A device for atomization of water and essential oil includes a water atomization assembly, an essential oil atomization assembly, and a vacuum pump. The water atomization assembly includes a first housing, a water container disposed in the first housing, an ultrasonic atomization module disposed in the first housing to atomize water from the water container. The essential oil atomization assembly includes a second housing, an essential oil atomization module disposed in the second housing, and an essential oil container. The vacuum pump is fixedly disposed on a bottom end of the first housing. The essential oil atomization module is connected to and disposed above the essential oil container; the essential oil container is at least partially disposed in the second housing; the first housing includes an outer wall including a recess, and the second housing is fixedly embedded in an upper part of the recess.

Volatile substances are evaporated from a substance container via wick inserted into the container. A wick end region protrudes from the container. A heating device has a heating body with a wick recess, forming an air flow channel with an inlet and outlet opening. The wick end region can be received under air flow around it with a circumferential gap spacing from the wick recess wall region. A penetration depth of the wick end region into the wick recess is adjustable. The wick recess has a throttling segment with a reduced flow cross section, situated above the wick end region when the wick end region protrudes into the wick recess. The position of a free wick end is adjustable relative to the throttling segment to adjust the air mass flow through the wick recess and/or the flow velocity of the substance-laden substance air flow.

The present invention relates to an apparatus and method for the generation of directed vapor from a liquid source. Vaporization takes place within a device capable of confining boiling to a geometrically small volume, and expelling it as heated vapor via capillary vaporization. The foregoing is accomplished through the use of a lightweight compact and portable personal vaporization device that generates heated vapor by the flash boiling of small volumes of aqueous liquid in a safe and energy-efficient manner. The flash boiling takes place at the interface between a disk heater and a non-fibrous wick that receives liquid at one surface and generates vapor that is collected and pressurized in grooves at an opposing surface. In an alternate configuration, a heat distributor may be used between the heater and wick. The apparatus and methods are directed toward personal humidification for comfort and therapeutic purposes in the case of aqueous liquids, but may also be used with other, non-aqueous liquids.

This present invention relates to a portable disinfection device for dispersing a unique disinfecting solution into a room or enclosed space. The disinfecting solution may comprise one or more of a an ethyl or isopropyl alcohol, a lemon or fruit scent, an aldehyde, a chlorine compound, an oxidizing agent, a phenol, a quaternary ammonium, and a propellant, wherein the amount of the ethyl or isopropyl alcohol is at least 60% of the disinfecting solution by weight. The disinfecting solution is stored in a pressurized canister, and a release tab is pressed down for controlling the release of the disinfecting solution into the room from the canister. The disinfecting solution kills 99.9% of the germs and pathogens that it contacts.

This present invention relates to a portable fogger disinfectant device which is used to disperse a novel disinfecting and sanitizing solution and related propellant to disinfect a room or other enclosed space. The spray material is stored in a pressure-activated cylinder with a nozzle, a sensor and a timer. In one embodiment, the disinfecting and sanitizing solution is comprised of an ethanol, an alkyl comprised of C14, C12, and C16, water as a base for other ingredients, fragrance oils, ethanolamine, a propellant and an ammonium hydroxide.

The disclosure herein concerns a method including receiving at a computer at least one target value of a scent parameter for an environment that is remote from the computer, receiving at the computer a sensed parameter of the environment, and controlling, via the computer, diffusion of a liquid from a source of the liquid in fluid communication with at least one scent diffusion device to achieve the target value of the scent parameter, wherein controlling includes setting or adjusting an operation parameter of the at least one scent diffusion device in response to the sensed parameter.

An aerial sanitizer for use in indoor spaces may be created by dispersing an operative fluid within a fluid dispersion device or other like apparatus. The operative fluid may be comprised of a first compound, such as triethylene glycol, or any other like compound sufficiently effective as an aerial germicide. Because of the hygroscopicity and low toxicity of triethylene glycol, or other like germicidal compounds, the operative fluid may further include a second compound, such as deionized water, to devise the operative fluid in dynamic equilibrium with the surrounding ambient air, such that the triethylene glycol or other like compound will abstain from ambient water uptake, thereby preventing the dilution of the operative fluid. Such an operative fluid may further include a third compound, such as alternative essential oils, for both germicidal activity and the provision of certain sensory signals, whether organoleptic or otherwise.

Aspects disclosed herein include a device and a method for disinfecting, sterilizing, or decontaminating daily used equipment and materials within a relevant field. The device may be compact, flexible, economical, and operator friendly. The device and method may be used in hospitals, warzones, or dentist's offices to disinfect, sterilize, or decontaminate low heat resistant materials, medium heat resistant materials, and high heat resistant materials. By using a compressed gas to deliver heat, humidity, and concentrations of H2O2, and using a plurality of pre-determined openings within a plurality of communicatively connected plenums of the device, there is no need for moving parts or circulation devices.

An anti-viral system for generating and outputting an ozone-laden flow of air mixed with aerosolized hydrogen peroxide has housing including an air input port for receiving air and an output port for outputting the ozone-laden airflow mixed with aerosolized hydrogen peroxide. The system preferably includes an air movement device, an ozone supply, an aerosolization chamber and a fluid-flow path between the air input port and the output port, which includes the aerosolization chamber therebetween. A flow of air into the fluid-flow path is supplied with ozone from the ozone supply prior to reaching the aerosolization chamber, which aerosolizes the hydrogen peroxide within the ozone-laden air.

Embodiments of the invention relate generally to disinfection and, more particularly, to methods, devices, and systems for disinfection of a space. In one embodiment, the invention provides a disinfecting system comprising: a disinfecting composition; and a device for producing a fog of the disinfecting composition, the fog comprising liquid droplets having diameters between about 0.5 micron and about 20 microns. In some embodiments, the invention includes a dehumidifying device for removing the fog of the disinfecting composition from the space.