The invention discloses a disinfecting toothbrush box, which comprises a housing, wherein a toothbrush hanging rack space and a toothpaste squeezer space are arranged in the housing; a toothbrush hanging rack is arranged in the toothbrush hanging rack space, a toothpaste squeezer is arranged in the toothpaste squeezer space, an ultraviolet disinfection lamp is arranged in the toothbrush hanging rack space, and the ultraviolet disinfection lamp is arranged at the position capable of irradiating a toothpaste tube opening in the toothpaste squeezer space. The disinfecting toothbrush box has the advantage that the toothpaste tube opening can be sterilized while the toothbrush is disinfected.

An illuminated bandage and method of disinfecting a wound. The illuminated bandage includes a power source, a light source coupled to the power source to generate light and a patch. The patch includes a supporting medium and at least one light diffusing element in the supporting medium and optically coupled to the light source. The light diffusing element outputs light to promote a photochemical reaction to disinfect a wound surface proximate thereto.

A sterilization method includes irradiating flexible bags, in particular, bags of the type that can contain solutions of human plasma proteins for therapeutic use. The sterilization method includes electron beam irradiation. An in-line method for filling flexible bags of the type that can contain solutions of human plasma proteins for therapeutic use can use the sterilization method.

Disclosed herein are methods of terminally sterilizing bacterial minicells or compositions comprising bacterial minicells by exposure to ionizing irradiation. Also disclosed are terminally sterilized bacterial minicells, pharmaceutical compositions comprising the bacterial minicells, and methods of using the bacterial minicells and pharmaceutical compositions.

An antimicrobial medical device that includes a substrate having a metal surface that is made from a metal or metal alloy that may include stainless steel, cobalt, and titanium. Disposed on the metal surface is a first antimicrobial oxide layer that includes an antimicrobial metal that may include silver, copper, and zinc, and combinations thereof. The atoms of antimicrobial metal in the first antimicrobial oxide layer are of a first concentration. The first antimicrobial oxide layer is positioned in a direction opposite that of the metal surface. The device further includes a second antimicrobial oxide layer that includes an antimicrobial metal that may be silver, copper, and zinc, and combinations thereof. The atoms of the antimicrobial metal present in the second antimicrobial oxide layer are of a second concentration. The first concentration and the second concentration are not equal. Methods for making the antimicrobial medical device are also disclosed.

The invention provides a unit operation formed by a device and its use for continuous virus inactivation of a continuous flow of a process fluid. The unit operation formed by a device comprises a single inlet at one end and an outlet at the opposite end and at least one HFI, characterized in that the HFI further comprises at least one installation.

A control method of an intelligent sterility test pump, a sterilization method and its application. The control method includes monitoring the real-time current of a DC drive motor through a current detection module, to adjust the rotating linear velocity of a peristaltic pump head in real time; when the peristaltic pump head is in a state of pushing a liquid to be tested, reducing the rotating linear velocity of the peristaltic pump head; and when the peristaltic pump head is in an idling state, increasing the rotating linear velocity of the peristaltic pump head. A sterilization method includes the control method of the intelligent sterility test pump. Application of the sterilization method in preparation or detection of foods and medicines.

A syringe assembly may include a plunger having a stopper. A barrel may be configured to receive the plunger at an open first end. A tip cap may be removably attached to the second end and may form a chamber within the barrel between the plunger and tip cap. The chamber may be configured to contain a sterilization sensitive material. The barrel may be formed of a plastic material having a high barrier property configured to create a barrier between the sterilization sensitive material and gases produced for sterilization purposes such that the sterilization sensitive material remains unchanged during a sterilization procedure.

A continuous differential-pressure steam sterilization system for a powder, and belongs to the field of material sterilization includes: a superheated steam generation system, a steam pressure and flow rate control system, a quantitative feeding system, an instantaneous differential-pressure sterilization system, a dust explosion suppression system, a sterile cooling system, a primary gas-solid separation system, a secondary gas-solid separation system, a sterile storage system, a steam recovery and reheating system, and a condensate recovery system. The continuous differential-pressure steam sterilization system shortens the thermal contact time and mainly accumulates the heat on the surface of the powder, rather than in the center of the powder, which reduces the damage to the nutritional quality of the powder. Comprehensive treatment methods such as superheated steam, temperature compensation and non-sticky inner lining are adopted to reduce the problem of powder binding, agglomeration, and even blocking in the pipe of the system.

Methods and apparatuses for reducing the bioburden of cannabis using low-pressure radiant energy processing. The present invention achieves sufficient microbial killing and/or adequate drying without impacting product quality (terpene loss, smell, color, texture, etc.) by appropriate determination and application of pressure(s) and radiant energy (e.g., microwave intensity).