There are provided a bactericide diffusion apparatus and a bactericide diffusion method that have excellent design and make it possible to stably diffuse a bactericide. A bactericide diffusion apparatus includes: a bactericide containing chlorine dioxide; a first container housing the bactericide and having a first opening; and a second container housing the first container, having a second opening and being made of a ceramic. The first container includes a first portion defining the first opening, a second portion located below the first portion and having a diameter larger than that of the first opening, and a third portion located below the second portion and having a diameter larger than that of the second portion. The second container includes a main body portion housing the first container and having the second opening, and a lid portion fitted to the second opening. The lid portion has a hole for diffusing chlorine dioxide.

The present invention relates to automatic odor treatment spray dispensers.

A curcumin entrained vapor generator providing the release of an essence, or compound or substances, from a solid or powder or liquid into a vapor exiting the generator, comprising a container having an interior volume and a region disposed to contain a liquid which emits or forms a vapor, and an openable closed end distal from said contained liquid. An interior support formed to support material (e.g. curcumin or other) thereon and is included and has a plurality of openings, and is dimensioned less than said container interior dimension across said container liquid to form a large vapor passage allowing the essence of the included material to be gently released into the vapor of the liquid and released into the external environment via the container openings. Other embodiments include esthetically shaped support structures, e.g. a leaf, a plant twig-like arms, etc. and/or graphic overlays, etchings, engravings, etc.

A novel aromatherapy vaporization device is disclosed having a first and second housing with a heating chamber for receiving of phyto material. The heating chamber has an ambient air input port that receives ambient air that does not flow past hot electrical components when entering the heating chamber. An inhalation tube is coupled with the heating chamber for receiving of phyto material vapor therein in a second mode of operation and in a first mode of operation the inhalation tube is uncoupled from the heating chamber to allow for loading of phyto material therein.

There is provided an isolator that is capable of improving work efficiency by shortening a sterilization time, and that is capable of securing a sterility assurance level. An isolator, in which a circulation fan above a work room supplies clean air to the work room via a HEPA filter, includes: the work room; a front door provided in a front surface of the work room; a glove provided in the front door; and an air supply unit that causes an air supply HEPA filter to clean air taken in from an air supply airtight damper, and that causes an air supply fan to supply the clean air into the isolator, when work is performed. When a sterilization gas is removed, the air supply unit is configured such that the air supply fan circulates the air inside the isolator through a sterilization gas-removing catalyst.

Particular embodiments described herein include an apparatus for providing a simulated flame that includes a base housing, a flow generator contained within the base housing that is configured to generate a flow of atomized fluid, a lid positioned on top of the base housing, the lid defining a main opening through which the flow of atomized fluid is configured to be emitted, a chimney that is attached to a top surface of the lid and that, at least partially, surrounds the opening, the chimney extending upward from the top surface of the lid and being configured to focus, at least in part, the flow of atomized fluid into a channel of atomized fluid, and one or more light sources that are positioned near the opening to the lid that are configured to illuminate the channel of atomized fluid to provide the simulated flame.

The smart electric incense and perfume burner is a remotely controllable, electrical incense burner controllable via a smart system using Wi-Fi or Bluetooth. The burner is in the form of an orb or spherical shell, which may be placed on top of a pedestal having a battery charging circuit. The orb functions separately as a portable, battery-operated, smart electric incense and perfume burner. The orb includes an upper chamber, centrally located at the top of the orb for liquid incense or perfume. The orb also includes a lower chamber with a solid incense heater. The outer surface of the orb has a plurality of vent openings for allowing smoke from the upper and lower chambers to exit the interior of the orb. The vent openings are surrounded by multicolor LEDs and are adapted to receive elongated decorations for display.

A portable mist blower system, which has a housing assembly, a tank assembly, a handle assembly, a battery assembly, a pump motor assembly, a blower panel assembly, a manifold assembly, a blower assembly, and a solenoid assembly. The housing assembly has a front panel, a rear panel, a top panel, a bottom panel, and lateral panels. The tank assembly is secured to the top panel and trapped by the front panel, the battery assembly is secured to the top panel, the handle assembly is mounted onto the top panel, the pump motor assembly is secured to the rear panel, the blower panel assembly is mounted onto the front panel, the manifold assembly is connected to the blower panel assembly, and the blower assembly and the solenoid assembly are mounted onto the bottom panel.

A spray system for spraying a fluid, the spray system including a bladder for holding the fluid; and a sprayer including a fluid conductor, a fluid mover, at least one first nozzle and a second nozzle, the fluid conductor including an inner diameter, a first end configured to be connected to the bladder, a second end configured to be selectively connected to one of the at least one first nozzle and a second nozzle, wherein the second nozzle including a through opening at least about the same size as the inner diameter, wherein the fluid mover is configured to draw the fluid from the bladder through one of the at least one first nozzle to create a spray of the fluid and the second nozzle to return at least a portion of the fluid to a storage tank.

The present invention generally relates to a safe steady portable incense heater and, more particularly, to a self-contained incense heater shaped as a trapezoid hexagon inflated from bottom for safely holding, igniting, and heating incense (bukhoor wood bricks). The safe steady portable incense heater shaped as a trapezoid hexagon inflated from bottom heats the incense (bukhoor wood bricks) to a specific temperature in order to help the user direct the smoke flow in the exact direction of the nozzle using the fan thrust. The self-contained safe incense heater shaped as a trapezoid hexagon inflated from the bottom has a small hand size and is portable without any wires to enhance the mobility of the users and the way of using incense or bukhoor wood bricks.