An apparatus for manufacturing water having a high concentration of dissolved ozone is characterized by being configured by connecting: a filtering device; a water tank connected to the filtering device; a pump connected to the water tank; a Venturi tube connected to the pump; a first gas dissolving pressure device connected to the Venturi tube; and a second gas dissolving pressure device connected to the first gas dissolving pressure device.

A valvular conduit, preferably a Tesla valvular conduit, in which a plug member is coaxially received within a bore in a sleeve member and in which passageways are defined between the plug member and the sleeve member within interior walls configured to permit mixing of fluid flowing through the passageways in at least one direction, preferably, the relatively free passage of fluid through the passageways upstream but increased the resistance to downstream flow of the fluid through each passageway.

Systems for a plastic pump/actuator capable of containing and pumping organic solvents and lubricants and having a more desirable lubricity within the system. The system has at least two cylinders, with plungers therein, oppositely disposed from each other and configured to operably connect to a pump.

The invention comprises a method for generating a THC amended food product from a commercially available original food product, the method including the steps of: (1) receiving the original food product into a THC licensed manufacturing facility from a legal zone where THC in the original food product is illegal; (2) exposing THC, water, and an emulsifier to shear forces exceeding 50,000 sec.sup.−1 to generate a THC emulsion; and (3) adding, in the THC licensed manufacturing facility, the THC emulsion to the original food product to form a THC amended product.

The present application discloses an exhaust after-treatment mixing device including a housing and a mixing assembly located within the housing. The mixing assembly includes a first space, a second space and a third space. A top portion of the first space and a top portion of the second space are both in communication with the third space. The mixing assembly is provided with a first raised portion protruding upwardly into the third space and a second raised portion located below the first raised portion. A fourth space is formed between the first raised portion and the second raised portion. As a result, the distance and time for urea evaporation are increased and the uniformity of gas flow mixing is also improved.

The invention generally relates to a mixing device. In certain embodiments, devices of the invention include a fluidic inlet, a fluidic outlet, and a chamber, the chamber being configured to produce a plurality of fluidic vortexes within the chamber.

The present disclosure relates to a mixing device (9) comprising an inlet channel (25), an outlet channel (27), a mixing cavity (29) and a laminar mixing element (31) arranged within the mixing cavity. The inlet channel extends along an axis (21) of the mixing device from a first end (23) of the mixing device to the mixing cavity. The outlet channel extends along the axis from the mixing cavity to a second end (24) of the mixing device arranged opposite to the first end. The mixing cavity is arranged between the inlet channel and the outlet channel and extends in an axial direction (A) along the axis and in a radial direction (R) outwardly from the axis to an outer wall (30) of the mixing cavity. The laminar mixing element extends radially across the mixing cavity, subdividing the mixing cavity into an inlet portion (26) and an outlet portion (28). The mixing element comprises a plurality of holes (41) extending through the mixing element. The said holes are distributed over the mixing element.

A chemistry dispensing assembly for a laundry appliance includes a reservoir that dispenses a laundry chemistry to a treatment chamber. A mixing channel is positioned below the reservoir that receives the laundry chemistry dispensed from the reservoir. A fluid assembly delivers a fluid carrier through a flow path that includes the mixing channel. The mixing channel is defined between an underside of the reservoir and an upper surface of the mixing channel.

A mixer for an exhaust system for mixing reactant injected into an exhaust gas stream with exhaust gas includes a mixer body (22). The mixer body includes a reactant passage body area (24) with a reactant passage opening (26), a mixer plate body area (30) adjoining the reactant passage body area (24) on one side in a mixer longitudinal direction (L) and a mixer main body area (36) adjoining the reactant passage body area (24) in the mixer longitudinal direction (L) on another side opposite the one side.

An emulsion system is provided. The system includes a shaft that supports a plurality of cutting assemblies and plates in alternating order, wherein the cutting assembly rotates with respect to an in close proximity to the plate. The plurality of cutting plates each on their circumferential edge have an identification system to memorialize the diameter of the emulsion holes.