A sterilization tray is disclosed herein that may be used to facilitate preparation of an endoscope for sterilization and increase the likelihood that the endoscope will be properly sterilized. The sterilization tray may be fabricated from a flexible and vapor-permeable sheet. Cutouts may be disposed through the sheet to define standoffs that are foldable away from the sheet. A first standoff may include a first contoured portion disposed therein. The tray may also include a second standoff that has a second contoured portion and a third contoured portion disposed therein. The third standoff may include a locking tab disposed on a free end of the third standoff. A positioning tab may also be disposed on the third standoff. The sterilization tray may also include a dry booster to which an endoscope may be connected.

A sterilization system comprises a chamber module and an independent pump module that is external to the chamber module in an independent form, is connected to the chamber module, and has a built-in pump, wherein the chamber module comprises a chamber built in the chamber module and storing a target object and a vaporizer built in the chamber module and connected to the chamber to supply a vaporized sterilant, wherein the chamber built in the chamber module is connected to the pump built in the independent pump module and exhausted.

Disclosed is a method of sterilizing an article by sequentially exposing the article under vacuum first to a gaseous conditioning agent for forming radicals and then to a sterilant. The preferred conditioning agent is hydrogen peroxide and the preferred sterilant is ozone. The chamber is initially evacuated to a first vacuum pressure and then sealed for the remainder of the sterilization process and during all sterilant injection cycles, without removal of any component of the sterilization atmosphere, which means without any measures to reduce the water vapor content. Keeping the chamber sealed and maintaining the conditioning agent and the radicals generated thereby in the chamber for the sterilization with sterilant results in a synergistic increase in the sterilization efficiency and allows for the use of much lower sterilant amounts and sterilization cycle times than would be expected from using the conditioning agent and the sterilant in combination.

An apparatus for generating a powerful oxidative hydrogen peroxide foam and chemically stable application process comprises separate supply lines for respectively conveying liquid hydrogen peroxide and liquid foaming agent from separate storage receptacles, a mixer for mixing the liquid hydrogen peroxide and foaming agent once combined together, an air supply line for aerating the foamable liquid hydrogen peroxide mixture, and a foam generating device for mechanically agitating the aerated foamable liquid hydrogen peroxide mixture to form the hydrogen peroxide foam for subsequent discharge to a substrate. There is also disclosed a related method for generating the hydrogen peroxide foam.

A method reduces microbiological contamination in a closed chamber (6), formed by at least two interconnected components (1, 4), by introducing a germicidal medium in liquid form into the chamber (6). The chamber (6) is formed by and between a cap (4) and a head (2) of a filled container.

The present disclosure relates to methods and devices to improve respiratory system health, increase resistance to infection, and increase the hypothiocyanate ion in mammalian lungs. The methods generally comprise: generating a Hydrogen Peroxide Gas that is non-hydrated and free of ozone, and directing the gas comprising primarily Hydrogen Peroxide Gas into an environment and exposing a subject to the environment such that the Hydrogen Peroxide Gas acts to the increase of the hypothiocyanate ion in mammalian lungs.

A system includes a containment vessel configured to receive and retain equipment to be decontaminated. The system also includes a solar reflector configured to reflect solar energy towards the containment vessel in order to heat the containment vessel. The system further includes end supports configured to receive and retain the solar reflector and the containment vessel. The system also includes a base having or coupled to multiple side supports, where each side support is configured to contact and support a corresponding one of the end supports. In addition, the system includes one or more semi-transparent solar shades configured to reduce the solar energy reaching the solar reflector and the containment vessel.

A method to improve efficiency of operating a sterilizer is disclosed. The method includes determining a volume of a load inside the sterilizer based on pressure measurements as a function of time. The determined volume may be used to decide whether to conduct a sterilization procedure. If the sterilization procedure is to be conducted, the volume data may be used to estimate the duration of the procedure, which duration may be communicated to a user.

Apparatus for producing containers, and in particular beverage containers, having a heating device configured to heat plastic parisons, having at least one first transport device, which transports the plastic parisons along a predetermined transport path, a sterilization device configured to sterilize the plastic parisons, and a forming device arranged downstream of the sterilization device, as seen in a transporting direction of the plastic parisons, and configured to form the plastic parisons into plastic containers by the application of a free-flowing medium, wherein said forming device has a transport chamber within which the plastic parisons are transported. The apparatus has an application device configured to apply a free-flowing sterilization medium, at least temporarily, to the transport chamber.

Vaporizer of decontaminating agents, preferably oxygen peroxide, comprising a vaporization chamber (1) with hot walls (5), a first inlet (2) in said chamber (1) of a flow of a vector fluid, preferably air, directed towards the hot wall (5), a second inlet (3) in said chamber (1) of a pressurized flow of a liquid decontaminating agent, interfering in a meeting point (P) with said flow of vector fluid to be dragged and vaporized in contact with the hot wall (5), an outlet (4) from the chamber (1) of a flow of vaporized decontaminating agent conveyed by said vector fluid, comprising injection means (6) associated with said second inlet branch (3) for injecting an atomized flow of micro-drops of decontaminating agent.