Flow Mixers TRIZ Cases

Segmenting the reaction into distinct zones manages exothermic heat release while maintaining high production capacity for industrial scale.

A Laval nozzle ejector mixer creates a liposome aerosol stream by suctioning lipid components into an aqueous medium jet.

Segmented mixer integrates an expansion element to accommodate chemical mixture volume increase while reinforcing soil foundation strength.

An external mixing tube eliminates flow resistance and turbulence while preventing toxic gas escape.

A dilution device mixes aerosol with clean gas extracted from the stream itself to maintain original composition.

An exhaust mixer impactor maintains higher temperatures than the outer shell to prevent urea droplet contact.

Opposing ring-shaped vortex pairs eliminate fixed mixer resistance, ensuring fluid flow and uniform mixing of gel-state reaction fluids.

A gas-liquid dissolving tank uses vertically divided chambers with extended openings to generate microscopic bubbles efficiently.

Separate nozzle chambers prevent chemical reactions and eliminate flushing time by delivering independent streams via a shared carrier fluid.

High shear rotor-stator mixing and controlled oxygen blowing improve rutting and fatigue resistance while reducing power consumption.

A nozzle flow stirring pipe circulates liquid through a reflow channel and ejecting pores to mix chemical solutions.

Segmented exhaust turbine outlet chamber guides wastegate flow spirally around the central axis to reduce downstream pressure.

High-pressure aqueous liquid streams cut hydrated polymer gels to prevent lump formation and equipment blockages during dissolution.

An automated pump system uses a directable nozzle to agitate manure before transfer, eliminating separate agitation equipment and reducing maintenance costs.

Segmented streams resolve the contradiction between operational simplicity and physical property adaptability in shotcrete application.

Inclined rotor and stator working surfaces create a variable cavity that processes substances with varying viscosity and granularity without agglomeration.

Segmented vane configurations direct the majority of flow through non-core areas, reducing thermal plume length by 40-50% while minimizing infrared signatures.

Radial tangential injectors in a plenum chamber generate uniform axi-symmetric swirling flow while reducing pressure drop compared to conventional vane devices.

An extruder injects dyes upstream of a setting accelerator to resolve the contradiction between rapid layer solidification and uniform color mixing.

A curved widening section in the flow body creates specific frequency ranges that mechanically destroy bacterial cell membranes and break down biofilms.

A two-stage mixing unit with a de-aeration vessel separates high-shear blending from low-shear homogenization.

A coaxial syringe spray tip mixes fluids in a helical flow pattern within a dedicated blending chamber.

A modular installation stores water-soluble polymer particles in an upper container while a horizontal screw conveys material into a lower dissolution unit.

Active mixing ensures homogeneous accelerator distribution, resolving poor edge definition and low strength in concrete 3D printing.

Segmented mixing chamber with radial gas distribution improves air fuel homogeneity, lowering nitrogen oxide emissions while simplifying construction.

A solid plate mixing device with protrusions creates turbulent regions within a duct to enhance fluid stream homogeneity.

Radial undulations on annular holding elements block the support means relative to the enclosure, preventing cracking from thermal expansion and vibration.

Helical flow-directing element creates swirl mixing in compact mixer housing, enabling effective nitrogen oxide reduction at lower exhaust gas temperatures.

A venturi mixes ozone with water to generate an oxidation reduction potential for rapid pathogen inactivation.

Ultrasonicating catalyst ink disperses agglomerates, enabling high shear mixing to improve precious metal utilization and ionic transport.

A mixing assembly uses a flow damping element to adjust exhaust gas distribution.

A flexible spray tip assembly changes its outlet geometry to dislodge blockages, eliminating the need for frequent replacements during bioadhesive dispensing.

Branching grooves merge fluid streams inside a compact mixer to enhance mixing homogeneity without enlarging the apparatus.

Bent guide walls generate swirl flow in a cylindrical chamber, ensuring uniform gas mixing while minimizing pressure loss and temperature drops.

A flow-rate regulator redirects a fraction of engine exhaust to atomize and deliver dosant using hydraulic energy.

Cylindrical reactor design uses high-velocity fluid recirculation to mix reaction liquid and disperse syngas bubbles without mechanical agitation.

A modular high-pressure washer pump uses a shaped shaft coupling to connect interchangeable power generators and lances for flexible operation.

A rotating fluid processing apparatus introduces fluids between surfaces using a micropump effect to generate spiral laminar flow.

Scale feedback controls water and adhesive flow into a static mixer, reducing blending time while maintaining target concentration.

A wine funnel uses a raised ball to disperse liquid into streams while concentric grooves capture sediment during transfer.

Rearranging molten material via melt guidance means reduces purge time by reversing stagnant accumulation patterns at channel edges.

Swirl reversal in the intermediate device creates rotationally symmetrical flow, resolving non-uniform mixing near additive feed points.

Replacing tubular reactors with jet mixing eliminates hot spots and reduces energy consumption during cyclopentadiene dimerization.

Coaxial catheter merges administration lumens near the distal end, eliminating carrier line delays and reducing infection risks from tangled lines.

A segmented heated urea mixer uses independent thermal zones to decompose aqueous urea into ammonia for diesel exhaust treatment.

Seeding dry hydrate particles in a cold-flow reactor creates a slurry that prevents pipeline plugging without energized equipment.

Valve-controlled manifold isolates drilling mud from cement slurry in one mixer, preventing contamination while enabling high-volume continuous production.

A mixing nozzle creates turbulent flow through arcuate channels to uniformly suspend contrast agents in liquid embolic compositions.

Segmented injection through a perforated dispersion member reduces pressure drop during heavy crude blending while maintaining homogeneity.