The present invention relates to a disposable container (100) comprising a side wall (2, 32), top (4) and bottom (6), wherein the side wall (2; 32) and the bottom (6) comprise a flexible material, wherein the side wall (2; 32), top (4) and bottom (6) are joined together to define the container (100) with an interior compartment (10) for keeping a fluid inside the container (100). The bottom (6) of the container (100) comprises at least one portion of rigid or semi-rigid material comprising a folding means (124; 224; 324; 324) that enables folding of the bottom (6). Thus an easy way of folding the bottom of the container is provided.

A disposable container, such as a deformable bag, for a fluid, having one or more inlets and one or more outlets and an impeller assembly within the container to cause mixing, dispersing, homogenizing and/or circulation of one or more ingredients contained or added to the container. The impeller assembly has a protective hood surrounding at least a portion of the moveable blades or vanes of the impeller assembly and being above at least a portion of the blades or vanes. The hood surrounds the blades or vanes and arcs over the height of the blades or vanes. The hood is shaped in a dome shape or semi-spherical shape that is around and above the impeller blades and acts as a protector for the container surface against the impeller assembly both during shipping and storage as well as when in use, particularly at lower liquid levels.

A device for the convenient frothing or mixing or agitating of milk or other liquids is disclosed. The unit may take many forms, but common to nearly all is that the user simply pours or dispenses the liquid from the devices vessel or holding area, and as the fluid flows to the devices exit spout, the fluid is frothed, thus providing a Pour to Froth experience.

A stirrer (2) for a stirrer vessel (20), which stirrer (2) comprises a stirrer head (1), a drive unit (4) and a magnetic coupling (3), wherein the magnetic coupling (3) has drive magnets (5) connected to the drive unit (4) and stirrer head magnets (6) connected to the stirrer head (1), wherein the stirrer head (1) has stirrer blades (7) and a bearing assembly (8) and wherein the stirrer blades (7) are connected to the stirrer head magnets (6) and the bearing assembly (8), wherein the bearing assembly (8) rotatably supports the stirrer head (1) and the bearing assembly (8) comprises a first rotational bearing (9), wherein the bearing assembly (8) comprises a second rotational bearing (10), which is arranged spaced apart from the first rotational bearing (9) in the stirrer head (1).

An agitation blade for agitating a liquid includes a cylindrical core having a central axis of rotation and a plurality of blade portions provided on a side of a first surface of a rotation portion, and the plurality of blade portions are provided to surround the central axis of rotation and provided to be rotated with respect to a center of rotation of the central axis of rotation.

A carbonated beverage maker includes a water reservoir, a carbon dioxide creation chamber, and a carbonation chamber. The water reservoir holds ice water and has a first impeller and a shroud surrounding the first impeller. The carbon dioxide creation chamber contains chemical elements and receives warm water. The chemical elements react with each other to create carbon dioxide when the warm water is introduced to the carbon dioxide creation chamber. The carbonation chamber is connected to the water reservoir and the carbon dioxide creation chamber. The carbonation chamber has a second impeller that includes a stem portion and blades. The stem portion and the blades define conduits therein. The blades create a low pressure region in a lower portion of the carbonation chamber such that carbon dioxide from the carbon dioxide creation chamber flows through the conduits to the low pressure region.

A disposable container comprising a side wall, top and bottom, wherein the side wall comprises a first flexible material and the bottom comprises a rigid or semi-rigid material. The side wall top and bottom are joined together to define the container with an interior compartment for keeping a fluid inside the container. The bottom comprises at least one opening that is fluid-tightly covered with an assembly comprising a second flexible material. The assembly comprises at least one port which provides access to the interior compartment of the container. The invention also relates to a mixing system comprising the disposable container.

A disposable container, such as a deformable bag, for a fluid, having one or more inlets and one or more outlets and an impeller assembly within the container to cause mixing, dispersing, homogenizing and/or circulation of one or more ingredients contained or added to the container. The impeller assembly has a protective hood surrounding at least a portion of the moveable blades or vanes of the impeller assembly and being above at least a portion of the blades or vanes. The hood surrounds the blades or vanes and arcs over the height of the blades or vanes. The hood is shaped in a dome shape or semi-spherical shape that is around and above the impeller blades and acts as a protector for the container surface against the impeller assembly both during shipping and storage as well as when in use, particularly at lower liquid levels.

A decanting vessel has an internal pump for recirculating a beverage such as wine and aerating it within the decanter.

A design method of bottom-entry magnetic stirring device is disclosed in which the stirring device includes an impeller assembly and an isolation sleeve which are connected axially in a movable manner. The isolation sleeve restricts the axial movement distance of the impeller assembly through the principle of magnetic levitation. The impeller assembly is suitable for driving the material in the middle of the stirring tank to move downwards. The isolation sleeve is set with downward magnetic force towards the impeller assembly, and the impeller assembly is in a suspended state when rotating, satisfying the formula Fvi+Ff=G+Fc. Thus, in the case of known impeller thrust Fvi or repulsive force Fc between magnets, the repulsive force Fc between magnets or impeller thrust Fvi can be obtained, thereby obtaining the design parameters of the magnets and the rotating speed of the drive shaft when it rotates stably.