A facial pack manufacturing apparatus capable of discharging a mixture without a remnant, according to the present invention, comprises a main body formed with an injection hole into which a raw material of a facial pack and a solid agent are injected; a mixing unit for mixing the raw material and the solid agent introduced into the injection hole of the main body, and discharging the mixture; and a pack manufacturing unit for receiving the mixture discharged from the mixing unit and manufacturing the mixture into a facial pack, wherein the mixing unit includes: an upper body including a blade protruding downward so as to be rotatable; a lower body coupled to a lower portion of the upper body so that an upper side thereof is opened to insert the blade, and having a discharge unit through which the mixture is discharged and a through hole passing through the discharge unit; and an opening and closing unit, provided in the through hole so as to be vertically movable, for opening and closing the discharge unit.

Methods, apparatus, devices and systems for mixing and dispensing multi-component materials. The mixing and dispensing may be performed using a mobile, enclosed dispenser that can be used to supply a mixed multi-component material at the point of use. In some embodiments, the components to be mixed into the multi-component material may be supplied in cartridges.

A system and the method of use for processing a cell therapy product includes a centrifugation container and a rotor generating centrifugal field that extends to the centrifugation container. The centrifugation container has a substantially cylindrically shaped container body and a movable plunger rod. The container body contains cell suspension and the movable plunger rod is configured to have a mixing blade at the end of the movable plunger rod contacting the cell suspension in the container body. The mixing blade on the movable plunger rod generates mixing force applied to the cell suspension when the movable plunger rod is rotated around axis of the container body. The end of the movable plunger rod contacting the cell suspension is also movable in the container body along longitudinal direction of the container body when withdrawing and expelling fluid in and out of the centrifugation container body.

An apparatus configured for attaching to a conventional cooler and mixing the contents therein, the apparatus including a lid assembly integrated with a mixing assembly. The lid assembly includes a lid having both a hole and an opening to allow the addition of contents to the container and a cover that can be positioned over the opening and secured to the lid. The mixing assembly is integrated with the lid assembly through the hole and includes a centering guide positioned at the bottom of the container, a mixing paddle coupled to the top portion of the centering guide, and a handle operatively coupled to the mixing paddle through the hole. After contents are added to the container through the opening, the cover is positioned over the opening and securely coupled to the lid. The handle is operated to cause the mixing paddle to stir the contents of the container.

The present invention discloses a preparation process of food-grade potassium dihydrogen phosphate, wherein phosphoric acid prepared from wet-process phosphoric acid is used for the preparation of high-purity potassium dihydrogen phosphate. The preparation process of food-grade potassium dihydrogen phosphate provided in the present invention effectively reduces the preparation cost of the high-purity potassium dihydrogen phosphate and has the advantage of high process controllability, and by such a process, high-purity potassium dihydrogen phosphate crystals that meet the food-grade requirements can be produced, which crystals have uniform particle size distribution and comprises few fine powder, having a very high market value.

A mixer for use in combination with a bucket and a drill includes an annular rim sized and configured for selective attachment to the bucket; a mixing extension component, the distal end thereof including blades for mixing one or more liquids in the bucket; an opening on the annular rim, the opening being sized for passage of the mixing extension component; a connector component configured for attachment to the distal end of the mixing extension component; a rim member of the connector component configured for being secured about the interior opening of the annular rim for stabilizing the mixing extension component; a manual rotating component; an adapter component configured to be secured to the connector component; and wherein a user can selectively and interchangeably operate the mixer using the drill and the manual rotating component.

Systems and methods for improved mixing, including baffle systems, reactor systems, and methods of using the same are provided herein. These baffle systems include a ring having an exterior surface defining an outer diameter and an outer circumference, an interior surface defining an inner diameter and an inner circumference, a top surface, a bottom surface, and an axis; and one or more substantially vertical baffles extending from the interior surface of the ring toward the axis.

Systems and methods for improved mixing, including baffle systems, reactor systems, and methods of using the same are provided herein. These baffle systems include a ring having an exterior surface defining an outer diameter and an outer circumference, an interior surface defining an inner diameter and an inner circumference, a top surface, a bottom surface, and an axis; and one or more substantially vertical baffles extending from the interior surface of the ring toward the axis.

A device for granulation of concentrated and/or aqueous solutions/melts may include a shaft extending in a longitudinal direction and rotatably mounted within a housing. Impact arms may extend radially outward from a rotation axis of the shaft. Due to blade elements attached to the impact arms, particles of fluidized material to be treated may advance in the longitudinal direction along a flow direction and be rotated and mixed by the blade elements. A first blade element may have an attitude so as to be inclined relative to a plane that in a transverse direction extends through the rotation axis, when viewed in the conveying direction. A second blade element may have an attitude that is counter to the flow direction such that the second blade element when viewed in the conveying direction is aligned so as to be reversely inclined relative to a remainder of the blade elements.

An agitator rotor includes a shaft, rails, and a rod. The shaft defines a longitudinal axis. The rails extend radially from and are coupled to the shaft. The rails are separated from each other along a length of the shaft. Each rail includes a surface defining a non-zero angle with respect to the longitudinal axis of the shaft. The rod includes a first end coupled to a first one of the rails. The rod includes a second end coupled to a second one of the rails. A projection of the first end and the second end of the rod in a plane perpendicular to the longitudinal axis of the shaft defines a minor arc about a portion of the shaft.