Systems and methods for cleaning a medical device include a disposable pouch having an interior surface defining a cavity and an agitator disposed within the cavity of the pouch.

A drain valve for a sterile container includes: a valve housing; a bypass that connects a container gas volume with an external gas volume; a valve body that blocks the bypass; and an actuator that displaces the valve body between a passage position and a blocking position. The valve body is displaceable according to a temperature and/or a pressure of the bypass gas volume. The valve housing has: at least one holding web, at least part of which can be located in a holding bracket of the valve receptacle; and a closure. The valve housing is pivotable from an open position into an installation position in which the closure can be fixed to a closure receptacle. When the valve housing is transferred into the installation position, the valve body is transferred into the blocking position and subjected to a closure force.

A system for sanitizing and controlling people who want to access a room (40), adapted to at least reduce the risk that people can bring pathogenic contaminants into said room (40), in particular viral pathogenic contaminants, such as for example coronavirus,

comprising: a sanitizing cabin (1) having a size such that it can house at least one person inside; a sanitizing unit (7) for sanitizing the person present inside said cabin, and at least one controller (12) which is operatively connected to a sanitation activating element (32, 36, 100E), said controller (12) being configured to determine a process control command for said sanitizing unit (7) to supply a sanitizing substance to said cabin for a predetermined time, when it receives at least one activation signal from said sanitation activating element (32, 36, 100E).

A sterilization process test device for verifying the efficacy of a sterilization process includes a tubular body defining a chamber for containing at least one sterilization indicator and a cap to sealingly close the tubular body. The tubular body includes at least one hole, which is covered by a gas and steam permeable cover. The only flow path into the chamber is provided through the steam and gas permeable cover and the at least one hole, which when combined are configured to control and restrict a flow of steam or a gaseous sterilization medium from an external environment.

A method and apparatus for reprocessing decontaminating articles in a steam sterilizer at low temperatures and sub-atmospheric pressure. The method includes steps for operating the steam sterilizer such that it can safely and effectively decontaminate articles at temperatures below conventional steam sterilization processing temperatures. The steam sterilizer includes a low temperature operating mode that processes articles in a chamber at low temperatures and at sub-atmospheric pressure.

The system of the present invention is for treating surfaces and airborne particles comprising. The system includes an exterior housing and an enclosed water storage tank mounted inside the exterior housing to store water. The system may also include a dry mist generator mounted on a water float to position the dry mist generator below a surface of the water stored in the enclosed water storage tank. The system may further include an air blower having an outlet connected to water storage tank above a predetermined water level. The system may still further include an oxygen tank having an outlet, and an ozone generator connected to the outlet of the oxygen tank, The system may also include a regulator and flow meter connected to the outlet of the oxygen tank and having an inlet conduit to the ozone generator to regulate a flow of oxygen into the ozone generator.

A method of disinfecting an object using cryogenic temperatures, and a cryogenic disinfection device and cryogenic disinfection tunnel for use in such a method are disclosed herein. In various embodiments, one or more chambers are provided, capable of providing an ultralow temperature therein. An object is placed or moved to within the chamber and subjected to ultralow, e.g., cryogenic, temperatures therein for a period of time sufficient to disinfect the object to a desired depth.

A system and method for neutralizing a biological organism is provided. The system includes a first pyrotechnic element. A first element is made from decontamination material, the decontamination material decomposing into a decontamination gas in response to thermal energy from the first pyrotechnic element. a selectively sealable chamber is fluidly coupled to the first element to receive the decontamination gas, the chamber being sized to receive an article.

To provide an ultraviolet ray irradiation device which, when an operator inserts a glove to the device, prevents irradiation of ultraviolet rays to the outside thus further enhancing safety. An ultraviolet ray irradiation device includes: a sterilization chamber housing having an insertion opening through which a hand on which a glove is mounted is inserted into a sterilization chamber; an ultraviolet ray irradiating unit which irradiates ultraviolet rays to the chamber; ultraviolet ray blocking elastic bodies disposed so as to traverse an insertion direction of the hand, and allowing the hand to penetrate the elastic bodies; and a frame body supporting peripheral edge portions of the stacked elastic bodies. A plurality of cuts are radially formed in the elastic bodies. A plurality of elastic members are formed between the cuts. The respective elastic bodies are mounted on the frame body such that the cuts are displaced from each other.

With respect to pandemics, restaurants, stadiums, cafeterias, and bars are among the most dangerous places to socialize due to the form of interaction. Exchange of bacteria and viruses are facilitated intensively from the mouth and nose via air transport in droplets of saliva and bodily fluids being deposited on surfaces, foods, and in the air. The present development creates a comfortable environment where the air-space of each customer is separated by invisible cold-hot air and vis-UV barriers, which take away bacteria and viruses, destroying them and preventing recirculation while offering pleasant, clean, and sanitized ambient conditions for a face to face meeting. An immersive experience can be provided with surrounding screens and gas therapy that may be customized according to the customer's preferences. Food distribution is performed with a robotic shuttle system and when the customer departs, an extensive cleanup is performed using chemicals and UV irradiation through robotic systems.