Abstract: A container system for separately storing and mixing two or more substances. The container system comprises a mixing container having a main container that stores one or more first substances. The main container has a first upper opening. The container system also includes a storage repository coupled to main container, and which stores one or more second substances. The storage repository includes a lip defining a second upper opening, which has an outside diameter smaller than the diameter of the first upper opening. Additionally, the container system includes a mixing blade having an outside diameter smaller than the diameter of the first upper opening. The mixing blade also has a plurality of openings. The container system includes a releasable liner placed over the storage repository's lip, and the storage repository's lip forms a seal with a lower surface of the releasable liner.

Abstract: Disclosed are processes for producing molded polyurethane elastomers and products, such as filter end caps, that include such elastomers. The elastomers are the reaction product of a non-foaming reaction mixture comprising an isocyanate-reactive composition and an organic polyisocyanate prepolymer with an internal mold release agent.

Abstract: A method of controlling an additive fabrication process includes providing a primary substrate and a test substrate. Polymer test material is extruded onto the test substrate utilizing an extrusion head. The extrusion head is moved relative to the test substrate, and a force required to move the extrusion head relative to the test substrate is measured to thereby generate test data. A part is fabricated by extruding polymer material onto the primary substrate utilizing the extrusion head. The test data is utilized to control at least one process parameter associated with extruding polymer material onto the primary substrate.

Abstract: Disclosed herein are a method for producing a miniaturized liposome on a large production scale, and an apparatus for producing a liposome which is to be used in the above-mentioned method. Provided is a method for producing a liposome, including a step of stirring a mixture containing an oil phase in which at least one lipid is dissolved in an organic solvent and a water phase in a first tank of an apparatus having the first tank and a circulation path, in which the ratio of the capacity of the circulation path to the total capacity of the tank and the circulation path is 0.4 or less and/or the time required for the mixture to return to the first tank after being discharged therefrom is within 2.0 minutes.

Abstract: Provided are a device and a method for adjusting the number and size of air bubbles, more particularly, a device and a method for adjusting the number and size of air bubbles, capable of mixing a liquid and gas to form an air bubble mixture or air bubble water (water containing air bubble) and freely adjusting the number and size of air bubbles contained in the formed air bubble mixture to thereby be used in various fields.

Abstract: A method for saturating a thermoplastic polymer material includes continuously moving the polymer material through a pressurized pressure vessel. To do this, the method includes sealing the pressure vessel with a series of dynamic seals that allows the polymer material to continuously move through the pressure vessel while maintaining the pressure inside the pressure vessel.

Abstract: A system includes a hydraulic energy transfer system configured to exchange pressures between a first fluid and a second fluid. The first fluid is at a higher pressure than the second fluid. The system also includes a high pressure pump configured to increase a pressure of the second fluid. Additionally, the system includes a controller programmed to control one or more valves of the system to selectively route the second fluid to the hydraulic energy transfer system or to the high pressure pump based on an operating condition of the system.

Abstract: Apparatuses and methods based thereon are provided for mixing utilizing mixer inserts. A mixer insert may comprise an enclosing component adapted for application to an opening in a container to which the mixer insert is applied, to enclose a space in the container. The mixer insert may further comprise one or more mixing components, adapted to fit within the enclosed space when the enclosing component is applied to the opening in the container, with the one or more mixing components being configured to mix material placed within the enclosed space when the combination of the container and the mixer insert is subject to particular force or movement.

Abstract: A portable blender includes a handle having at least one first attachment structure, an activation button, and a power activation member positioned for mechanical engagement with the activation button and a power switch. The blender also includes a container body with at least one second attachment structure. The first attachment structure and second attachment structure are configured to engage each other to attach the handle to the container body and to disengage each other to detach the handle from the container body. The blender further includes a container base configured for detachable engagement with the container body. In one configuration, the blender set includes a motor subunit configured for detachable engagement with the container base, and a power subunit configured for detachable engagement with the motor subunit. In another configuration, the blender includes a motor subunit configured for detachable engagement with the container base, and a power subunit included in the handle.

Abstract: A blending apparatus includes a blending jar and a lid. The blending jar has an internal surface defining an internal volume, and a mixing blade positioned within the internal volume. The lid is releasably mounted to the blending jar and includes at least one scraper extending into the internal volume. The at least one scraper is adjacent to the internal surface of the blending jar and is arranged and configured to disrupt rotational flow of food particles within the internal volume and/or scrape food particles from an inner surface of the blending jar.

Abstract: The present invention relates to systems and methods for mixing various components of asphalt concrete in a mixer and then dispensing the asphalt concrete from the mixer. While the mixer can include any suitable component, in some instances, it includes a heated container, a mixing mechanism that is configured to mix asphalt and an aggregate to form the asphalt concrete within the heated container, and an auger that is configured to force the asphalt concrete out from the heated container. In some cases, a portion of the auger is disposed in a heated cover. In some cases, the cover further comprises a gate that is configured to open (and close) to allow the asphalt concrete to flow from (and be retained in) the heated container. Other implementations are also described.

Abstract: An agitator for mixing solutions in a bottle is described. The agitator is comprised of a handle portion and a whisk portion. The agitator may have a helical-shape to encourage spinning of the agitator as liquid flows past the agitator. The whisk may be flat-bottomed and formed of a flexible material, such that when the whisk portion comes into contact with the bottom of the bottle, the whisking members splay outwardly.

Abstract: A household mixer appliance having a mixing container with an inner surface and an open top, a drive arrangement and a hook. The hook has a sole attachment portion which, when attached to the drive arrangement, abuts a first inner surface portion of the mixing container inner surface. The sole attachment portion is attachable to the drive arrangement via a through hole in the first inner surface portion such that the hook is rotatable around a substantially horizontal axis of rotation within the mixing container when the hook is attached to the drive arrangement.

Abstract: A system for converting an irregular flow stream of solid particulates into a continuously flowing stream of solid particulates is disclosed. The system comprises a bin adapted to receive the irregular particulate flow stream. A level sensor is adapted to produce an output signal representative of the volume of particulates in the bin. The bin level controller has a set point corresponding to a desired level for the volume of particulates in the bin and is adapted to receive the output signal from the level sensor. The bin level controller produces a bin level control signal proportional to the deviation from the set point signal. A movable valve is positioned proximate the outlet adapted to modulate the particulate flow stream out of the bin and a valve controller is operatively associated with the valve. The valve controller is adapted to respond to bin level control signals from the bin level controller.

Abstract: A screw element (100) for an extrusion machine is provided. The screw element (100) includes a first section (200) and a second section. The first section (200 has a first core (212) with a plurality of facets (214) connected to each other along splines (216). The facets (214) and splines (216) extend longitudinally along the screw element (100). The facets (214) and splines (216) can be helically-shaped. The first core (212) increases in diameter in a continuous manner along the direction of flow of material. The first and second sections (200, 300) include one or more helically-shaped flights (218,219) wrapped around the longitudinal axis of the screw element (100).

Abstract: The invention relates to a blender (200) comprising a base part (201), and a container (202) arranged on the base part (201). The container (202) comprises a detachable bottom part (203). The blender 200 also comprises a sealing gasket (204) arranged between the detachable bottom part (203) and the container (202). The sealing gasket (204) comprises at least one rib (205) extending upwards inside the container (202). By having the ribs directly part of the sealing gasket, the container does not need any ribs on its inside surface.

Abstract: A mixing method, a controller and a mixing device for mixing components in a mixing vessel are provided. The mixing method includes providing a mixing impeller in the mixing vessel; accelerating the mixing impeller from an inactive state to a rotating state in which the mixing impeller rotates at a first desired speed in a first rotation direction; rotating the mixing impeller at the first desired speed for a first time tsteady,1 in the first rotation direction; changing the rotation direction of the mixing impeller, so that the mixing impeller rotates in a second rotation direction at a second desired speed; and rotating the mixing impeller at the second desired speed for a second time tsteady,2.

Abstract: A gas-air mixer assembly is described that helps mix fuel and air within an HVAC system. The mixer assembly can also achieve lower pressure drops than seen in other solutions. A mixer assembly can comprise a mixer body through which air is supplied. An orifice body can extend into the stream of air within the mixer body and then point upstream. A tip of the orifice body, disposed in the airstream, can provide fuel through one or more orifices. The flow of air around the orifice body helps to cause mixing, as does an elbow bend in the mixer body, downstream of the orifice body.

Abstract: The disclosure extends to systems, methods, and devices for mixing a fluid. The system comprises a tank conduit suspended in a tank for receiving a mixture comprising a liquid, wherein the tank holds the mixture. The system comprises a rigid casing configured to surround the tank and a pump attached to the rigid casing. The system includes a suction inlet and a discharge outlet attached to the pump, wherein the pump creates a negative pressure that draws the mixture into the pump through the suction inlet and the pump creates a positive pressure that dispels the mixture out of the pump through the discharge outlet.

Abstract: A container system for separately storing and mixing two or more substances. The container system comprises a mixing container having a main container that stores one or more first substances. The main container has a first upper opening. The container system also includes a storage repository coupled to main container, and which stores one or more second substances. The storage repository includes a lip defining a second upper opening, which has an outside diameter smaller than the diameter of the first upper opening. Additionally, the container system includes a mixing blade having an outside diameter smaller than the diameter of the first upper opening. The mixing blade also has a plurality of openings. The container system includes a releasable liner placed over the storage repository's lip, and the storage repository's lip forms a seal with a lower surface of the releasable liner.