A multipurpose solution mixer and a use method thereof are provided. The multipurpose solution mixer includes a main control unit, a solution storage unit and a solution blending unit installed in a case; an operation display unit and a liquid outlet provided on the case; and an atomization humidifying unit connected with the liquid outlet, wherein the main control unit is electrically connected with other units; the operation display unit is a display screen with touch operation functions; the solution storage unit includes sealed bottles and infusion tubes; the solution blending unit includes micropumps infusion tubes and a blending chamber, the blending chamber is connected with the atomization humidifying unit via respective infusion tubes, and the operation display unit sends instructions to the main control unit to control the micropumps to extract solutions from the sealed bottles into the blending chamber, and output a mixed solution via the liquid outlet.

An NO-accumulation apparatus, method and use, comprising: a container (120) defining a cavity for accommodating a liquid (105), an inlet (150) for feeding the liquid into the container (120) and an outlet (151) for delivering the liquid from the container (120) to a bath unit; an NO-gas dissolving unit (140) for dissolving gaseous NO in the liquid (105) to produce an NO-containing liquid, wherein the NO-gas dissolving unit (140) is arranged in the container (120) and/or forms a part of the container (120); and an NO-gas port (110) in fluid communication with the NO-gas dissolving unit (140), wherein the NO-gas port (110) is adapted for coupling, particularly for releasably coupling, with an NO-gas supply, whereby the apparatus further comprises means for decoupling the inflow of NO to the liquid (105) within the container from the removal of the NO-containing liquid (NO-decoupling means), so that the removal of the NO-containing liquid is inhibited, when the NO is flowing into the liquid, and also the NO inflow is inhibited when the NO-containing liquid is removed from the container (105).

A resistivity adjustment device includes: a hollow fiber membrane module that is divided by a hollow fiber membrane into a liquid phase side area; a liquid supply pipe that communicates with the liquid phase side area; a liquid discharge pipe that communicates with the liquid phase side area; a gas supply pipe that communicates with the gas phase side area; a gas discharge pipe that communicates with the gas phase side area; a bypass pipe that communicates with the liquid supply pipe and the liquid discharge pipe to bypass the hollow fiber membrane module; and a first on-off valve that is connected to the gas discharge pipe and opens or closes a first passage inside the gas discharge pipe, wherein the first on-off valve opens the first passage to discharge water accumulated in the gas phase side area.

An agitating device is provided that extracts food particles from food suspended in a liquid. The agitating device includes a rim, an interior portion having a plurality of apertures and a plurality of projections that extend from the interior portion, and a plurality of tabs that mechanically couple the rim and the interior portion. Furthermore, an infusion device is provided that infuses food flavors from food suspended in a liquid. The infusion device includes a lid, a container having an open end and a closed end, and the agitating device placed between the lid and the container. The plurality of projections extends from the interior portion toward the closed end of the container. The interior portion of the agitating device includes a surface that supports the plurality of projections oriented between 0 and 180 relative to the surface.

A peanut butter mixer system including: a screw-mixer formed as a continuous rod member having sequential looped coils along a length of said continuous rod member and terminating with a cutting edge; wherein said screw-mixer is powered via a motor and a powerer as manipulated by a user-operator to re-mix peanut butter in a provided container. The screw-mixer is powered via the motor and powerer as manipulated by a user-operator.

A mixer includes a mixer housing, a mixing element and a mixer inlet section having at least two inlets at an input side and at least two outlets at an output side. The outlets are in fluid communication with the mixing element. The inlets are sealingly connected to corresponding exit openings of a cartridge. The mixer housing includes a connection device for connecting the mixer to the cartridge by rotational movement around a longitudinal axis. An engagement element is disposed at an outer surface of the mixer housing which is accessible from the outside when the mixer is connected to the cartridge. The engagement element includes an engagement surface spaced apart from the upstream end of the mixer housing in the direction of the longitudinal axis. The engagement surface points in the direction of the upstream end of the mixer housing thereby forming an undercut.

A spatially controllable, for example CD controllable, eductor, and more particularly an eductor that is capable of providing a variable motive fluid and processes using such an eductor are provided.

An automatic charging and mixing device for an ointment is provided, comprising a box body, and a platform provided with a rotating seat. The center of the rotating seat is provided with a through hole. The interior of the box body is provided with a stepping motor, and the stepping motor matches the through hole through a coupler. A plurality of feed ports and a plurality of material feeding assemblies are provided on the platform at intervals circumferentially with the through hole as the circle center. The material feeding assembly comprises a telescopic cylinder, a plunger pump, a limiting rod, and a lifting assembly. The device is used to prepare the ointment by placing all raw materials into a mixing drum in sequence according to a set time and sequence

Various methods and systems are provided for mixing and dispensing viscous materials for the creation of additive structures. As one example, during a mixing and dispensing operation of a multi-dimensional printing apparatus, one or more liquids may flow into a mixing chamber via one or more material inlets arranged in a wall of the mixing chamber below a high pressure bearing of a mixing rod positioned within the mixing chamber; and movement of a mixing rod positioned within the mixing chamber is adjusted based on an operating condition of the printing apparatus.

A slurry production apparatus includes: a mixing device (including a dispersion mixing section) that mixes a liquid and a powder to produce a slurry; a powder supply device that supplies the powder to the mixing device; a powder dry box that accommodates an opening portion of the powder supply device; and a first dry booth that accommodates the mixing device and the powder dry box.