The present disclosure in one aspect provides a sterile packaging container comprising a container body with a cross-sectional shape that is constant along the majority of the longitudinal axis, a cover and a closure assembly that inhibits the passage of microbial contaminants. The container is configured such that the interior of the container can be sterilized. The sterile packaging container described herein allows one to manufacture a sterile packaging tube exercising the smallest possible volume.

An infrared heating system is disclosed that includes an enclosed tube extending from a first open end to a second open end, the enclosed tube having a sidewall opening in a sidewall of the tube at a location between the first and second open ends; an infrared heater mounted to the exterior of the enclosed tube such that heating elements of the infrared heater are exposed to the tube sidewall opening; and an auger disposed within the enclosed tube, the auger being driven by a drive system such that material fed into the enclosed tube at the first open end is transported to the second open end of the tube and is exposed to the heating elements of the infrared heater as the material is transported between the first and second open ends.

An illuminated bassinet including a light source for delivering therapeutic light and anti-bacterial light, where an interlock prevents the anti-bacterial light from being emitted while an infant is located in the bassinet. Also, a surgical illuminator configured to concurrently or alternately emit different wavelengths of light for treating a physiological condition and for affecting perception of the surgical opening.

A light system for suppressing a microbe having a photosensitive defense mechanism, said light system comprising a plurality of light sources comprising at least, a first light source configured for emitting a first light having a first wavelength suitable for photolyzing or otherwise inactivating the microbe; and a second light source configured for emitting a second light having a second wavelength, different from said first wavelength, suitable for disrupting said photosensitive defense mechanism; a controller for selectively powering said plurality of light sources in a plurality of modes to emit emitted light from said light system, said plurality of modes comprises at least a first mode and a second mode, wherein said emitted light is white light in at least one of said first mode or said second mode.

A light system for suppressing a microbe having a photosensitive defense mechanism, said light system comprising a plurality of light sources comprising at least, a first light source configured for emitting a first light having a first wavelength suitable for photolyzing or otherwise inactivating the microbe; and a second light source configured for emitting a second light having a second wavelength, different from said first wavelength, suitable for disrupting said photosensitive defense mechanism; a controller for selectively powering said plurality of light sources in a plurality of modes to emit emitted light from said light system, said plurality of modes comprises at least a first mode and a second mode, wherein said emitted light is white light in at least one of said first mode or said second mode.

The present invention relates to a system for the disinfection of containers in a blowing and filling system of the containers with a product, in particular a system for the internal disinfection of the containers by means of ultraviolet-C radiation LED emitters.

A safe sterilization unit includes a bearing portion, a light source portion and at least one safety switch. The bearing portion includes two surfaces corresponding to each other; the light source portion is configured to generate sterilization light, and is disposed on one surface of the bearing portion; and the safety switch is disposed on one side surface, provided with the light source portion, of the bearing portion, and is connected with the light source portion. The safety switch is disposed to sense light to generate a sensing message, and to regulate power supply of the light source portion according to the sensing message.

Embodiments of the invention are directed to a device (10) for retaining an object in a disinfection apparatus. The device includes at least one support member (12) for contact engagement with one or more contact surfaces of the object. The at least one support member is formed from a material that allows a disinfection media to reach the one or more contact surfaces of the object such that the one or more contact surfaces are disinfected during a disinfection process.

A system that includes one or more quartz-sleeveless reactors to purify contaminated liquid in series or parallel. Each quartz-sleeveless reactor includes a continuous and independent reactor chamber. The system includes at least one continuous-batch flow, interior chamber reactor housed in the reactor chamber. Each interior chamber reactor of the at least one interior chamber reactor includes an ultraviolet (UV) lamp to emit UV radiation and fluid transport chamber. Each interior chamber reactor passes a stream of a mixture in the fluid transport chamber and around the UV lamp. The mixture includes an advanced oxidative process (AOP) additive and contaminated liquid. Each interior chamber reactor radiates the mixture while in the chamber with the emitted UV radiation from the UV lamp, simultaneously cools the UV lamp with the mixture, and autonomously passes a radiated resultant mixture into the reactor chamber.

In an example, an electronic device includes a housing and an input device exposed in an upper surface of the housing. The input device may include a transparent input interface. Further, the electronic device may include a transparent photocatalyst layer disposed on the transparent input interface, an ultraviolet (UV) light source disposed in the input device to emit light, and a conductive oxide layer disposed in the input device between the transparent input interface and the UV light source. Furthermore, the electronic device may include a controller to control a degree of transparency of the conductive oxide layer to permit the light to pass through the conductive oxide layer to contact the transparent photocatalyst layer.