The present inventive concept relates to a venturi nozzle apparatus. Specifically, an embodiment of the present inventive concept provides a venturi nozzle apparatus which mixes water and a gas to dissolve the gas in the water, the venturi nozzle apparatus including a housing in which a flow pipe through which at least one of the water and the water in which the gas is dissolved selectively flows and a bypass pipe which communicates with the flow pipe to selectively bypass at least one of the water and the water in which the gas is dissolved flowing through the flow pipe are disposed, an injector unit which is detachably inserted into the flow pipe of the housing and configured to selectively receive the gas and the water to dissolve the gas in the water, and a valve member which is inserted into the bypass pipe of the housing and configured to cause at least one of the water and the water in which the gas is dissolved to flow to at least one of the flow pipe of the housing and the bypass pipe of the housing.

The primary object of the present invention is directed to a High Flow Venturi Nozzle capable of diffusing gas into a large quantity of fast-moving liquid. A secondary object of the present invention is directed to a two-piece High Flow Venturi Nozzle assembly. Lastly, a third object of the present invention is directed to a method of manufacturing and using the two embodiments noted above.

An at least two shaft reactor/mixer, in particular for process engineering treatment of highly viscose, elastic and/or solid containing reaction substance and mixture, in which at the housing inner wall inwardly directed static mixing elements are arranged, which interact with scrapers of the at least two shafts in such a way, that in the area of the spaces between the scrapers the static mixing elements and the housing inner wall sheer forces, in particular a flow disturbance, are generated in an enhanced manner. In addition, there is a system including an end cap for a one or multiple shaft reactor/mixer and a discharge screw connector block being connectable with the end cap in a detachable manner.

A tintometric machine includes an external frame made from rigid material, which defines an internal area. The internal area houses at least one dispenser system, which can dispense at least one fluid, such as paint or dye, into a vessel or container. The dispenser system of the tintometric machine, includes one or more dispenser mechanisms and a plurality of canisters or containers. Each of the dispenser mechanisms includes at least one pump and at least one valve assembly, and the canisters or containers are connected to one or more dispenser mechanisms. The external frame of the machine has a shell-shaped structure that can be opened to divide the machine into at least two portions. Each portion contains a part of the dispenser system. By dividing the machine into portions, an inspection area is defined between the portions, which is accessible to an operator.

Assembly of a tintometric machine and a trolley includes an external frame and a dispenser system. The dispenser system dispenses a fluid into a vessel or container, when the vessel or container is positioned in a dispensing station. The trolley includes: a supporting top, whereon the container can be positioned; rotary elements allowing the trolley to move; a gripping element, through which the user can grip the trolley and move it. The dispensing station has a housing into which the trolley can be positioned. The assembly includes a plug-socket system, wherein a first part of the system is located on the trolley and a second part is located in the dispensing station. The parts of the system can be assembled together when the trolley is placed into the housing of the dispensing station, for the purpose of conducting an electric current. The trolley includes an actuating device that can move the supporting top.

A base unit device for effective mixing and dispensing of a material, and for quick and efficient cleaning of all components. The base unit defines a base internal cavity, and a removable auger and a removable mixer each rotatably located in the base internal cavity. A mixer support ledge of the mixer can overlap an auger support ledge of the auger to prevent the auger from being withdrawn from the base unit when the mixer and the auger are operatively assembled with the base unit. The mixer can include a locking end featuring locking tabs that can engage with a surface of a sidewall of the base unit that defines a mixer bore, thereby locking the mixer and the auger in position during operation. The base unit can be utilized with a hopper defining a hopper internal cavity for storing the material and providing it to the base internal cavity.

A mixing baffle for mixing a fluid flow includes a longitudinal support structure and a first set of moveable mixing elements integrally molded with and extending from the longitudinal support structure. The first set of moveable mixing elements are molded in a first configuration and deform to a second configuration. The first set of moveable mixing elements may deform when the mixing baffle is inserted into a conduit. A static mixer for mixing a fluid includes a conduit and the mixing baffle inserted in the conduit.

An automated machine is provided for mixing and dispensing liquid detergents remotely controlled by a control software connected to a server which updates product databases, which is executed, together with other software for dispensing and delivering liquid content and surfactant detergent with anionic and cationic tensio-active chemical compounds as the basis of its selected formulation of Genapol, sodium phenyl sulfonate and the sodium lauryl sulfonate with preservatives such as formaldehyde and bactericides such as glutaraldehyde in a mixture of concentrated detergent with water in a proportion between 30% and 40%; where said machine is manipulated with a touch screen that drives two types of injectors that send product, to make the liquid mixture, to a static mixer or to a dynamic mixer and said machine conducts said mixed liquid to a tank of finished product to be dispensed by a filling spout placed on the front of a container-shaped casing.

Multi-component fluid mixing devices and methods of manufacturing and using such multi-component fluid mixing devices are provided. The multi-component fluid mixing devices include one or both of a serpentine flow path and an attachment point decoupled from an inlet of the multi-component fluid mixing devices. The method of use includes switching between multi-component fluid mixing devices with different length flow paths, while retaining a constant position of the outlet of the multi-component fluid mixing devices. A manufacturing method includes fusing two halves of a multi-component fluid mixing device together with mixing elements in a serpentine flow path captured in a mixer wall formed between the two halves of the multi-component fluid mixing device.

A portable microfluidic mixer system includes a blend application to issue blend instructions, and a microfluidic mixer device. The microfluidic mixer device includes a housing, microfluidic pumps and valves within the device housing, a microfluidic dispenser, a microfluidic mixer chip, and a mix controller. The microfluidic mixer chip receives and meters microfluidic amounts of one or more fluids. The mix controller electronically communicates with the blend application to receives blend application blend instructions. The microfluidic mixer device includes fluid pathways for fluid communication between one or more fluid canisters and the microfluidic mixer chip, and between the microfluidic mixer chip and the microfluidic dispenser. The mix controller controls the microfluidic pumps and the microfluidic valves, to control a system pressure within the microfluidic mixer device, for the delivery of the one or more fluids to the microfluidic mixer chip, and to dispense a microfluidic mixture from the microfluidic dispenser.