An apparatus for generating a plasma above a treatment object. The apparatus includes a plasma-generating element such that during operation the plasma is generated by the plasma-generating element. The apparatus further includes a sealing element attached to the plasma-generating element. The sealing element has a cavity and is configured to form a closed volume with a part of the treatment object, so that at least a part of the cavity is part of the closed volume and, during operation of the apparatus, the plasma is generated in the closed volume. The sealing element includes a reception region that is configured so that a part of the treatment object can be inserted into the reception region. A method is also disclosed for performing a plasma treatment to a treatment object using the apparatus.

A package comprises: a sterile barrier packaging film; self-sterilizing components comprising: a plurality of chlorite ions and water, wherein the self-sterilizing components are substantially free of an energy-activated catalyst and of an acid-releasing compound; a package interior formed by hermetically sealing the sterile barrier packaging film; and a headspace within the package interior comprising carbon dioxide present in an amount of greater than or equal to 5% by volume of the headspace. When the package is exposed to ultraviolet (UV) light having a wavelength of 254 nm, the chlorite ions react with the water to generate chlorine dioxide (ClO.sub.2), which is released into the headspace. In the absence of any UV light, there is not chlorine dioxide (ClO.sub.2) generation.

A machine, a filtration system and a method for disinfection and purification in fuel tanks located in places with high humidity or high relative humidity, having a machine (1) with an inlet for the fuel from the tank, a filtration system of a coarse-grain filter (2) and a fine-grain filter (2′); a radiation chamber (3) configurable for the application of radiation to the filtered fuel; a pump (4); a flowmeter (5) with at least two electrovalves (17); a centrifuge (6) with a turbine filter (6′) and control via an electrical panel (7); a cleaning machine (1); a suction hose (8) with an extendable suction lance (9); a high-pressure discharge hose (11); a return hose (12); a system for the opening and sealing of the tank (25); and an automatic filter self-cleaning system which reverses the flow, sending the fouled fuel to an additional tank (14) where it is drained.

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 vehicular sanitization control device includes a rechargeable internal power source, a deep ultraviolet light source, a first display light source configured to display an operating state of the deep ultraviolet light source, a second display light source configured to display a state of charge of the internal power source, and a control unit configured to control a power supplied to the deep ultraviolet light source, a charging operation of the internal power source, and displays of the first display light source and the second display light source, respectively.

A portable sanitization system may comprise: a portable device; a light source disposed in the portable device, the light source configured to emit a light having a wavelength between 414 and 474 nm; a light converter comprising a nonlinear crystal configured for frequency doubling; and a light guide extending from the light source to the light converter, the light converter disposed proximal a tip of the light guide.

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.

A disinfection apparatus for disinfecting an object is disclosed. The disinfection apparatus comprises at least one disinfection unit operable to perform a disinfection operation on the object to be disinfected, an outer casing and at least one actuating door. The outer casing and the at least one actuating door define a disinfection compartment. The apparatus includes at least one position sensor for detecting the presence of an object to be disinfected having been positioned within the disinfection compartment, at least one obstruction sensor operable to detect whether at least a first safety zone is clear, and a central control unit, the central control unit being operable to control operation of the at least one actuating door, the at least one position sensor, the at least one obstruction sensor, and the at least one disinfection unit.

The UVC sanitizing bag is a device intended to help with eliminating harmful bacteria and viruses from various solid products. In order to accomplish this, the device includes a bag base that ensures the bag can stay charged and hold various products. Further, the bag lid ensures the product placed within the device can be exposed to UVC lights from multiple directions. Additionally, the plurality of bag handles and bag pockets provide the user with additional functionality and storage. Further, a plurality of boards and shelves are designed to allow multiple storage levels which can be created within the UVC sanitizing bag and ensure the bag retains its overall shape. Thus, the device is a bag that can sanitize any solid product placed within, quickly and efficiently by utilizing UVC lights and ensures the safety of the user throughout the process.

An ozone treatment device includes an ozone destruct module and an ozone generator mounted within a housing. The ozone destruct module and the ozone generator are mounted between corresponding air inlets and air outlets formed in the housing. The ozone treatment device also includes a controller mounted to the housing. The controller is configured to generate ozone with the ozone generator for a first time period and to automatically destruct ozone with the ozone destruct module for a second time period following the first time period. In certain implementations the treatment device includes an input device for receiving an operator input. In such cases the controller can determine the first and second time periods based on the operator input.