories are also provided.

Abstract: A multi-charging and sterilizing apparatus includes a case having a slot unit on one surface thereof; a plurality of slots defined in the slot unit such that a plurality of objects are inserted into and mounted in the plurality of slots; and ultraviolet sources disposed in the respective slots to irradiate ultraviolet on front surfaces and rear surfaces of the objects.

Abstract: A method for increasing the shelf life of donor blood contemplates the following steps. In the first step blood is transferred to a sterile container and mixed with an anticoagulant as indicated in step 20. The anticoagulant and donor blood are centrifuged in step 22 at about 4,000 rpm for about 15 minutes. After centrifuging the red blood cells are separated and placed in a sterile tube. In the next step the red blood cells are irradiated by a laser that emanates a wavelength of about 633 nm for a time period of about 24 hours. During rotation the RBCs are rotated to provide uniform exposure. Such laser biostimulation produces an enhancement of shelf life of donor blood by 66%.

Abstract: A microbicidal purification device eliminating dead areas where ultraviolet light does not reach and sterilization does not take place, the device includes a first header and a second header, each header has a header space, the first header has an inlet port and a plurality of tubes, and the second header having an outlet port; a plurality of tubes which are cylindrical tube assemblies both ends of each of which are open and are arranged in parallel with the plurality of tubes of the first header so that the opening of each of the both ends can be connected with the header space of the first header and the header space of the second header in parallel where a plurality of ultraviolet lamp is inserted into each of the plurality of tubes.

Abstract: A portable sterilizing device for sterilizing at least one of a feeding bottle, a nipple, a bottle stopper, and a cap comprises: a sterilization covering body and a containing bottle. The sterilization covering body includes a covering member and a sterilizing member provided on the covering member, a UV-light emitting unit of the sterilizing member is emitting the UV light in a covering direction. The containing bottle includes a body portion and a connecting portion extensively formed from the body portion, the body portion covering the covering member along the covering direction in a manner that the connecting portion is attached to the attaching portion so as to form a containing space that faces toward the UV light for the sterilization. Thus, the portable sterilizing device has the advantages of small size and low power consumption, and therefore it is convenient for baby caretaker to portably carry it.

Abstract: A method for sterilizing an implantable sensor for sensing an analyte in a body tissue. The implantable sensor has a sensor part which can be introduced into the body tissue, at least one sensor electrode for sensing the analyte, and at least one electronics part. The electronics part has at least one electronic component and is connected to the sensor part. The method includes (a) introducing the implantable sensor into a package, the package sealing the implantable sensor from bacteria and accommodating a radiation shield, (b) irradiating the implantable sensor in the package with sterilizing radiation from at least one irradiating direction, in particular with electron radiation, the radiation shield shielding the electronic component of the electronics part from the sterilizing radiation, the radiation shield being arranged in such a way that the sensor part is sterilized by the sterilizing radiation.

Abstract: An external dental accessory sanitization device is configured for receiving and sanitizing a dental accessory, such as a brush, flosser, pic or other dental accessory. The sanitization device is configured to sanitize the dental accessory using one or a combination of ultraviolet light and/or sound waves. The device can be configured for sanitizing one or a plurality of dental accessories therein.

Abstract: Nail gel curing devices emitting ultraviolet light, as well as methods of their making and use are disclosed. The devices are useful for curing, inter alia, acrylic compositions, more particularly, acrylic nail gel compositions, and typically employ ultraviolet and/or visible light emitting diodes (“LED”) to cure such ultraviolet and/or visible light curable nail gel resins.

Abstract: A portable sterilizing device for sterilizing at least one of a feeding bottle, a nipple, a bottle stopper, and a cap comprises: a sterilization covering body and a containing bottle. The sterilization covering body includes a covering member and a sterilizing member provided on the covering member, a UV-light emitting unit of the sterilizing member is emitting the UV light in a covering direction. The containing bottle includes a body portion and a connecting portion extensively formed from the body portion, the body portion covering the covering member along the covering direction in a manner that the connecting portion is attached to the attaching portion so as to form a containing space that faces toward the UV light for the sterilization. Thus, the portable sterilizing device has the advantages of small size and low power consumption, and therefore it is convenient for baby caretaker to portably carry it.

Abstract: A system and method for sterilization of medical devices includes methods for reducing the variance in dose levels over the medical device by either varying the dose levels for each pass before a radiation source, such as an electron beam, or by increasing the number of passes before a radiation source.

Abstract: There are provided methods for sterilizing and/or disinfecting an object. The methods can comprise exposing the object disposed in a packaging material having at least one open end to an afterglow plasma, wherein the packaging material is non-porous and is transparent to UV radiation. There are also provided methods for using a packaging material. The methods can comprise disposing an object to be sterilized into the packaging material, the packaging material being non-porous, transparent to UV radiation, and having at least one open end; and exposing the object and the packaging material having at least one open end, to an afterglow of a plasma, thereby at least substantially protecting the object to be sterilized.

Abstract: A solution for generating ultraviolet diffusive radiation is provided. A diffusive ultraviolet radiation illuminator includes at least one ultraviolet radiation source located within a reflective cavity that includes a plurality of surfaces. At least one of the plurality of surfaces can be configured to diffusively reflect at least 70% of the ultraviolet radiation and at least one of the plurality of surfaces can be configured to transmit at least 30% of the ultraviolet radiation and reflect at least 10% of the ultraviolet radiation.

Abstract: A round hair-brush comprising: a hollow body comprising holes in its circumference; and a handle connected with the hollow body on one end thereof, wherein the body comprises: at least one electric generator having a shaft; at least one LED electrically connected with the at least one electric generator; and at least one propeller electrically connected with the at least one electric generator shaft, the at least one propeller configured to turn upon receiving air current from a hair-dryer and transfer the rotation power to the generator, the generator configured to transform the rotation power to electric power thereby lighting up the at least one LED.

Abstract: System for sterilization of objects (B) by electron bombardment comprising a chamber (2) provided with an inlet (4) and an outlet (6) through which objects (B) are input and output, said system between the inlet (4) and the outlet (6) comprising a treatment zone (II), a routing zone (I) upstream from the treatment zone (II) and an evacuation zone (III) downstream from the treatment zone (II), and means of conveying objects (B) from the inlet (4) to the outlet (6), the treatment zone (II) comprising at least one electron accelerator and a conveyor (9), the routing zone (I) and the evacuation zone (III) each including at least one radiation shielding wall (16) protecting against ionising radiation and means allowing objects (B) to pass over the radiation shielding wall (16) passing over the top of said radiation shielding wall (16).

Abstract: A self-disinfecting device includes a housing with translucent material and an internal light source that is used to reduce surface pathogens on the translucent material. The device includes a processor and a light source positioned within the housing. At least a portion of the housing is translucent to radiation, and the light source emits radiation at a wavelength and an intensity that kills pathogens residing on the outer surface of the housing.

Abstract: An apparatus includes an enclosure including one or more ultraviolet lights configured to kill germs, the enclosure including a drawer for placing items into and removing items from the enclosure, wherein the enclosure is configured for insertion into an existing cabinet. The apparatus can include an adjustable width bracket, wherein the adjustable width bracket allows the enclosure to be secured against side surfaces within the existing cabinet. The apparatus can also include an adjustable depth bracket, wherein the adjustable depth bracket allows the enclosure to be secured against a back surface within the existing cabinet. The apparatus can also include a bottom bracket, wherein the bottom bracket allows the enclosure to be secured against a bottom surface of the existing surface. In one example, the enclosure is connected to an air filtration system.

Abstract: An apparatus for the sterilization of containers with a conveying device which conveys the containers along a pre-determined conveying path (P), with a sterilization device which acts upon at least one area of the containers with charge carriers in the course of the sterilization, with a screening apparatus for screening off beams from the environment, which has at least two screening bodies which are arranged with respect to each other in such a way that one screening body is situated on the side of the screening apparatus facing the conveying path (P) and one screening body is situated on the one facing away from it, wherein the screening bodies are thermally insulated from each other.

Abstract: Water purifying drink containers include a liquid container, a cap assembly removably coupled to the liquid container, and a purification assembly that emits ultraviolet (UV) light in the germicidal spectrum to purify a volume of drink liquid held in the liquid container. In some embodiments, the purification assembly includes a UV bulb positioned within a recess of the cap assembly facing the internal compartment of the liquid container. In some embodiments, the UV bulb further emits light in the visible spectrum and the drink container includes an indicator that becomes illuminated with visible light to indicate to a user when the UV bulb is emitting UV light.

Abstract: Provided is an apparatus for disinfecting an object by at least partially removing a biologically-active contaminant there from. A housing encloses a disinfection chamber in which a portion of the object is to be received to be disinfected, and includes an inlet aperture through which the object is introduced to the apparatus. An ultraviolet light source emits ultraviolet light to be imparted on the portion of the object introduced to the disinfection chamber for deactivating at least a portion of the biologically-active contaminant present on the object. A controller controls operation of at least one of a feeder and the ultraviolet light to achieve a level of disinfection of the object, rendering the object suitable for use in a substantially-sterile application.

Abstract: The present invention provides for a programmable processor in a disinfecting radiation base unit for working in conjunction with a storage case for an ophthalmic lens. The processor is operative via executable software to provide disinfecting radiation base radiation for disinfecting an ophthalmic lens. A disinfecting radiation base unit and storage case may also include sensors for providing data and a digital storage for storing the data.

Abstract: A device for sterilizing a sample chamber in an automated live cell microscope, having a sample holding frame contained in a housing of the microscope. The device includes a UVC sterilizing unit that emits an ultraviolet light with a wavelength of 280 nm to 100 nm (UVC radiation). The UVC sterilizing unit is arranged so that it is able to travel through the sample chamber for sterilization purposes.

Abstract: In accordance with the purpose(s) of the present disclosure, as embodied and broadly described herein, embodiments of the present disclosure, in one aspect, relate to infrared (IR) filter systems, methods of using the IR filter systems, and methods of degrading a contaminant, and the like.

Abstract: An apparatus for sterilization of an inner wall of containers has a charge carrier source for generating charge carriers, with an acceleration device by which charge carriers are capable of being accelerated in the direction of a charge carrier emission window. The charge carrier emission window is arranged on a treatment device for introduction through an opening into the container along an insertion direction, in order to act upon an inner wall of the container with the charge carriers issuing from the charge carrier emission window. A medium is flowed into the region of the charge carriers issuing out of the charge carrier emission window for changing the dimension of a charge carrier cloud formed by the discharged charge carriers.

Abstract: Provided is an apparatus for disinfecting an object by at least partially removing a biologically-active contaminant there from. A housing encloses a disinfection chamber in which a portion of the object is to be received to be disinfected, and includes an inlet aperture through which the object is introduced to the apparatus. An ultraviolet light source emits ultraviolet light to be imparted on the portion of the object introduced to the disinfection chamber for deactivating at least a portion of the biologically-active contaminant present on the object. A controller controls operation of at least one of a feeder and the ultraviolet light to achieve a level of disinfection of the object, rendering the object suitable for use in a substantially-sterile application.

Abstract: Methods and systems for selection radiation exposure in sterilization of medical devices are disclosed.