Methods are provided that include positioning a disinfection apparatus in proximity to a cabinet, wherein the disinfection apparatus has a base supporting a germicidal source and the base includes components operationally coupled to the germicidal source for operating the germicidal source. The method further includes inserting the germicidal source into the cabinet such that at least a portion of the base is retained exterior to the cabinet and is operationally coupled to the germicidal source. Moreover, the method includes placing one or more items into the cabinet, closing the cabinet with the germicidal source and the one or more items in the cabinet and the base of the disinfection apparatus exterior to the cabinet, and then subsequently starting the disinfection source such that the germicidal source emits a germicide into the cabinet. Systems and cabinets used to conduct the aforementioned methods are also provided.

Proposed is a disinfection device for automatically disinfecting a transport container intended for transporting one or more inspection objects through an inspection apparatus and non-destructively inspecting them in the inspection apparatus, the disinfection device including: an input point connected to a pick-up point, an output point connected to a lay-up point, and at least one return device extending from the input point to the output point, and at least one automatic disinfection device arranged at the return path for disinfecting the emptied transport containers.

A sterilization, disinfection, sanitization, or decontamination system having a chamber defining a region, and a generator for creating a free radical effluent with reactive oxygen, nitrogen, and other species and/or a vaporizer. A closed loop circulating system without a free-radical destroyer is provided for supplying the mixture of free radicals from the generator mixed with the hydrogen peroxide solution in the form of the effluent to the chamber. The system is used in sterilizing, disinfecting, sanitizing, or decontaminating items in the chamber or room and, with a wound chamber, in treating wounds on a body. The wound chamber may be designed to maintain separation from wounds being treated. Various embodiments can control moisture to reduce or avoid unwanted condensation. Some embodiments can be incorporated into an appliance having a closed space, such as a washing machine. Some embodiments may include a residual coating device that deposits a bactericidal coating on sterilized items.

Systems and methods for securely delivering, transferring ownership, storing, accessing and receiving or returning an item from another are disclosed herein. In one embodiment, a system and method are provided to securely receive a variety of different sizes and types of packages at one or more locations, including but not limited to on or adjacent a recipient's property. In another embodiment, the system and method allow a user to receive, store and/or return an item without exposing the item to loss, damage, spoilage or other events that would impair the value of the items. Methods of utilizing the systems described herein are also disclosed.

The present disclosure relates to methods and system for disinfecting surfaces within an area by forming peracids in a reaction layer in situ on the surfaces to be disinfected. Aqueous compositions comprising peracid reactant compounds, particularly hydrogen peroxide and acetic acid, are sequentially dispersed into the area, preventing peracids from being formed until the two peracid reactant compounds contact each other on the surface to be disinfected. Additionally, aqueous compositions containing peracid reactant compounds can further comprise ethanol to both decrease the surface tension of the droplets and enhance the reactants' biocidal activity. Peracid reactant compounds can be sequentially dispersed as electrostatically-charged droplets, so that droplets of a first aqueous composition containing at least one peracid reactant compound are dispersed with a polarity opposite that of a subsequently-applied second aqueous composition containing at least one peracid reactant compound, driving formation of a peracid on the surface in situ.

A disinfectant sprayer assembly, including a tank defining a volume, a disinfectant suspension contained within the volume, a nozzle having a size variable spray opening, a pump operationally connected to the volume and to the nozzle for pumping disinfectant from the volume through the spray opening to apply disinfecting to a predetermine surface having a predetermined set of physical characteristics for a period of time, an ion generator operationally connected to the volume for ionizing the disinfectant suspension, and a microprocessor operationally connected to the size variable spray opening. The ion generator voltage, spray opening size, and distance between the predetermined surface and the spray opening are predetermined based on the predetermined set of physical characteristics of the surface.

A shoe sanitizing assembly for sanitizing soles of shoes includes a floor mat that is positionable on a floor and the floor mat is stood upon by a user. The floor mat has a pair of foot areas to have a sole of a respective shoe placed in the foot areas. A pressure switch is integrated into the floor mat and the pressure switch is compressed when the user stands on the floor mat. A reservoir unit is coupled to the floor mat and the reservoir unit is aligned with a respective one of four corners of the floor mat. The reservoir unit contains a fluid sanitizer and the reservoir unit is in operational communication with the pressure switch. A sprayer is integrated into the floor mat to spray the fluid sanitizer on the soles of the shoes when the user steps on the floor mat.

The present disclosure relates to methods and system for disinfecting surfaces within a volumetric space by forming peracids in a reaction layer in situ directly on the surfaces to be disinfected. Particularly, a peroxide compound and an organic acid are sequentially dispersed into the volumetric space, preventing peracids from being formed until the two reactants contact each other on the surface to be disinfected. In some embodiments, any of the dispersed aqueous compositions can optionally be electrostatically charged. Additionally, a system for sequentially dispersing the peracid reactant compounds by electrostatic spraying is provided.

Provided are a mist generator and a washing machine. The mist generator can provide mist having small enough particles. The mist generator includes: a housing having a discharge part; a mist generation unit having a mist spraying nozzle for spraying a mist and causing the mist sprayed from the mist spraying nozzle to collide in the housing to generate a mist with particles smaller than those of the sprayed mist; and a discharging unit for generating an airflow toward the discharging opening in the housing, so that in case of nonuse of a blowing fan, the mist with smaller particles generated by the mist generation unit is discharged from the discharging opening along with the airflow.

The Portable Sanitizer Spritzier Station as disclosed includes an undercarriage of frontward and backward motion rollers and sidewards rollers configured to ambulate the station in a first mode and to convey carts there through in a second mode and to collect used sanitizer for recycle and refuse. The disclosure also includes an upper structure of clear side panels and clear tarp ends and inside guide rails between conveyor belts and a sanitizer pipe network directing sanitizer upward from a floor thereof and downward from a ceiling thereof. The disclosure further includes a controller configured to determine one of the first and the second modes and to determine a time limit for the sanitizer to be sprayed through the sanitizer pipes and to control the rollers and conveyor belt.